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In this question the TOEFL Speaking Task 4, you'll listen to part of a lecture. You will then be asked a question about what you have heard. Your response will be scored on your ability to speak clearly and coherently and on your ability to accurately convey information about what you heard. You'll have 20 seconds to prepare your answer and 60 seconds to speak.

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Using the main point and examples from the lecture, describe Ritualization.
Using the main point and examples from the lecture, describe Ritualization.
You have 20 seconds to prepare your answer.
Using the main point and examples from the lecture, describe Ritualization.

You have 60 seconds to record your answer. Click the record button to begin.

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Step 1: Listen to part of a lecture
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Step 2: Prepare your answer

Question: Using the main point and examples from the lecture, describe Ritualization.


You have 20 seconds to prepare you answer


00:20
Step 3: Record your answer

Question: Using the main point and examples from the lecture, describe Ritualization.


Recorder will be available after subscribing.

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Keywords In The Practice
No Vocabulary Linked To Practice

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Sample Speaking Review

Score Summary
4.5 / 6
AI Review
Task Fulfillment
Pronunciation & Intonation
Flow & Speech
Correct Grammar Usage
Vocabulary Usage (Appropriacy and Range)
Support & Development
Connections & Coherence
AI Speech Feedback
Speech AI Results
Question 1: Thank you for speaking with me today. I'm conducting a study about people's educational experiences and views on learning. I'd like to ask you a few questions. First, could you tell me a bit about your most recent or current educational experience? Are you in school now, or have you completed any formal studies?
 
so

cancel 94% accurate

done
sound you said
/s/
/s/
play_circle_filled
84% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/oʊ/
/ow/
play_circle_filled
100% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

right now i'm actually in
the

cancel 94% accurate

done
sound you said
/ð/
/dh/
play_circle_filled
88% accurate

To create <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/ə/
/ax/
play_circle_filled
80% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

middle

cancel 85% accurate

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sound you said
/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/d/
/d/
play_circle_filled
78% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/ə/
/ax/
play_circle_filled
88% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
50% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

of

cancel 80% accurate

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sound you said
/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/v/
/v/
play_circle_filled
40% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

a

cancel 91% accurate

done
sound you said
/ə/
/ax/
play_circle_filled
91% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

part-time

cancel 88% accurate

done
sound you said
/p/
/p/
play_circle_filled
81% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/ɑ/
/aa/
play_circle_filled
84% accurate

To pronounce the 'aa sound' <strong>ɑ</strong> the vocal tract is very open for the production of the 'aa sound' <strong>ɑ</strong>. In fact, the jaw is held more open and the back of the tongue is held lower for this sound than any other American English vowel sound pronunciation. The tongue touches the inside of the bottom teeth so that the top of the tongue is nearly even with the top of the bottom teeth. The lips are held open and kept rounded, but relaxed.

/r/
/r/
play_circle_filled
88% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/t/
/t/
play_circle_filled
78% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/aɪ/
/ay/
play_circle_filled
88% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/m/
/m/
play_circle_filled
77% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

master

cancel 64% accurate

Request an AI speaking review to view the pronunciation training content
sound you said
/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
69% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
11% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/r/
/r/
play_circle_filled
79% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

program

cancel 88% accurate

done
sound you said
/p/
/p/
play_circle_filled
100% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/oʊ/
/ow/
play_circle_filled
100% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/g/
/g/
play_circle_filled
100% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/m/
/m/
play_circle_filled
73% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

in

cancel 94% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
93% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/n/
/n/
play_circle_filled
95% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

data

cancel 94% accurate

done
sound you said
/d/
/d/
play_circle_filled
100% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/eɪ/
/ey/
play_circle_filled
100% accurate

To pronounce the <strong>eɪ</strong> sound, begin with the tongue pushed somewhat forward but in a neutral position in the mouth. Then, as the jaw closes slightly, move the body of the tongue upward until it is near the tooth ridge--similar to the position of a 'y sound' <strong>y</strong>. The front sides of the tongue touch the inside of the top teeth at the end of the sound.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
63% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

analytics

cancel 66% accurate

Request an AI speaking review to view the pronunciation training content
sound you said
/æ/
/ae/
play_circle_filled
38% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/n/
/n/
play_circle_filled
35% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ə/
/ax/
play_circle_filled
72% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
21% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/ɪ/
/ih/
play_circle_filled
59% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/t/
/t/
play_circle_filled
97% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/k/
/k/
play_circle_filled
94% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/s/
/s/
play_circle_filled
65% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

at

cancel 88% accurate

done
sound you said
/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/t/
/t/
play_circle_filled
73% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

a

cancel 94% accurate

done
sound you said
/ə/
/ax/
play_circle_filled
94% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

local university.
i

cancel 94% accurate

done
sound you said
/aɪ/
/ay/
play_circle_filled
94% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

graduated

cancel 85% accurate

Request an AI speaking review to view the pronunciation training content
sound you said
/g/
/g/
play_circle_filled
100% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/dʒ/
/jh/
play_circle_filled
100% accurate

To create the <strong>ʤ</strong> sound, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

/u/
/uw/
play_circle_filled
100% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

/eɪ/
/ey/
play_circle_filled
70% accurate

To pronounce the <strong>eɪ</strong> sound, begin with the tongue pushed somewhat forward but in a neutral position in the mouth. Then, as the jaw closes slightly, move the body of the tongue upward until it is near the tooth ridge--similar to the position of a 'y sound' <strong>y</strong>. The front sides of the tongue touch the inside of the top teeth at the end of the sound.

/t/
/t/
play_circle_filled
73% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ɪ/
/ih/
play_circle_filled
79% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/d/
/d/
play_circle_filled
62% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

with

cancel 94% accurate

done
sound you said
/w/
/w/
play_circle_filled
89% accurate

To create the 'w sound' <strong>w</strong> the jaw is mostly closed and the lips form a small, tight circle. The sound is voiced, so the vocal cords must vibrate during the production of the sound.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/ð/
/dh/
play_circle_filled
59% accurate

To create <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

a
psychology

cancel 91% accurate

done
sound you said
/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/aɪ/
/ay/
play_circle_filled
100% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ɑ/
/aa/
play_circle_filled
91% accurate

To pronounce the 'aa sound' <strong>ɑ</strong> the vocal tract is very open for the production of the 'aa sound' <strong>ɑ</strong>. In fact, the jaw is held more open and the back of the tongue is held lower for this sound than any other American English vowel sound pronunciation. The tongue touches the inside of the bottom teeth so that the top of the tongue is nearly even with the top of the bottom teeth. The lips are held open and kept rounded, but relaxed.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/dʒ/
/jh/
play_circle_filled
100% accurate

To create the <strong>ʤ</strong> sound, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

/i/
/iy/
play_circle_filled
60% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

degree

cancel 85% accurate

Request an AI speaking review to view the pronunciation training content
sound you said
/d/
/d/
play_circle_filled
52% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/ə/
/ax/
play_circle_filled
64% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/g/
/g/
play_circle_filled
87% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
84% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

a few
years

cancel 91% accurate

done
sound you said
/j/
/y/
play_circle_filled
68% accurate

To create the 'j sound' <strong>ʤ</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction (similar to the friction of a zh sound <strong>ʒ</strong>).

/i/
/iy/
play_circle_filled
82% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/r/
/r/
play_circle_filled
66% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/z/
/z/
play_circle_filled
33% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

ago.

cancel 88% accurate

done
sound you said
/ə/
/ax/
play_circle_filled
51% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/g/
/g/
play_circle_filled
60% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/oʊ/
/ow/
play_circle_filled
68% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

but
i

cancel 94% accurate

done
sound you said
/aɪ/
/ay/
play_circle_filled
94% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

also

cancel 91% accurate

done
sound you said
/ɔ/
/ao/
play_circle_filled
69% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/s/
/s/
play_circle_filled
80% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/oʊ/
/ow/
play_circle_filled
78% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

worked

cancel 67% accurate

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sound you said
/w/
/w/
play_circle_filled
100% accurate

To create the 'w sound' <strong>w</strong> the jaw is mostly closed and the lips form a small, tight circle. The sound is voiced, so the vocal cords must vibrate during the production of the sound.

/ɚ/
/er/
play_circle_filled
100% accurate

To create the <strong>ɚ</strong> sound first raise the back of the tongue so that the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/t/
/t/
play_circle_filled
0% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

full-time

cancel 76% accurate

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sound you said
/f/
/f/
play_circle_filled
67% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/ʊ/
/uh/
play_circle_filled
64% accurate

To create the 'other u' <strong>ʊ</strong> sound, the back of the tongue is raised to a mid-high position. The sides of the tongue may touch the top teeth toward the back of the mouth. The jaw is slightly closed and the lips are pulled into a loose circle.

/l/
/l/
play_circle_filled
76% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/t/
/t/
play_circle_filled
88% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/aɪ/
/ay/
play_circle_filled
96% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/m/
/m/
play_circle_filled
66% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

and

cancel 82% accurate

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sound you said
/æ/
/ae/
play_circle_filled
87% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/n/
/n/
play_circle_filled
43% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/d/
/d/
play_circle_filled
32% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

i
realized

cancel 85% accurate

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sound you said
/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
100% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/aɪ/
/ay/
play_circle_filled
100% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/z/
/z/
play_circle_filled
90% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/d/
/d/
play_circle_filled
0% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

i

cancel 80% accurate

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sound you said
/aɪ/
/ay/
play_circle_filled
80% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

needed

cancel 28% accurate

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sound you said
/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/i/
/iy/
play_circle_filled
100% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/d/
/d/
play_circle_filled
39% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/ɪ/
/ih/
play_circle_filled
5% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/d/
/d/
play_circle_filled
25% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

stronger

cancel 76% accurate

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sound you said
/s/
/s/
play_circle_filled
45% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/ɑ/
/aa/
play_circle_filled
100% accurate

To pronounce the 'aa sound' <strong>ɑ</strong> the vocal tract is very open for the production of the 'aa sound' <strong>ɑ</strong>. In fact, the jaw is held more open and the back of the tongue is held lower for this sound than any other American English vowel sound pronunciation. The tongue touches the inside of the bottom teeth so that the top of the tongue is nearly even with the top of the bottom teeth. The lips are held open and kept rounded, but relaxed.

/ŋ/
/ng/
play_circle_filled
100% accurate

To create the 'ng sound' <strong>ŋ</strong>, air is prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/g/
/g/
play_circle_filled
100% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/r/
/r/
play_circle_filled
82% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

skills, so i went back
to

cancel 82% accurate

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sound you said
/t/
/t/
play_circle_filled
80% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/u/
/uw/
play_circle_filled
80% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

school.

cancel 88% accurate

done
sound you said
/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/u/
/uw/
play_circle_filled
100% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

/l/
/l/
play_circle_filled
73% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

a

cancel 94% accurate

done
sound you said
/ə/
/ah/
play_circle_filled
94% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

my

cancel 74% accurate

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sound you said
/m/
/m/
play_circle_filled
40% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/aɪ/
/ay/
play_circle_filled
40% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

because i'm
working

cancel 94% accurate

done
sound you said
/w/
/w/
play_circle_filled
100% accurate

To create the 'w sound' <strong>w</strong> the jaw is mostly closed and the lips form a small, tight circle. The sound is voiced, so the vocal cords must vibrate during the production of the sound.

/ɚ/
/er/
play_circle_filled
100% accurate

To create the <strong>ɚ</strong> sound first raise the back of the tongue so that the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/ŋ/
/ng/
play_circle_filled
78% accurate

To create the 'ng sound' <strong>ŋ</strong>, air is prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

during
the

cancel 80% accurate

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sound you said
/ð/
/dh/
play_circle_filled
72% accurate

To create <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/ə/
/ax/
play_circle_filled
69% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

day

cancel 91% accurate

done
sound you said
/d/
/d/
play_circle_filled
91% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/eɪ/
/ey/
play_circle_filled
87% accurate

To pronounce the <strong>eɪ</strong> sound, begin with the tongue pushed somewhat forward but in a neutral position in the mouth. Then, as the jaw closes slightly, move the body of the tongue upward until it is near the tooth ridge--similar to the position of a 'y sound' <strong>y</strong>. The front sides of the tongue touch the inside of the top teeth at the end of the sound.

so all my
classes

cancel 94% accurate

done
sound you said
/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/z/
/z/
play_circle_filled
78% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

are
in

cancel 91% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
80% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/n/
/n/
play_circle_filled
85% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

evenings or online.
which

cancel 94% accurate

done
sound you said
/w/
/w/
play_circle_filled
78% accurate

To create the 'w sound' <strong>w</strong> the jaw is mostly closed and the lips form a small, tight circle. The sound is voiced, so the vocal cords must vibrate during the production of the sound.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/tʃ/
/ch/
play_circle_filled
100% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

is kind
of

cancel 94% accurate

done
sound you said
/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/v/
/v/
play_circle_filled
67% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

exhausting.

cancel 85% accurate

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sound you said
/ɪ/
/ih/
play_circle_filled
70% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/g/
/g/
play_circle_filled
100% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/z/
/z/
play_circle_filled
100% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ɔ/
/ao/
play_circle_filled
100% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/ŋ/
/ng/
play_circle_filled
72% accurate

To create the 'ng sound' <strong>ŋ</strong>, air is prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

i

cancel 94% accurate

done
sound you said
/aɪ/
/ay/
play_circle_filled
94% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

social

cancel 73% accurate

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sound you said
/s/
/s/
play_circle_filled
73% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/oʊ/
/ow/
play_circle_filled
73% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/ʃ/
/sh/
play_circle_filled
73% accurate

To create the 'sh sound' <strong>ʃ</strong>, air is forced between a wide groove in the center of the front of the tongue and the back of the tooth ridge. The sides of the blade of the tongue may touch the side teeth. The lips are kept slightly tense, and may protrude somewhat during the production of the sound. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration.

/ə/
/ax/
play_circle_filled
73% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
73% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

convenient.

cancel 76% accurate

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sound you said
/k/
/k/
play_circle_filled
80% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/v/
/v/
play_circle_filled
100% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/i/
/iy/
play_circle_filled
100% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/j/
/y/
play_circle_filled
100% accurate

To create the 'j sound' <strong>ʤ</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction (similar to the friction of a zh sound <strong>ʒ</strong>).

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
57% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
53% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

the

cancel 94% accurate

done
sound you said
/ð/
/dh/
play_circle_filled
80% accurate

To create <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/ə/
/ax/
play_circle_filled
82% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

program

cancel 88% accurate

done
sound you said
/p/
/p/
play_circle_filled
100% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/oʊ/
/ow/
play_circle_filled
100% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/g/
/g/
play_circle_filled
100% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/m/
/m/
play_circle_filled
73% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

is

cancel 94% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/z/
/z/
play_circle_filled
80% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

three

cancel 88% accurate

done
sound you said
/θ/
/th/
play_circle_filled
49% accurate

To create the <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/r/
/r/
play_circle_filled
58% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
66% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

semesters

cancel 48% accurate

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sound you said
/s/
/s/
play_circle_filled
48% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ə/
/ax/
play_circle_filled
60% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/m/
/m/
play_circle_filled
53% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ɛ/
/eh/
play_circle_filled
55% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/s/
/s/
play_circle_filled
63% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/r/
/r/
play_circle_filled
0% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/z/
/z/
play_circle_filled
0% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

long.

cancel 91% accurate

done
sound you said
/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/ɑ/
/aa/
play_circle_filled
80% accurate

To pronounce the 'aa sound' <strong>ɑ</strong> the vocal tract is very open for the production of the 'aa sound' <strong>ɑ</strong>. In fact, the jaw is held more open and the back of the tongue is held lower for this sound than any other American English vowel sound pronunciation. The tongue touches the inside of the bottom teeth so that the top of the tongue is nearly even with the top of the bottom teeth. The lips are held open and kept rounded, but relaxed.

/ŋ/
/ng/
play_circle_filled
82% accurate

To create the 'ng sound' <strong>ŋ</strong>, air is prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

i

cancel 94% accurate

done
sound you said
/aɪ/
/ay/
play_circle_filled
94% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

just

cancel 94% accurate

done
sound you said
/dʒ/
/jh/
play_circle_filled
94% accurate

To create the <strong>ʤ</strong> sound, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

/ə/
/ax/
play_circle_filled
94% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/s/
/s/
play_circle_filled
94% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
94% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

finished

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sound you said
/f/
/f/
play_circle_filled
100% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/ʃ/
/sh/
play_circle_filled
100% accurate

To create the 'sh sound' <strong>ʃ</strong>, air is forced between a wide groove in the center of the front of the tongue and the back of the tooth ridge. The sides of the blade of the tongue may touch the side teeth. The lips are kept slightly tense, and may protrude somewhat during the production of the sound. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration.

/t/
/t/
play_circle_filled
68% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

the

cancel 80% accurate

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sound you said
/ð/
/dh/
play_circle_filled
40% accurate

To create <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/ə/
/ax/
play_circle_filled
80% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

first one so
i'm

cancel 94% accurate

done
sound you said
/aɪ/
/ay/
play_circle_filled
93% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/m/
/m/
play_circle_filled
95% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

basically

cancel 94% accurate

done
sound you said
/b/
/b/
play_circle_filled
100% accurate

To create the <strong>b</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/eɪ/
/ey/
play_circle_filled
78% accurate

To pronounce the <strong>eɪ</strong> sound, begin with the tongue pushed somewhat forward but in a neutral position in the mouth. Then, as the jaw closes slightly, move the body of the tongue upward until it is near the tooth ridge--similar to the position of a 'y sound' <strong>y</strong>. The front sides of the tongue touch the inside of the top teeth at the end of the sound.

/s/
/s/
play_circle_filled
77% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/i/
/iy/
play_circle_filled
81% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

basically

cancel 94% accurate

done
sound you said
/b/
/b/
play_circle_filled
77% accurate

To create the <strong>b</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/eɪ/
/ey/
play_circle_filled
100% accurate

To pronounce the <strong>eɪ</strong> sound, begin with the tongue pushed somewhat forward but in a neutral position in the mouth. Then, as the jaw closes slightly, move the body of the tongue upward until it is near the tooth ridge--similar to the position of a 'y sound' <strong>y</strong>. The front sides of the tongue touch the inside of the top teeth at the end of the sound.

/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/i/
/iy/
play_circle_filled
79% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

juggling

cancel 70% accurate

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sound you said
/dʒ/
/jh/
play_circle_filled
100% accurate

To create the <strong>ʤ</strong> sound, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

/ə/
/ah/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/g/
/g/
play_circle_filled
100% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
67% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/ɪ/
/ih/
play_circle_filled
55% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/ŋ/
/ng/
play_circle_filled
54% accurate

To create the 'ng sound' <strong>ŋ</strong>, air is prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

work,

cancel 91% accurate

done
sound you said
/w/
/w/
play_circle_filled
100% accurate

To create the 'w sound' <strong>w</strong> the jaw is mostly closed and the lips form a small, tight circle. The sound is voiced, so the vocal cords must vibrate during the production of the sound.

/ɚ/
/er/
play_circle_filled
100% accurate

To create the <strong>ɚ</strong> sound first raise the back of the tongue so that the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound.

/r/
/r/
play_circle_filled
82% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/k/
/k/
play_circle_filled
70% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

homework,

cancel 91% accurate

done
sound you said
/ə/
/h/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/oʊ/
/ow/
play_circle_filled
100% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/w/
/w/
play_circle_filled
100% accurate

To create the 'w sound' <strong>w</strong> the jaw is mostly closed and the lips form a small, tight circle. The sound is voiced, so the vocal cords must vibrate during the production of the sound.

/ɚ/
/er/
play_circle_filled
100% accurate

To create the <strong>ɚ</strong> sound first raise the back of the tongue so that the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/k/
/k/
play_circle_filled
76% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

and

cancel 94% accurate

done
sound you said
/ə/
/ax/
play_circle_filled
80% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
80% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

social

cancel 88% accurate

done
sound you said
/s/
/s/
play_circle_filled
88% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/oʊ/
/ow/
play_circle_filled
88% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/ʃ/
/sh/
play_circle_filled
88% accurate

To create the 'sh sound' <strong>ʃ</strong>, air is forced between a wide groove in the center of the front of the tongue and the back of the tooth ridge. The sides of the blade of the tongue may touch the side teeth. The lips are kept slightly tense, and may protrude somewhat during the production of the sound. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration.

/ə/
/ax/
play_circle_filled
88% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
88% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

life right now.   play_circle_filled

Pronunciation: 89%   Fluency: 93%   Grammar: 75%   Coherence: 90%   Vocab: 80%   Relevance: 95%  

 
grammar
Strengths

Overall sentence structures are simple and correct, with consistent past and present tense use when describing past graduation and current study.

Pronouns and basic subject-verb agreement are handled accurately, making the message easy to follow.

Weaknesses

Minor grammatical issues and redundancy reduce polish; for instance the line "Because I'm working during the day, so all my classes are in evenings or online," combines "Because" and "so" and omits the article in "in evenings," which would be more natural as "because I'm working during the day, all my classes are in the evenings or online."

Question 2: Great. People often have different feelings about school depending on their environment and support systems. Some enjoy learning and thrive in the classroom, while others find school stressful or difficult to connect with. What has your overall experience with education been like, and what factors do you think shaped it?
 
a

cancel 88% accurate

done
sound you said
/ə/
/ah/
play_circle_filled
88% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

me.

cancel 76% accurate

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sound you said
/m/
/m/
play_circle_filled
40% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/i/
/iy/
play_circle_filled
40% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

my relationship with
school

cancel 94% accurate

done
sound you said
/s/
/s/
play_circle_filled
94% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/k/
/k/
play_circle_filled
94% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/u/
/uw/
play_circle_filled
94% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

/l/
/l/
play_circle_filled
94% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

has been
kind

cancel 82% accurate

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sound you said
/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/aɪ/
/ay/
play_circle_filled
80% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/n/
/n/
play_circle_filled
80% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/d/
/d/
play_circle_filled
4% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

of

cancel 82% accurate

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sound you said
/ə/
/ax/
play_circle_filled
56% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/v/
/v/
play_circle_filled
49% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

a
mixed

cancel 94% accurate

done
sound you said
/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/s/
/s/
play_circle_filled
78% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
70% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

feeling.
in

cancel 91% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
81% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/n/
/n/
play_circle_filled
80% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

elementary

cancel 91% accurate

done
sound you said
/ɛ/
/eh/
play_circle_filled
100% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ɛ/
/eh/
play_circle_filled
100% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
76% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

and
middle

cancel 88% accurate

done
sound you said
/m/
/m/
play_circle_filled
95% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/d/
/d/
play_circle_filled
50% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/ə/
/ax/
play_circle_filled
24% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
58% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

school

cancel 79% accurate

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sound you said
/s/
/s/
play_circle_filled
67% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/u/
/uw/
play_circle_filled
69% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

/l/
/l/
play_circle_filled
61% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

i
liked

cancel 59% accurate

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sound you said
/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/aɪ/
/ay/
play_circle_filled
100% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/k/
/k/
play_circle_filled
68% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/t/
/t/
play_circle_filled
31% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

it

cancel 88% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
56% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/t/
/t/
play_circle_filled
81% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

because
it's

cancel 91% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
77% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/t/
/t/
play_circle_filled
72% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/s/
/s/
play_circle_filled
28% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

small classes.
teacher

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sound you said
/t/
/t/
play_circle_filled
51% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/i/
/iy/
play_circle_filled
86% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/tʃ/
/ch/
play_circle_filled
69% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

/ə/
/ax/
play_circle_filled
90% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/r/
/r/
play_circle_filled
85% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

knows

cancel 94% accurate

done
sound you said
/n/
/n/
play_circle_filled
84% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/oʊ/
/ow/
play_circle_filled
100% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/z/
/z/
play_circle_filled
98% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

my name.
and

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sound you said
/æ/
/ae/
play_circle_filled
96% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/n/
/n/
play_circle_filled
54% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/d/
/d/
play_circle_filled
48% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

that
is

cancel 94% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/z/
/z/
play_circle_filled
86% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

a
cozy

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sound you said
/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/oʊ/
/ow/
play_circle_filled
48% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/z/
/z/
play_circle_filled
39% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/i/
/iy/
play_circle_filled
48% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

atmosphere

cancel 91% accurate

done
sound you said
/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/f/
/f/
play_circle_filled
100% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/i/
/iy/
play_circle_filled
100% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/r/
/r/
play_circle_filled
76% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

is.

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sound you said
/ɪ/
/ih/
play_circle_filled
46% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/z/
/z/
play_circle_filled
53% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

high

cancel 94% accurate

done
sound you said
/ə/
/h/
play_circle_filled
94% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/aɪ/
/ay/
play_circle_filled
94% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

school

cancel 88% accurate

done
sound you said
/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/u/
/uw/
play_circle_filled
73% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

was a
different

cancel 53% accurate

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sound you said
/d/
/d/
play_circle_filled
54% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/f/
/f/
play_circle_filled
69% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/ə/
/ax/
play_circle_filled
43% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
43% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
12% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

story

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sound you said
/s/
/s/
play_circle_filled
85% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
85% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ɔ/
/ao/
play_circle_filled
85% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/r/
/r/
play_circle_filled
85% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
85% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

was a much more
difficult.

cancel 88% accurate

done
sound you said
/d/
/d/
play_circle_filled
88% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/ɪ/
/ih/
play_circle_filled
88% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/f/
/f/
play_circle_filled
88% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/ɪ/
/ih/
play_circle_filled
88% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/k/
/k/
play_circle_filled
88% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ə/
/ah/
play_circle_filled
88% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
88% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/t/
/t/
play_circle_filled
88% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

and

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sound you said
/æ/
/ae/
play_circle_filled
99% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/d/
/d/
play_circle_filled
0% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

the

cancel 94% accurate

done
sound you said
/ð/
/dh/
play_circle_filled
89% accurate

To create <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/ə/
/ax/
play_circle_filled
93% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

classes

cancel 94% accurate

done
sound you said
/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ɪ/
/ih/
play_circle_filled
93% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/z/
/z/
play_circle_filled
68% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

were huge
and

cancel 94% accurate

done
sound you said
/æ/
/ae/
play_circle_filled
95% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/d/
/d/
play_circle_filled
72% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

i

cancel 91% accurate

done
sound you said
/aɪ/
/ay/
play_circle_filled
91% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

felt

cancel 94% accurate

done
sound you said
/f/
/f/
play_circle_filled
89% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/ɛ/
/eh/
play_circle_filled
100% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/l/
/l/
play_circle_filled
82% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/t/
/t/
play_circle_filled
68% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

a
bit

cancel 91% accurate

done
sound you said
/b/
/b/
play_circle_filled
85% accurate

To create the <strong>b</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/ɪ/
/ih/
play_circle_filled
78% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/t/
/t/
play_circle_filled
66% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

like a
factory

cancel 88% accurate

done
sound you said
/f/
/f/
play_circle_filled
100% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/æ/
/ae/
play_circle_filled
83% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/k/
/k/
play_circle_filled
65% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/t/
/t/
play_circle_filled
66% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
68% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
84% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

so.

cancel 94% accurate

done
sound you said
/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/oʊ/
/ow/
play_circle_filled
88% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

yeah,

cancel 69% accurate

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sound you said
/j/
/y/
play_circle_filled
94% accurate

To create the 'j sound' <strong>ʤ</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction (similar to the friction of a zh sound <strong>ʒ</strong>).

/ɛ/
/eh/
play_circle_filled
57% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/ə/
/ax/
play_circle_filled
0% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

i

cancel 94% accurate

done
sound you said
/aɪ/
/ay/
play_circle_filled
94% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

kind of have the
adjust-get-by

cancel 94% accurate

done
sound you said
/ə/
/ax/
play_circle_filled
94% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/dʒ/
/jh/
play_circle_filled
94% accurate

To create the <strong>ʤ</strong> sound, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

/ə/
/ah/
play_circle_filled
94% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/s/
/s/
play_circle_filled
94% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
94% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/g/
/g/
play_circle_filled
94% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/ɛ/
/eh/
play_circle_filled
94% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/t/
/t/
play_circle_filled
94% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/b/
/b/
play_circle_filled
94% accurate

To create the <strong>b</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/aɪ/
/ay/
play_circle_filled
94% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

mentality.

cancel 85% accurate

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sound you said
/m/
/m/
play_circle_filled
70% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ɛ/
/eh/
play_circle_filled
74% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/n/
/n/
play_circle_filled
57% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/t/
/t/
play_circle_filled
87% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/i/
/iy/
play_circle_filled
66% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

college

cancel 70% accurate

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sound you said
/k/
/k/
play_circle_filled
55% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ɑ/
/aa/
play_circle_filled
59% accurate

To pronounce the 'aa sound' <strong>ɑ</strong> the vocal tract is very open for the production of the 'aa sound' <strong>ɑ</strong>. In fact, the jaw is held more open and the back of the tongue is held lower for this sound than any other American English vowel sound pronunciation. The tongue touches the inside of the bottom teeth so that the top of the tongue is nearly even with the top of the bottom teeth. The lips are held open and kept rounded, but relaxed.

/l/
/l/
play_circle_filled
61% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/dʒ/
/jh/
play_circle_filled
100% accurate

To create the <strong>ʤ</strong> sound, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

brought me
back

cancel 94% accurate

done
sound you said
/b/
/b/
play_circle_filled
100% accurate

To create the <strong>b</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/æ/
/ae/
play_circle_filled
83% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/k/
/k/
play_circle_filled
67% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

because i
finally

cancel 73% accurate

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sound you said
/f/
/f/
play_circle_filled
100% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/aɪ/
/ay/
play_circle_filled
64% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ə/
/ax/
play_circle_filled
67% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
59% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/i/
/iy/
play_circle_filled
53% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

had

cancel 91% accurate

done
sound you said
/ə/
/h/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/d/
/d/
play_circle_filled
76% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

the

cancel 85% accurate

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sound you said
/ð/
/dh/
play_circle_filled
79% accurate

To create <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/ə/
/ah/
play_circle_filled
79% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

freedom

cancel 64% accurate

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sound you said
/f/
/f/
play_circle_filled
66% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
100% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/d/
/d/
play_circle_filled
100% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/ə/
/ax/
play_circle_filled
64% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/m/
/m/
play_circle_filled
30% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

to

cancel 82% accurate

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sound you said
/t/
/t/
play_circle_filled
78% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
80% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

choose
courses

cancel 91% accurate

done
sound you said
/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ɔ/
/ao/
play_circle_filled
82% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/z/
/z/
play_circle_filled
69% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

that

cancel 94% accurate

done
sound you said
/ð/
/dh/
play_circle_filled
90% accurate

To create <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/æ/
/ae/
play_circle_filled
88% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/t/
/t/
play_circle_filled
75% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

interest

cancel 88% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
71% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/s/
/s/
play_circle_filled
76% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
73% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

me.   play_circle_filled

Pronunciation: 89%   Fluency: 94%   Grammar: 65%   Coherence: 80%   Vocab: 75%   Relevance: 90%  

 
grammar
Strengths

Most simple sentence structures are correct and understandable, and you use past tense appropriately in places like "College brought me back."

Weaknesses

There are tense and agreement inconsistencies and some awkward constructions that interrupt fluency, for example "Teacher knows my name and that is a cozy atmosphere" mixes present tense and a clumsy connector, and the phrasing "I kind of have the adjust-get-by mentality" sounds ungrammatical and unclear.

Question 3: Let's talk about motivation. Some people are very driven by academic success or career goals, while others focus more on learning for personal growth. What has motivated you most in your education so far—and has that motivation changed over time?
 
that's good
question.

cancel 88% accurate

done
sound you said
/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/w/
/w/
play_circle_filled
100% accurate

To create the 'w sound' <strong>w</strong> the jaw is mostly closed and the lips form a small, tight circle. The sound is voiced, so the vocal cords must vibrate during the production of the sound.

/ɛ/
/eh/
play_circle_filled
83% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/s/
/s/
play_circle_filled
58% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/tʃ/
/ch/
play_circle_filled
100% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
79% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

early

cancel 85% accurate

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sound you said
/ɚ/
/er/
play_circle_filled
100% accurate

To create the <strong>ɚ</strong> sound first raise the back of the tongue so that the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/i/
/iy/
play_circle_filled
71% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

on

cancel 88% accurate

done
sound you said
/ɑ/
/aa/
play_circle_filled
93% accurate

To pronounce the 'aa sound' <strong>ɑ</strong> the vocal tract is very open for the production of the 'aa sound' <strong>ɑ</strong>. In fact, the jaw is held more open and the back of the tongue is held lower for this sound than any other American English vowel sound pronunciation. The tongue touches the inside of the bottom teeth so that the top of the tongue is nearly even with the top of the bottom teeth. The lips are held open and kept rounded, but relaxed.

/n/
/n/
play_circle_filled
80% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

i

cancel 85% accurate

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sound you said
/aɪ/
/ay/
play_circle_filled
85% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

was

cancel 88% accurate

done
sound you said
/w/
/w/
play_circle_filled
95% accurate

To create the 'w sound' <strong>w</strong> the jaw is mostly closed and the lips form a small, tight circle. The sound is voiced, so the vocal cords must vibrate during the production of the sound.

/ə/
/ax/
play_circle_filled
97% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/z/
/z/
play_circle_filled
72% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

totally

cancel 88% accurate

done
sound you said
/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/oʊ/
/ow/
play_circle_filled
100% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/l/
/l/
play_circle_filled
86% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/i/
/iy/
play_circle_filled
61% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

driven

cancel 94% accurate

done
sound you said
/d/
/d/
play_circle_filled
79% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/v/
/v/
play_circle_filled
90% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/ə/
/ax/
play_circle_filled
93% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
84% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

by.
goal

cancel 79% accurate

Request an AI speaking review to view the pronunciation training content
sound you said
/g/
/g/
play_circle_filled
80% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/oʊ/
/ow/
play_circle_filled
100% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/l/
/l/
play_circle_filled
52% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

stars

cancel 94% accurate

done
sound you said
/s/
/s/
play_circle_filled
78% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ɑ/
/aa/
play_circle_filled
100% accurate

To pronounce the 'aa sound' <strong>ɑ</strong> the vocal tract is very open for the production of the 'aa sound' <strong>ɑ</strong>. In fact, the jaw is held more open and the back of the tongue is held lower for this sound than any other American English vowel sound pronunciation. The tongue touches the inside of the bottom teeth so that the top of the tongue is nearly even with the top of the bottom teeth. The lips are held open and kept rounded, but relaxed.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/z/
/z/
play_circle_filled
100% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

and getting my
parents

cancel 85% accurate

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sound you said
/p/
/p/
play_circle_filled
100% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/ɛ/
/eh/
play_circle_filled
100% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/s/
/s/
play_circle_filled
71% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

to

cancel 91% accurate

done
sound you said
/t/
/t/
play_circle_filled
85% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/u/
/uw/
play_circle_filled
80% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

stack

cancel 94% accurate

done
sound you said
/s/
/s/
play_circle_filled
54% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

my
report

cancel 94% accurate

done
sound you said
/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
75% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/p/
/p/
play_circle_filled
67% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/ɔ/
/ao/
play_circle_filled
84% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/r/
/r/
play_circle_filled
59% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/t/
/t/
play_circle_filled
69% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

card

cancel 73% accurate

Request an AI speaking review to view the pronunciation training content
sound you said
/k/
/k/
play_circle_filled
75% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ɑ/
/aa/
play_circle_filled
100% accurate

To pronounce the 'aa sound' <strong>ɑ</strong> the vocal tract is very open for the production of the 'aa sound' <strong>ɑ</strong>. In fact, the jaw is held more open and the back of the tongue is held lower for this sound than any other American English vowel sound pronunciation. The tongue touches the inside of the bottom teeth so that the top of the tongue is nearly even with the top of the bottom teeth. The lips are held open and kept rounded, but relaxed.

/r/
/r/
play_circle_filled
57% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/d/
/d/
play_circle_filled
50% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

on

cancel 94% accurate

done
sound you said
/ɔ/
/ao/
play_circle_filled
87% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

fridge, then
encouraging

cancel 88% accurate

done
sound you said
/ɛ/
/eh/
play_circle_filled
35% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ɚ/
/er/
play_circle_filled
100% accurate

To create the <strong>ɚ</strong> sound first raise the back of the tongue so that the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/dʒ/
/jh/
play_circle_filled
100% accurate

To create the <strong>ʤ</strong> sound, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/ŋ/
/ng/
play_circle_filled
51% accurate

To create the 'ng sound' <strong>ŋ</strong>, air is prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

the
motivation

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sound you said
/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/oʊ/
/ow/
play_circle_filled
100% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/v/
/v/
play_circle_filled
100% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/eɪ/
/ey/
play_circle_filled
100% accurate

To pronounce the <strong>eɪ</strong> sound, begin with the tongue pushed somewhat forward but in a neutral position in the mouth. Then, as the jaw closes slightly, move the body of the tongue upward until it is near the tooth ridge--similar to the position of a 'y sound' <strong>y</strong>. The front sides of the tongue touch the inside of the top teeth at the end of the sound.

/ʃ/
/sh/
play_circle_filled
100% accurate

To create the 'sh sound' <strong>ʃ</strong>, air is forced between a wide groove in the center of the front of the tongue and the back of the tooth ridge. The sides of the blade of the tongue may touch the side teeth. The lips are kept slightly tense, and may protrude somewhat during the production of the sound. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
78% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

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sound you said
/ʃ/
/sh/
play_circle_filled
100% accurate

To create the 'sh sound' <strong>ʃ</strong>, air is forced between a wide groove in the center of the front of the tongue and the back of the tooth ridge. The sides of the blade of the tongue may touch the side teeth. The lips are kept slightly tense, and may protrude somewhat during the production of the sound. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/f/
/f/
play_circle_filled
78% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/t/
/t/
play_circle_filled
57% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

to
curiosities.

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sound you said
/k/
/k/
play_circle_filled
76% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/j/
/y/
play_circle_filled
100% accurate

To create the 'j sound' <strong>ʤ</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction (similar to the friction of a zh sound <strong>ʒ</strong>).

/ʊ/
/uh/
play_circle_filled
100% accurate

To create the 'other u' <strong>ʊ</strong> sound, the back of the tongue is raised to a mid-high position. The sides of the tongue may touch the top teeth toward the back of the mouth. The jaw is slightly closed and the lips are pulled into a loose circle.

/r/
/r/
play_circle_filled
66% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
68% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/ɔ/
/ao/
play_circle_filled
48% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/s/
/s/
play_circle_filled
58% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/i/
/iy/
play_circle_filled
100% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/z/
/z/
play_circle_filled
64% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

i

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done
sound you said
/aɪ/
/ay/
play_circle_filled
91% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

like to
research

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sound you said
/r/
/r/
play_circle_filled
76% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
100% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/s/
/s/
play_circle_filled
80% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ɚ/
/er/
play_circle_filled
100% accurate

To create the <strong>ɚ</strong> sound first raise the back of the tongue so that the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/tʃ/
/ch/
play_circle_filled
71% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

and

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sound you said
/æ/
/ae/
play_circle_filled
89% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/n/
/n/
play_circle_filled
45% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/d/
/d/
play_circle_filled
40% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

i want to know more about this now in my
master's

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sound you said
/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/r/
/r/
play_circle_filled
0% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/z/
/z/
play_circle_filled
100% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

degree.

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sound you said
/d/
/d/
play_circle_filled
30% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/ə/
/ax/
play_circle_filled
73% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/g/
/g/
play_circle_filled
100% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
95% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

the
big

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sound you said
/b/
/b/
play_circle_filled
100% accurate

To create the <strong>b</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/g/
/g/
play_circle_filled
27% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

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sound you said
/d/
/d/
play_circle_filled
82% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/aɪ/
/ay/
play_circle_filled
100% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/v/
/v/
play_circle_filled
100% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/r/
/r/
play_circle_filled
76% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

is is
practicality.

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sound you said
/p/
/p/
play_circle_filled
75% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/æ/
/ae/
play_circle_filled
69% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ɪ/
/ih/
play_circle_filled
68% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/k/
/k/
play_circle_filled
43% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/æ/
/ae/
play_circle_filled
54% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/l/
/l/
play_circle_filled
68% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/ɪ/
/ih/
play_circle_filled
63% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/t/
/t/
play_circle_filled
66% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/i/
/iy/
play_circle_filled
63% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

i

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done
sound you said
/aɪ/
/ay/
play_circle_filled
94% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

need

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sound you said
/n/
/n/
play_circle_filled
86% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/i/
/iy/
play_circle_filled
83% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/d/
/d/
play_circle_filled
12% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

those

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done
sound you said
/ð/
/dh/
play_circle_filled
50% accurate

To create <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/oʊ/
/ow/
play_circle_filled
94% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/z/
/z/
play_circle_filled
71% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

skills

cancel 91% accurate

done
sound you said
/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/l/
/l/
play_circle_filled
92% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/z/
/z/
play_circle_filled
0% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

to

cancel 80% accurate

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sound you said
/t/
/t/
play_circle_filled
60% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
45% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

stay
relevant

cancel 46% accurate

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sound you said
/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/ɛ/
/eh/
play_circle_filled
98% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/l/
/l/
play_circle_filled
50% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/ə/
/ax/
play_circle_filled
6% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/v/
/v/
play_circle_filled
36% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/ə/
/ax/
play_circle_filled
76% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
46% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
2% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

in

cancel 88% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
80% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/n/
/n/
play_circle_filled
80% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

world

cancel 91% accurate

done
sound you said
/w/
/w/
play_circle_filled
92% accurate

To create the 'w sound' <strong>w</strong> the jaw is mostly closed and the lips form a small, tight circle. The sound is voiced, so the vocal cords must vibrate during the production of the sound.

/ɚ/
/er/
play_circle_filled
100% accurate

To create the <strong>ɚ</strong> sound first raise the back of the tongue so that the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/l/
/l/
play_circle_filled
67% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/d/
/d/
play_circle_filled
78% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

and

cancel 88% accurate

done
sound you said
/æ/
/ae/
play_circle_filled
60% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/n/
/n/
play_circle_filled
68% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/d/
/d/
play_circle_filled
74% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

hopefully

cancel 94% accurate

done
sound you said
/ə/
/h/
play_circle_filled
69% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/oʊ/
/ow/
play_circle_filled
100% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/p/
/p/
play_circle_filled
100% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/f/
/f/
play_circle_filled
100% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/i/
/iy/
play_circle_filled
77% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

get a
promotion

cancel 91% accurate

done
sound you said
/p/
/p/
play_circle_filled
80% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/r/
/r/
play_circle_filled
82% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/ə/
/ax/
play_circle_filled
98% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/oʊ/
/ow/
play_circle_filled
100% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/ʃ/
/sh/
play_circle_filled
100% accurate

To create the 'sh sound' <strong>ʃ</strong>, air is forced between a wide groove in the center of the front of the tongue and the back of the tooth ridge. The sides of the blade of the tongue may touch the side teeth. The lips are kept slightly tense, and may protrude somewhat during the production of the sound. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
59% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

so

cancel 94% accurate

done
sound you said
/s/
/s/
play_circle_filled
85% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/oʊ/
/ow/
play_circle_filled
90% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

it's more
fun

cancel 88% accurate

done
sound you said
/f/
/f/
play_circle_filled
100% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/ə/
/ah/
play_circle_filled
97% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
36% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

still

cancel 79% accurate

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sound you said
/s/
/s/
play_circle_filled
88% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
96% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ɪ/
/ih/
play_circle_filled
92% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/l/
/l/
play_circle_filled
31% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

to

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sound you said
/t/
/t/
play_circle_filled
87% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/u/
/uw/
play_circle_filled
66% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

internal

cancel 91% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
66% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
85% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ɚ/
/er/
play_circle_filled
100% accurate

To create the <strong>ɚ</strong> sound first raise the back of the tongue so that the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

curiosities

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sound you said
/k/
/k/
play_circle_filled
75% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/j/
/y/
play_circle_filled
100% accurate

To create the 'j sound' <strong>ʤ</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction (similar to the friction of a zh sound <strong>ʒ</strong>).

/ʊ/
/uh/
play_circle_filled
79% accurate

To create the 'other u' <strong>ʊ</strong> sound, the back of the tongue is raised to a mid-high position. The sides of the tongue may touch the top teeth toward the back of the mouth. The jaw is slightly closed and the lips are pulled into a loose circle.

/r/
/r/
play_circle_filled
61% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
48% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/ɔ/
/ao/
play_circle_filled
28% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/s/
/s/
play_circle_filled
50% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/i/
/iy/
play_circle_filled
100% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/z/
/z/
play_circle_filled
62% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

and now more of
a

cancel 94% accurate

done
sound you said
/ə/
/ax/
play_circle_filled
94% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

career
survival

cancel 91% accurate

done
sound you said
/s/
/s/
play_circle_filled
68% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/v/
/v/
play_circle_filled
100% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/aɪ/
/ay/
play_circle_filled
100% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/v/
/v/
play_circle_filled
100% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/ə/
/ax/
play_circle_filled
84% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
75% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

motivation.

cancel 91% accurate

done
sound you said
/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/oʊ/
/ow/
play_circle_filled
100% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/v/
/v/
play_circle_filled
100% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/eɪ/
/ey/
play_circle_filled
100% accurate

To pronounce the <strong>eɪ</strong> sound, begin with the tongue pushed somewhat forward but in a neutral position in the mouth. Then, as the jaw closes slightly, move the body of the tongue upward until it is near the tooth ridge--similar to the position of a 'y sound' <strong>y</strong>. The front sides of the tongue touch the inside of the top teeth at the end of the sound.

/ʃ/
/sh/
play_circle_filled
100% accurate

To create the 'sh sound' <strong>ʃ</strong>, air is forced between a wide groove in the center of the front of the tongue and the back of the tooth ridge. The sides of the blade of the tongue may touch the side teeth. The lips are kept slightly tense, and may protrude somewhat during the production of the sound. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration.

/ə/
/ax/
play_circle_filled
91% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
60% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

which

cancel 94% accurate

done
sound you said
/w/
/w/
play_circle_filled
78% accurate

To create the 'w sound' <strong>w</strong> the jaw is mostly closed and the lips form a small, tight circle. The sound is voiced, so the vocal cords must vibrate during the production of the sound.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/tʃ/
/ch/
play_circle_filled
100% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction.

i feel
i'm

cancel 94% accurate

done
sound you said
/aɪ/
/ay/
play_circle_filled
100% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/m/
/m/
play_circle_filled
76% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

grown

cancel 66% accurate

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sound you said
/g/
/g/
play_circle_filled
41% accurate

To create the <strong>g</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>g</strong> is less than that for a <strong>k</strong>.

/r/
/r/
play_circle_filled
54% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/oʊ/
/ow/
play_circle_filled
40% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/n/
/n/
play_circle_filled
65% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

up.

cancel 94% accurate

done
sound you said
/ə/
/ah/
play_circle_filled
80% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/p/
/p/
play_circle_filled
80% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

i guess
so.

cancel 91% accurate

done
sound you said
/s/
/s/
play_circle_filled
98% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/oʊ/
/ow/
play_circle_filled
74% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

  play_circle_filled

Pronunciation: 92%   Fluency: 91%   Grammar: 45%   Coherence: 60%   Vocab: 60%   Relevance: 85%  

 
grammar
Strengths

You correctly use tense to mark stages of your life (early on vs now), which helps show the timeline of your motivation.

Short, simple clauses like "I like to research" are grammatically correct and easy to follow.

Weaknesses

Sentence fragments and missing auxiliary verbs interrupt flow; for example, "Then encouraging the motivation shift to curiosities" is an incomplete clause that should be rephrased for clarity.

There are errors in word forms and structure that affect meaning, as in "it's more fun still to internal curiosities," where the verb form and structure are incorrect and confusing.

Final sentence structure is awkward and ungrammatical: "which I feel I'm grown up, I guess so" needs restructuring to something like "I feel I've grown up" or "I guess I've grown up."

Question 4: Last question. In recent years, there's been more debate about how schools should adapt to meet different learning styles, incorporate technology, or emphasize life skills. Do you think the current education system prepares people well for real life? Why or why not?
 
a.

cancel 75% accurate

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sound you said
/ə/
/ah/
play_circle_filled
67% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

a

cancel 57% accurate

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sound you said
/ə/
/ah/
play_circle_filled
57% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

i

cancel 91% accurate

done
sound you said
/aɪ/
/ay/
play_circle_filled
91% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

think

cancel 91% accurate

done
sound you said
/θ/
/th/
play_circle_filled
91% accurate

To create the <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/ɪ/
/ih/
play_circle_filled
91% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/ŋ/
/ng/
play_circle_filled
91% accurate

To create the 'ng sound' <strong>ŋ</strong>, air is prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/k/
/k/
play_circle_filled
91% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

system

cancel 28% accurate

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sound you said
/s/
/s/
play_circle_filled
77% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ɪ/
/ih/
play_circle_filled
98% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/s/
/s/
play_circle_filled
83% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
61% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
24% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/m/
/m/
play_circle_filled
32% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

is

cancel 94% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
82% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/z/
/z/
play_circle_filled
92% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

doing okay but could
use

cancel 94% accurate

done
sound you said
/j/
/y/
play_circle_filled
94% accurate

To create the 'j sound' <strong>ʤ</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction (similar to the friction of a zh sound <strong>ʒ</strong>).

/u/
/uw/
play_circle_filled
94% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

/s/
/s/
play_circle_filled
94% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

a

cancel 94% accurate

done
sound you said
/ə/
/ax/
play_circle_filled
94% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

serious

cancel 91% accurate

done
sound you said
/s/
/s/
play_circle_filled
75% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/i/
/iy/
play_circle_filled
100% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/r/
/r/
play_circle_filled
84% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/i/
/iy/
play_circle_filled
60% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/ə/
/ax/
play_circle_filled
46% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/s/
/s/
play_circle_filled
42% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

improvement.

cancel 91% accurate

done
sound you said
/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/p/
/p/
play_circle_filled
100% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/u/
/uw/
play_circle_filled
100% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

/v/
/v/
play_circle_filled
100% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
76% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

schools still
prioritize

cancel 68% accurate

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sound you said
/p/
/p/
play_circle_filled
75% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/r/
/r/
play_circle_filled
52% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/aɪ/
/ay/
play_circle_filled
51% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/ɔ/
/ao/
play_circle_filled
59% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/r/
/r/
play_circle_filled
25% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/ɪ/
/ih/
play_circle_filled
51% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/aɪ/
/ay/
play_circle_filled
100% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/z/
/z/
play_circle_filled
83% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

memorizing

cancel 94% accurate

done
sound you said
/m/
/m/
play_circle_filled
77% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ɛ/
/eh/
play_circle_filled
100% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/aɪ/
/ay/
play_circle_filled
100% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/z/
/z/
play_circle_filled
100% accurate

To create the 'z sound' <strong>z</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/ŋ/
/ng/
play_circle_filled
80% accurate

To create the 'ng sound' <strong>ŋ</strong>, air is prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

content

cancel 94% accurate

done
sound you said
/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ɑ/
/aa/
play_circle_filled
100% accurate

To pronounce the 'aa sound' <strong>ɑ</strong> the vocal tract is very open for the production of the 'aa sound' <strong>ɑ</strong>. In fact, the jaw is held more open and the back of the tongue is held lower for this sound than any other American English vowel sound pronunciation. The tongue touches the inside of the bottom teeth so that the top of the tongue is nearly even with the top of the bottom teeth. The lips are held open and kept rounded, but relaxed.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ɛ/
/eh/
play_circle_filled
100% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
78% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

for

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sound you said
/f/
/f/
play_circle_filled
100% accurate

To create the 'f sound' <strong>f</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is to be a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the production of the <strong>f</strong>. A common error English language learners make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking other sounds to and from the <strong>f</strong>.

/ɔ/
/ao/
play_circle_filled
55% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/r/
/r/
play_circle_filled
41% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

tests.

cancel 88% accurate

done
sound you said
/t/
/t/
play_circle_filled
80% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ɛ/
/eh/
play_circle_filled
100% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/s/
/s/
play_circle_filled
79% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/t/
/t/
play_circle_filled
78% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/s/
/s/
play_circle_filled
56% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

i
think

cancel 94% accurate

done
sound you said
/θ/
/th/
play_circle_filled
100% accurate

To create the <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/ŋ/
/ng/
play_circle_filled
100% accurate

To create the 'ng sound' <strong>ŋ</strong>, air is prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/k/
/k/
play_circle_filled
78% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

it's quite
outdated,

cancel 91% accurate

done
sound you said
/aʊ/
/aw/
play_circle_filled
82% accurate

Start with the jaw open and the body of the tongue in a low position in the mouth. The bottom teeth can be felt along the sides of the tongue. Then, as the jaw closes, the lips close into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

/t/
/t/
play_circle_filled
91% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/d/
/d/
play_circle_filled
100% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

/eɪ/
/ey/
play_circle_filled
100% accurate

To pronounce the <strong>eɪ</strong> sound, begin with the tongue pushed somewhat forward but in a neutral position in the mouth. Then, as the jaw closes slightly, move the body of the tongue upward until it is near the tooth ridge--similar to the position of a 'y sound' <strong>y</strong>. The front sides of the tongue touch the inside of the top teeth at the end of the sound.

/t/
/t/
play_circle_filled
100% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/d/
/d/
play_circle_filled
54% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

you
know,

cancel 91% accurate

done
sound you said
/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/oʊ/
/ow/
play_circle_filled
81% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

especially

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sound you said
/ə/
/ax/
play_circle_filled
24% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/s/
/s/
play_circle_filled
55% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/p/
/p/
play_circle_filled
100% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/ɛ/
/eh/
play_circle_filled
100% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/ʃ/
/sh/
play_circle_filled
100% accurate

To create the 'sh sound' <strong>ʃ</strong>, air is forced between a wide groove in the center of the front of the tongue and the back of the tooth ridge. The sides of the blade of the tongue may touch the side teeth. The lips are kept slightly tense, and may protrude somewhat during the production of the sound. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration.

/ə/
/ax/
play_circle_filled
67% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
56% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/i/
/iy/
play_circle_filled
52% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

ai and google is so
convenient

cancel 76% accurate

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sound you said
/k/
/k/
play_circle_filled
100% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/v/
/v/
play_circle_filled
100% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/i/
/iy/
play_circle_filled
93% accurate

To pronounce the <strong>i</strong> sound the tongue is forward, with the body of the tongue near the tooth ridge. The tongue is higher in the mouth for this sound compared to all other vowels in English. Because the tongue is so high, the jaw is relatively closed during the <strong>i</strong> sound. The sides of the tongue touch the top, side teeth during the sound.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/j/
/y/
play_circle_filled
100% accurate

To create the 'j sound' <strong>ʤ</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction (similar to the friction of a zh sound <strong>ʒ</strong>).

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
34% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

to
use

cancel 94% accurate

done
sound you said
/j/
/y/
play_circle_filled
91% accurate

To create the 'j sound' <strong>ʤ</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the back tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released with friction (similar to the friction of a zh sound <strong>ʒ</strong>).

/u/
/uw/
play_circle_filled
100% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

/s/
/s/
play_circle_filled
86% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

now.
we'll

cancel 94% accurate

done
sound you said
/w/
/w/
play_circle_filled
93% accurate

To create the 'w sound' <strong>w</strong> the jaw is mostly closed and the lips form a small, tight circle. The sound is voiced, so the vocal cords must vibrate during the production of the sound.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/l/
/l/
play_circle_filled
68% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

be better
served

cancel 69% accurate

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sound you said
/s/
/s/
play_circle_filled
96% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ɚ/
/er/
play_circle_filled
100% accurate

To create the <strong>ɚ</strong> sound first raise the back of the tongue so that the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/v/
/v/
play_circle_filled
77% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/d/
/d/
play_circle_filled
0% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

if

cancel 80% accurate

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sound you said
/ɪ/
/ih/
play_circle_filled
45% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/v/
/v/
play_circle_filled
80% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

classes
spend

cancel 76% accurate

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sound you said
/s/
/s/
play_circle_filled
100% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/p/
/p/
play_circle_filled
100% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/ɛ/
/eh/
play_circle_filled
100% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/n/
/n/
play_circle_filled
87% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/d/
/d/
play_circle_filled
40% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

more

cancel 94% accurate

done
sound you said
/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ɔ/
/ao/
play_circle_filled
84% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/r/
/r/
play_circle_filled
47% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

time

cancel 82% accurate

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sound you said
/t/
/t/
play_circle_filled
66% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/aɪ/
/ay/
play_circle_filled
57% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

/m/
/m/
play_circle_filled
35% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

on

cancel 82% accurate

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sound you said
/ɔ/
/ao/
play_circle_filled
80% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/n/
/n/
play_circle_filled
84% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

problem

cancel 82% accurate

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sound you said
/p/
/p/
play_circle_filled
100% accurate

To create the <strong>p</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/ɑ/
/aa/
play_circle_filled
100% accurate

To pronounce the 'aa sound' <strong>ɑ</strong> the vocal tract is very open for the production of the 'aa sound' <strong>ɑ</strong>. In fact, the jaw is held more open and the back of the tongue is held lower for this sound than any other American English vowel sound pronunciation. The tongue touches the inside of the bottom teeth so that the top of the tongue is nearly even with the top of the bottom teeth. The lips are held open and kept rounded, but relaxed.

/b/
/b/
play_circle_filled
100% accurate

To create the <strong>b</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/m/
/m/
play_circle_filled
68% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

solving

cancel 85% accurate

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sound you said
/s/
/s/
play_circle_filled
79% accurate

To create the 's sound' <strong>s</strong>, the front of the tongue is placed close to the tooth ridge. The tip of the tongue should be close to the upper backside of the top front teeth. The tongue is kept tense as air is pushed between a small groove along the center of the tip of the tongue and the front of the tooth ridge. The front sides of the tongue touch the side teeth toward the front of the mouth. The lips are held slightly tense during the sound.

/ɔ/
/ao/
play_circle_filled
58% accurate

To create the 'aw sound' <strong>ɔ</strong> the entire tongue is pushed back and kept low during the pronunciation of the 'aw sound' <strong>ɔ</strong>. The bottom side teeth can be felt alongside the front of the tongue during the sound. The back of the tongue has only a slight rounding upward at the very rear of the mouth. The lips are made into an oval shape, and may stick slightly outward.

/l/
/l/
play_circle_filled
75% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/v/
/v/
play_circle_filled
100% accurate

To create the 'v sound' <strong>v</strong>, the jaw is held nearly closed. The upper backside of the bottom lip is pressed very lightly into the bottom of the top teeth. Air is pushed out the mouth between the top teeth and the upper backside of the bottom lip. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration. The lips are kept mostly relaxed during the <strong>v</strong>. A common error ESL/ELL students make is overproducing this sound by curling the bottom lip under the top teeth. This creates problems when linking to and from the <strong>v</strong>.

/ɪ/
/ih/
play_circle_filled
78% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/ŋ/
/ng/
play_circle_filled
64% accurate

To create the 'ng sound' <strong>ŋ</strong>, air is prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

and

cancel 88% accurate

done
sound you said
/æ/
/ae/
play_circle_filled
91% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/n/
/n/
play_circle_filled
55% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/d/
/d/
play_circle_filled
70% accurate

To create this sound air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released.

collaboration.

cancel 88% accurate

done
sound you said
/k/
/k/
play_circle_filled
70% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
100% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/æ/
/ae/
play_circle_filled
100% accurate

To pronounce the <strong>ae</strong> sound the front of the tongue is pushed further forward and is held lower in the mouth when forming the 'short a' /æ/ sound than with any other vowel sound. The tip of the tongue will touch the inside of the bottom front teeth. The body of the tongue is rounded slightly upward. The jaw is lowered and the lips are held apart, allowing the entire oral cavity to remain open.

/b/
/b/
play_circle_filled
100% accurate

To create the <strong>b</strong>, air is briefly prevented from leaving the vocal tract by closing the lips. The sound is aspirated when the air is released.

/ə/
/ax/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/r/
/r/
play_circle_filled
100% accurate

To create the <strong>r</strong> sound the back of the tongue is raised so the sides of the tongue touch the back teeth. The center of the back of the tongue is lower and the air travels through this groove to create the sound. The tip of the tongue may point upward, or may be left low.

/eɪ/
/ey/
play_circle_filled
100% accurate

To pronounce the <strong>eɪ</strong> sound, begin with the tongue pushed somewhat forward but in a neutral position in the mouth. Then, as the jaw closes slightly, move the body of the tongue upward until it is near the tooth ridge--similar to the position of a 'y sound' <strong>y</strong>. The front sides of the tongue touch the inside of the top teeth at the end of the sound.

/ʃ/
/sh/
play_circle_filled
100% accurate

To create the 'sh sound' <strong>ʃ</strong>, air is forced between a wide groove in the center of the front of the tongue and the back of the tooth ridge. The sides of the blade of the tongue may touch the side teeth. The lips are kept slightly tense, and may protrude somewhat during the production of the sound. This sound is a continuous consonant, meaning that it should be capable of being produced for a few seconds with even and smooth pronunciation for the entire duration.

/ə/
/ax/
play_circle_filled
92% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
58% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

and

cancel 91% accurate

done
sound you said
/ə/
/ax/
play_circle_filled
80% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/n/
/n/
play_circle_filled
83% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

even
know

cancel 85% accurate

Request an AI speaking review to view the pronunciation training content
sound you said
/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/oʊ/
/ow/
play_circle_filled
71% accurate

To pronounce the 'ow sound' <strong>oʊ</strong> the body of the tongue is pushed back and in a low-to-mid mouth position and the bottom teeth can be felt along the sides of the tongue. Then the sound moves into a 'w sound' <strong>w</strong> by raising the jaw slightly while closing the lips into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

how

cancel 94% accurate

done
sound you said
/ə/
/h/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/aʊ/
/aw/
play_circle_filled
78% accurate

Start with the jaw open and the body of the tongue in a low position in the mouth. The bottom teeth can be felt along the sides of the tongue. Then, as the jaw closes, the lips close into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

to

cancel 94% accurate

done
sound you said
/t/
/t/
play_circle_filled
80% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
94% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

mental

cancel 68% accurate

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sound you said
/m/
/m/
play_circle_filled
100% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ɛ/
/eh/
play_circle_filled
100% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/n/
/n/
play_circle_filled
100% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
61% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
58% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
52% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

how

cancel 91% accurate

done
sound you said
/ə/
/h/
play_circle_filled
76% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/aʊ/
/aw/
play_circle_filled
100% accurate

Start with the jaw open and the body of the tongue in a low position in the mouth. The bottom teeth can be felt along the sides of the tongue. Then, as the jaw closes, the lips close into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

to manage
mental

cancel 58% accurate

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sound you said
/m/
/m/
play_circle_filled
0% accurate

To create the 'm sound' <strong>m</strong>, the lips are pressed together, causing the air to be blocked from leaving the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/ɛ/
/eh/
play_circle_filled
87% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/n/
/n/
play_circle_filled
91% accurate

To create the 'n sound' <strong>n</strong>, the air is blocked from leaving the mouth by pressing the tip against the tooth ridge and the sides of the front of the tongue against the side teeth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/t/
/t/
play_circle_filled
68% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/ə/
/ax/
play_circle_filled
40% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/l/
/l/
play_circle_filled
49% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

mental
health.

cancel 76% accurate

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sound you said
/ə/
/h/
play_circle_filled
100% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/ɛ/
/eh/
play_circle_filled
100% accurate

To pronounce the <strong>ɛ</strong> sound the middle of the tongue rounds slightly upward and the sides of the tongue may lightly touch the top and bottom side teeth. The lips and jaw are loose and relaxed.

/l/
/l/
play_circle_filled
82% accurate

To create the <strong>l</strong>, the tip of the tongue is placed against the middle of the tooth ridge. The sound is created when air travels alongside the tip of the tongue, between the front of the tongue and the side teeth.

/θ/
/th/
play_circle_filled
45% accurate

To create the <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

i
think

cancel 85% accurate

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sound you said
/θ/
/th/
play_circle_filled
100% accurate

To create the <strong>ð</strong> sound the tip of the tongue is placed behind the top front teeth. The friction occurs between the tip of the tongue and the top front teeth. Subtle friction may also occur between the top of the front of the tongue and the tooth ridge.

/ɪ/
/ih/
play_circle_filled
100% accurate

To pronounce the <strong>ɪ</strong> sound the lips are relaxed and the central/front area of the tongue is in the central/high area of the mouth for this sound. The overall neutrality and relaxed tongue and lip position is why it is one of the pronunciations used in an unstressed vowel position.

/ŋ/
/ng/
play_circle_filled
100% accurate

To create the 'ng sound' <strong>ŋ</strong>, air is prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The soft palate drops, allowing air to pass out through the nose. The sound is voiced, so the vocal cords vibrate while producing it.

/k/
/k/
play_circle_filled
71% accurate

To create the <strong>k</strong>, air is briefly prevented from leaving the vocal tract when the back of the tongue lifts and presses against the soft palate at the back of the mouth. The sound is aspirated when the air is released. The amount of aspiration used to produce a <strong>k</strong> is greater than that used for a <strong>g</strong>.

a

cancel 79% accurate

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sound you said
/ə/
/ax/
play_circle_filled
79% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

i

cancel 88% accurate

done
sound you said
/aɪ/
/ay/
play_circle_filled
88% accurate

To pronounce the <strong>aɪ</strong> at the beginning of the sound, the tongue is low and touches the bottom, side teeth. Then as the jaw closes slightly, the body of the tongue moves upward until it is near the tooth ridge, similar to the position of a 'y sound'. The front sides of the tongue touch the inside of the top, side teeth.

how

cancel 80% accurate

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sound you said
/ə/
/h/
play_circle_filled
82% accurate

To create the 'ah sound' <strong>ə</strong> the body of the tongue is relaxed and set low in the mouth. The sides of the tongue lightly touch the bottom teeth during the formation of the sound. The jaw is kept in a neutral position, and the lips are relaxed. It is very similar to the 'other ah sound' <strong>ʌ</strong>.

/aʊ/
/aw/
play_circle_filled
56% accurate

Start with the jaw open and the body of the tongue in a low position in the mouth. The bottom teeth can be felt along the sides of the tongue. Then, as the jaw closes, the lips close into a small circle. The body of the tongue moves upward until the tongue is near the back of the hard palate.

to.

cancel 76% accurate

Request an AI speaking review to view the pronunciation training content
sound you said
/t/
/t/
play_circle_filled
66% accurate

To create the <strong>t</strong>, air is briefly prevented from leaving the vocal tract when the tip of the tongue presses against the tooth ridge while the sides of the tongue press against the upper side teeth. The sound is aspirated when the air is released. The aspiration for a <strong>t</strong> is greater than the aspiration for a /d/, especially when it is the first sound of a word or the first sound of a stressed syllable.

/u/
/uw/
play_circle_filled
85% accurate

To create the 'oo sound' <strong>u</strong>, the lips are pulled into a tense, small circle. In addition, the back of the tongue is raised to a high position and sides of the tongue may touch the top teeth at the back of the mouth.

  play_circle_filled

Pronunciation: 85%   Fluency: 89%   Grammar: 70%   Coherence: 85%   Vocab: 75%   Relevance: 90%  

 
grammar
Strengths

Sentences are mostly short and grammatically simple, which keeps the message easy to follow.

Subject-verb constructions often work correctly in statements like "Schools still prioritize memorizing content for tests."

Weaknesses

There is a subject-verb agreement issue in the line "AI and Google is so convenient to use now," where "AI and Google" should take a plural verb.

Some phrasing is grammatically awkward, for instance "could use a serious improvement" which is nonstandard, and the clause "and even know how to manage mental health" leaves the subject unclear and feels incomplete.

TOEFL Score: 5/5 help
The response fulfills the demands of the task, with at most minor lapses in completeness. It is highly intelligible and exhibits sustained, coherent discourse.

overall: 90
Demonstrates excellent fluency and coherence with occasional pauses. Uses a wide range of vocabulary and idioms with rare mistakes. Uses perfect colloquial grammar while speaking. Has very good pronunciation with very mild accent.

pronunciation: 89
Uses a wide range of pronunciation features. Sustains flexible use of features, with only occasional lapses. Is easy to understand throughout; First language accent has minimal impact on intelligibility.

grammar: 64
Uses a mix of simple and complex structures, but with limited flexibility. May make frequent mistakes with complex structures though these rarely cause comprehension problems.

vocabulary: 72
Has a wide enough vocabulary to discuss topics at length and make meaning clear in spite of inappropriacies. Generally paraphrases successfully.

coherence: 79
Speaks at length without noticeable effort or loss of coherence. Uses a range of connectives and discourse markers with some flexibility.

relevance: 90
This is AI based and cannot be relied on for 100% accuracy. The score is the average of all relevance scores from each question.

fluency: 92
Speaks fluently with only occasional repetition or self-correction; hesitation in speech is usually content-related and only rarely to search for vocabulary or grammatical constructs. Develops topics coherently and appropriately.

View Criteria Descriptions keyboard_arrow_down
Criteria Score Reports

Task Fulfillment   4/5

response directly addresses the interview question with clear and relevant ideas answer fulfills most or all parts of the prompt effectively listener can easily recognize how the response satisfies the task

Task fulfillment is about how well you respond to the question you are given. TOEFL raters are looking for a response that answers the question directly, with relevant ideas that are fully developed. Fulfilling the task means answering all parts of the question completely.

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...

Pronunciation & Intonation   4/5

response is clear and easy to understand, with only minor pronunciation issues intonation is natural in most cases, supporting listener engagement stress and rhythm are well controlled with rare lapses

Pronunciation and intonation is about how you form English sounds and how you use natural English intonation. Your pronunciation and intonation can damage your score if it is difficult for the raters to understand what you are saying.

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...

Flow & Speech   4/5

response has mostly natural rhythm in delivering interview answers speech is generally fluid, sustained, and easy to follow contains only minimal unnatural pausing or hesitation

Flow and speech is about how quickly you can speak and how much pausing and hesitation you use. You don't have to speak quickly, but just quickly enough to sound natural and explain all of your ideas. Raters want to hear natural rhythm and flow.

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Correct Grammar Usage   3/5

Meaning is generally clear in interview responses despite some errors with:noun phrases and clausesverbs (tenses, modals, and passives)adverbs and adjectives (including phrases and clauses)word orderarticles, pronouns, quantifiers, prepositionsgerunds, infinitivesmost conditionalssome reported speech

Correct grammar usage is about how you use English grammar and sentence structure. Raters want to see that you can use what you know correctly. Your grammar doesn't have to be perfect to score high, but mistakes shouldn't interfere with your meaning.

How to Improve

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Vocabulary Usage (Appropriacy and Range)   3/5

response uses a mix of basic and somewhat varied vocabulary word choice is generally appropriate but may lack precision or flexibility listener can follow the answer, though some wording feels limited or repetitive

Vocabulary usage is about how you use English words. Raters are looking for responses that use different words correctly and accurately, and that use a wide range of words that help listeners understand.

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Support & Development   4/5

response develops ideas with clear, specific support and relevant examples details are generally well chosen and effectively connected to the point listener can easily follow how the answer addresses the interview question

Support and development is about the content of your speaking response. Your content should be related directly to the topic, and you should have several main ideas that support your opinion or position. These ideas should be persuasive or compelling.

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Connections & Coherence   4/5

response is very coherent, with ideas logically ordered to address the interview prompt and any subparts in a purposeful sequenceuses a variety of clear transitions, an effective introduction, and a concise conclusion that create a strong sense of unity

Coherence and connections are about how you put your ideas together and link different sentences to each other. Raters want to see speaking that flows naturally from idea to idea without confusing the listener.

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speaking LessonsCompleted: 0 / 77
Master TOEFL Speaking Task 4
In the TOEFL Integrated Speaking Task 4, there are lectures where two different aspects or subtopics of a bigger topic are discussed. For example:
- Using the main point and examples from the lecture, describe the two ways of discovering an invention.
- Describe two adaptations that the Arctic butterfly has developed for cold climates.
- Describe slump and creep.
- Describe two negative impacts of logos.

In this case, your response should include the following:
1. The explanation of the topic
2. The first example or the first concept
3. The second example or the second concept
4. A conclusion
ANSWER TEMPLATE
There are some questions that ask you to explain the concept mentioned in the lecture together with the two examples provided by the professor. For example:
- Using two examples from the lecture, describe camouflage.
- Using two examples from the lecture, describe ecological succession.
- Using two examples from the lecture, describe the relationship between Biodiversity and ecosystem restoration.

In this case, you can use the following template to form your response.
The lecture is about ______
The professor uses two examples to demonstrate ______
In the first example, ______
In the second example, ______
In summary/Therefore/Ultimately, ______
Note-taking tips
When listening and taking notes, you should concentrate on the following three things: the academic topic, transition words, and examples.

There are certain keywords or sentence patterns that professors use to introduce new academic concepts:
1. X is a/an ______ that/who/which/where _________________________
2. X occurs when/where ________________________________
3. A concept/idea/situation________ that/who/which ___________ is referred to as/known as/called X
4. X refers to the idea/concept that ____ or X___ refers to the situation/circumstance where ____

Examples:
Verbal communication is a type of communication that uses words and language.
VC occurs when we use language and speak to each other
The style of communication that uses words and language is referred to as VC.
VC refers to a style of communication where language and words are used


Pay attention to the following transition words that help you capture the main ideas and examples:
Type of connection Transition words
These words can help you show the order of ideas. First/Second/Third
Firstly (or "First of all")/Secondly/Thirdly (or "Lastly")
For one thing/For another thing/Finally (or "Lastly")
In the first place/in the second place/Finally (or "Lastly")

Instead of "First", "First of all" and "Firstly", we can use "To begin with", "To start with", or "For starters". We can also use "First and foremost" to state that the first key point is the most important one among all key points.

Likewise, instead of "Finally" and "Lastly", we can use "Last but not least" to state that the final key point is just as important as the others, despite it being mentioned last.

These words can help you add information In addition, furthermore, additionally, also, next, moreover, what's more, on top of that
These words can help you conclude or to summarize: To sum up, in summary, in conclusion, to conclude, all in all, all things considered ,overall, taking everything into consideration, in a nutshell
These words can help you demonstrate contrast Conversely, on the contrary, by contrast, by way of contrast, on one hand/on the other hand
These words can help you compare or demonstrate similarity Similarly, likewise, by the same token, along similar lines
These words can help you state a result. As a result, as a consequence, consequently, therefore
These words can help you state a generalization. Generally, on the whole, in most cases, in general
These words can help you clarify a point. That is, in other words, to put it simply, That is to say, just to reiterate
These words can help you give examples. For example, for instance, take something, for example, to give a clear example
These words can help you state an alternative. Alternatively, as another possibility

Examples:
Good morning! Class! Today I want to talk about an interesting psychological phenomenon: word framing. Basically, a concept that people make choices to describe a situation in a positive or negative way is referred to as word framing. For example, if the weather today is forecast to be cloudy and there is a 50% possibility of rain, according to the forecast many people may take umbrellas with them, but if the weather forecast was delivered as there is a 50% possibility of sunshine then very few people would prepare for a rainy day. Naturally, as you can imagine, word framing can produce significant effects on buyers' decisions, so many advertisements are carefully worded to render the best outcome. For example, we often hear or read that a certain medicine works for 90% of the patients. That sounds pretty cool right. Let's say there is another medicine claiming it does not work for 10% of the patients. Which would you choose the first one or the second one? So. Of course, customers would find the first one more attractive and buy it, but both medicines have the same percentage of workability.

Alright! For those of you who don't know what a self-fulfilling prophecy is. Today's lecture I am going to talk about self-fulfilling prophecy! So.. a self-fulfilling prophecy occurs when a person acts based on a false presupposition, forcing their thoughts to become the reality. I'll give you an example. A bank is run properly for many years, there are no problems whatsoever, and everybody's money is safe. One day, a large group of people came to the bank, the reason is unknown, and many of the customers falsely perceive this to mean the bank is in financial trouble, so they decide to withdraw their money so they do not incur any losses. Unfortunately for the bank, the rumor continued and more people began withdrawing their money and finally the bank did go into financial trouble and ended up going bankrupt. Therefore, the false rumor indirectly became true as a result of their actions.

Here are symbols you can use in your notes.
SymbolMeaningExamples
=refer to, occur, ..etc A concept that people make choices to describe a situation in a positive or negative way is referred to as word framing
Word framing = ppl describe a situation in ✓ or X way.
Because, as a result of, due to, because, owing to Due to the increasing popularity of e-books, there has been a fall in paper book sales.
∵↑e-books, paper books $↓
Therefore Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would have decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
=>result in, lead to, contribute to, give rise to, cause Carbon dioxide significantly contributes to global warming.
CO => global warming
isn't, doesn't, don't, can't etc. Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
+many, lots of, a great deal of, etc. Because potatoes have the ability to provide abundant and extremely nutritious food crop, no other crop grew in Northern Europe. As a result, the nutrition of the general population improved tremendously and population soared in the early 1800s.
∵ potatoes /nutri crop/+vitamins => popul↑ in Europe 1800s
++Comparatives Older and more experienced birds who nest in the high density shrub areas have significantly more offspring than those in low density areas, which suggests the choice of where to nest does have an impact on the number of chicks they have.
older birds /nest in high shrub ++offsprings birds/nest in low shrub
+++Superlatives What was even more surprising were all the large organisms that lived down there. The most distinctive of these was something called the tube worm. Here, let me show you a picture. The tube of the tube worm is really, really long. They can be up to one and half meters long, and these tubes are attached to the ocean floor, pretty weird looking, huh?
! +++special = tube warm /long/tubes attached to ocean floor
-Little, few, lack ,in short of/ be in shortage of, etc. As I said the monsoon migrated itself, so there was less rain in the Sahara. The land started to get drier, which in turn caused huge decreases in the amount of vegetation, because vegetation doesn't grow as well in dry soil, right? And then, less vegetation means the soil can't hold water and the soil loses its ability to retain water when it does rain. So then you have less moisture to help clouds form, nothing to evaporate for cloud formation.
- rain in Sahara
land ++dry => vegetation↓
--vegetation => soil ≠ hold water => -water to form cloud
!Important, interesting But what's particularly interesting about these volcanoes is that most of the volcanoes here on Earth are not shield volcanoes. Instead, they are other volcano types, like strata volcanoes, for example, which are a result of tectonic plate movement.
! volcanoes on earth ≠ shield volcanoes = strata volcanoes
tectonic plate => volcanoes on earth

Other symbols:
SymbolMeaning
&And, also, in addition, etc.
~ about/around, approximately, etc.
...And so on
$Sales, money, cost
e.g.For example
i.e.That is
xWrong, incorrect, bad, detrimental, negative, etc.
Right, good, positive, etc.
schedule03:30
Keywords In The Practice
No Vocabulary Linked To Practice

In this question, you'll listen to a lecture, then answer questions related to that lecture. Answer the questions based on what is stated or implied by the speakers.

You may take notes while you listen. You may use your notes to help you answer the questions.

We recommend you practice taking notes with a pen and paper like you will during your TOEFL exam.

Create an account to save your progress

Today's Topic:

Notothenioids

1 What is the lecture mainly about?

2 Why did the antifreeze protein originally give no special advantage to the earliest notothenioids?

3 What characteristic of notothenioids helps them survive in subfreezing temperatures?

4 Why does the professor mention that coral reefs support more than 4,000 species of fish?

5 According to the professor, which factor led to the rapid distribution of notothenioids throughout the Southern Ocean?

6 According to the professor, what happened to notothenioids that migrated to different areas of the Southern Ocean?

You have seen all of the questions in the listening section.

As long as there is time remaining, you can go back and check your work.

Click SUBMIT ANSWERS to continue and view your results.

Professor:

So! Continuing our discussions of environmental adaptation, today I want to focus on a species of fish, called the Notothenioids. A bit of a mouthful, I know.

Scientists have documented over 90 species of Notothenioids, in both deep and shallow waters. If you’re getting creeped out by the powerpoint slide, don’t worry, they really only live around Antarctica. Most of them are pretty small. However, a few species can weigh up to 150 kilograms.

These fish can be identified by their huge eyes, insulated with a layer of thick transparent protective tissue. This kind of tissue protects the fluid in their eyeballs from freezing in the incredibly cold saltwater. Remember, saltwater has a lower freezing point than freshwater, so moisture in an animal’s tissue would be particularly vulnerable to freezing and causing cell death.

So while the cold ocean of Antarctica could freeze and kill most fish, the Notothenioids end up thriving in these icy waters. They actually make up nearly 95% of all fish species in the southern ocean around that cold continent. That kind of thing is a stark contrast to tropical oceans, where the biodiversity is extremely high. When you think of a tropical reef, for instance, you probably imagine a plethora of different types of fish and sea creatures living together and preying on each other. The average coral reef supports over four thousand types of fish, sponges, crustaceans, and others. To have one species of fish in an entire section of ocean? Pretty impressive. Yes! Amy?

Amy:
How, er, when did the Notothenioids end up taking over the southern ocean?
 

Professor:
I'm glad you asked. That was actually my next point of interest. So, about thirty million years ago, the water in that area was a lot warmer than it is today. Way back then, South America and Antarctica were actually connected. The air from around the equator could travel south to heat up the chilly Antarctic waters. The warm tropical waters could also flow southwards, bringing the rich biodiversity along with it.

Because Antarctica’s waters were relatively warm back then, it could support a lot of different types of animals. We confirmed this by looking at the fossil record, even finding out that 90 or so of the Notothenioids even existed back then.

Historians think that somewhere between five and fourteen million years ago, two huge changes occurred. First of all, a chance mutation allowed the Notothenioids to develop a special protein that now flows through their body. Umm this special protein is actually a type of antifreeze. It works by bonding to an ice crystal that formed inside their flesh, preventing it from growing any larger.

So! At the time, the waters they swam in were still decently warm, and the protein didn’t do much for their overall survival rates. Still, somewhere around this time period, there are records of a colossal shift that moved around the Earth’s tectonic plates. This movement is now known as Continental drift. It pushed Antarctica away from ..umm.. South America and down toward the chilly southern end of the earth. This caused a current to swirl up and form, encircling the cooling continent with a rush of cold water. This cold water prevented warmer tides from intermingling. It eventually dropped to the sub-zero icy landscape we know today

As you may have guessed, the tropical fish didn’t do so well in the sudden drop of environmental temperatures, and many species went extinct. Luckily for the Notothenioids, they had ahandy dandy gene mutation that let them produce this antifreeze protein. Now the only type of fish that could survive the cold waters, it had virtually no competition for food or resources and went wild.

So! As its population increased dramatically, they migrated into different parts of oceans. Over time they developed into different physical adaptations to  survive in their particular environment. Eventually they split off into subspecies, mutated a bit more, had a bit of geologic morphology going on, very cool stuff. We call this kind of physical differentiation a process of Adaptive Radiation. It really only happens when a species rapidly changes, and ends up with quite a few new species to fill empty niches that either didn’t exist before, or weren’t available.

So now we have about 90 species of Notothenioids, kicking it in the southern ocean.
 

Score Summary
0 / 1
Detail
Choose Response
Gist Content
Gist Purpose
Attitude
Inference
Connecting Content
Function
Hello!   :)

Submit your listening answers to auto generate this report.
You must complete listening practice first


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TOEFL listening LessonsCompleted: 0 / 82
Listening Tips
Listen for the main idea
In most cases, the first question after each lecture is a main idea question also known as a gist question. At the beginning of a listening lecture, the professor usually mentions what the main topic of the lecture will be about, but sometimes the topic might be branched into something more specific. Please note the topic can change, so always be prepared to note down any new topics.

Listen to the speaker's tone of voice
Sometimes you'll be asked questions regarding the speaker's attitude or opinion. To answer these questions correctly, tone of voice matters. For example, does the speaker sound excited, confused, sad...etc?

Listen to how ideas are connected throughout the lecture
When listening to a lecture, make note of the way the ideas in the lecture are connected. In other words, how the professor organized the lecture. When you encounter a question asking you how the lecture is organized, you can refer back to your notes. Some of the main relationships between ideas include cause/effect, compare/contrast, and steps in a process.

Listen for key points not specific details
TOEFL listening questions will not test you on small details. For example, you won't see questions that are about a specific year, name, or location. Instead, questions will test your understanding of key points mentioned in the lecture.

Listen for signal words that indicate different parts of the lecture
To help you capture key points in the lecture, you need to learn to listen for signal words or transition words. These words are like the road signs that tell you what is coming next. Signal words can tell you the beginning or the end of a topic. They can also help you move through the middle of the lecture by introducing topics.

Signal words
"Okay", "Well", "Now", "But", and "So"

1. "Okay" and "Now" are usually used to transition into a different topic or a different key point.
2. "Well" is usually used before answering a question.
3. "But" and "So" are usually followed by a key point.
Examples

All right folks, let’s continue our discussion of alternative energy sources and move on to what’s probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it’s so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle’s ethical theory. What Aristotle’s ethical theory is all about is this: he’s trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It’s not just because it’s something that all people want to aim for. It’s more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I’d like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language. Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.


Signal words
Let's move on to ...
This brings me to my next point, which is….
So far we have have been looking at…. Now I'd like to….
So now that we've covered…
What … is all about is this…
Examples

All right folks, let's continue our discussion of alternative energy sources and move on to what's probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it's so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle's ethical theory. What Aristotle's ethical theory is all about is this: he's trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It's not just because it's something that all people want to aim for. It's more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I'd like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language.   Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.   


Signal words
(opinion) I think, It appears that, It is thought that
(theory) In theory, the hypothesis is that
Examples

You have an advertising budget to spend, but how do you to spend it wisely. Again, research is the key. Good research gives you facts, facts that can help you decide, well, as we already mentioned, decide the right market to target, and the best media to use. But also: When to advertise? or…or how to get the best rates? Like, maybe you're advertising Sport equipment, and you have been spending most of your budget during the holiday season when people buy gifts for each other. Now, in theory, that would seem a great time to advertise, but maybe a research shows you're wrong, that the customers who buy sports equipment tend not to give it as a holiday gift, but want to use it themselves. In that case, advertising during a different season of the year might give you better results.

We recently noticed an increase in cloud cover over an area of the ocean waters around Antarctica. An increased area of low thick clouds, the type that reflects a large portion of solar energy back to space and cools the Earth. Well, the reason for this increased cloud cover, it turns out, is the exceptionally large amount of microscopic marine plants. Well, the current hypothesis is that these microorganisms produce a chemical that interacts with the oxygen in the air, creating conditions that lead to the formation of the low thick clouds we observed. Well, that's true. It could have huge implications. So, maybe we are talking about controlling the weather. Perhaps, if the microorganisms near Antarctica really are responsible, perhaps we can accelerate the process somehow.


Pay attention to the following transition words which can help you capture the main ideas and examples:
Type of connection Transition words
These words show the order of ideas. First/Second/Third
Firstly (or "First of all")/Secondly/Thirdly (or "Lastly")
For one thing/For another thing/Finally (or "Lastly")
In the first place/in the second place/Finally (or "Lastly")
These words show the addition of information In addition, furthermore, additionally, also, next, moreover, what's more, on top of that
These words shows conclusions. To sum up, in summary, in conclusion, to conclude, all in all, all things considered ,overall, taking everything into consideration, in a nutshell
These words demonstrate contrast Conversely, on the contrary, by contrast, by way of contrast, on one hand/on the other hand
These words compare or demonstrate similarity Similarly, likewise, by the same token, along similar lines
These words show result. As a result, as a consequence, consequently, therefore
These words state a generalization. Generally, on the whole, in most cases, in general
These words clarify a point. That is, in other words, to put it simply, That is to say, just to reiterate
These words give examples. For example, for instance, take something, for example, to give a clear example
These words state an alternative. Alternatively, as another possibility
Tips to Improve TOEFL listening score
NO SKIPPING ANSWERS
Unlike the reading section, in the listening section you CANNOT skip answers and come back. If you skip a question, you will not be able to go back and answer it.

Make an educated guess on questions you are unsure of
When you don't know the answer, try to figure out which choice is most consistent with the main idea of the conversation or lecture. Another way is to eliminate obvious wrong answers.

Don't take more than two minutes to answer a question.
If you spend more than two minutes on a question, you might run out of time. It is not worth it. Leave time for other questions that you have more confidence on. It's better to have an educated guess and move on than it is to miss out on potential easy questions because you ran out of time.
Note-taking tips
Here are symbols you can use in your notes:
SymbolMeaningExamples
=refer to, occur, ..etc A concept that people make choices to describe a situation in a positive or negative way is referred to as word framing
Word framing = ppl describe a situation in ✓ or X way.
Because, as a result of, due to, because, owing to Due to the increasing popularity of e-books, there has been a fall in paper book sales.
∵↑e-books, paper books $↓
Therefore Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would have decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
=>result in, lead to, contribute to, give rise to, cause Carbon dioxide significantly contributes to global warming.
CO => global warming
isn't, doesn't, don't, can't etc. Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
+many, lots of, a great deal of, etc. Because potatoes have the ability to provide abundant and extremely nutritious food crop, no other crop grew in Northern Europe. As a result, the nutrition of the general population improved tremendously and population soared in the early 1800s.
∵ potatoes /nutri crop/+vitamins => popul↑ in Europe 1800s
++Comparatives Older and more experienced birds who nest in the high density shrub areas have significantly more offspring than those in low density areas, which suggests the choice of where to nest does have an impact on the number of chicks they have.
older birds /nest in high shrub ++offsprings birds/nest in low shrub
+++Superlatives What was even more surprising were all the large organisms that lived down there. The most distinctive of these was something called the tube worm. Here, let me show you a picture. The tube of the tube worm is really, really long. They can be up to one and half meters long, and these tubes are attached to the ocean floor, pretty weird looking, huh?
! +++special = tube warm /long/tubes attached to ocean floor
-Little, few, lack ,in short of/ be in shortage of, etc. As I said the monsoon migrated itself, so there was less rain in the Sahara. The land started to get drier, which in turn caused huge decreases in the amount of vegetation, because vegetation doesn't grow as well in dry soil, right? And then, less vegetation means the soil can't hold water and the soil loses its ability to retain water when it does rain. So then you have less moisture to help clouds form, nothing to evaporate for cloud formation.
- rain in Sahara
land ++dry => vegetation↓
--vegetation => soil ≠ hold water => -water to form cloud
!Important, interesting But what's particularly interesting about these volcanoes is that most of the volcanoes here on Earth are not shield volcanoes. Instead, they are other volcano types, like strata volcanoes, for example, which are a result of tectonic plate movement.
! volcanoes on earth ≠ shield volcanoes = strata volcanoes
tectonic plate => volcanoes on earth

Other symbols:
SymbolMeaning
&And, also, in addition, etc.
~ about/around, approximately, etc.
...And so on
$Sales, money, cost
e.g.For example
i.e.That is
xWrong, incorrect, bad, detrimental, negative, etc.
Right, good, positive, etc.
schedule03:30
Keywords In The Practice
No Vocabulary Linked To Practice

In this question, you'll listen to a lecture, then answer questions related to that lecture. Answer the questions based on what is stated or implied by the speakers.

You may take notes while you listen. You may use your notes to help you answer the questions.

We recommend you practice taking notes with a pen and paper like you will during your TOEFL exam.

Create an account to save your progress

Today's Topic:

Seasonal Migration

Sign Up For Free For More Content

1 What topic does the professor mainly discuss?

2 According to the professor, which of the following is true about the albatross?

3 How are albatross chicks able to survive, even though their parents spend so much time foraging for food? Click on 2 answers.

4 The professor suggests which two ways that the albatross are able to find their sense of direction. Select two answers

5 According to the professor, why do some biologists doubt that magnetite helps birds navigate?

6 Listen again to part of the lecture. Then, answer the following question.  

Why does the professor say this?

You have seen all of the questions in the listening section.

As long as there is time remaining, you can go back and check your work.

Click SUBMIT ANSWERS to continue and view your results.

Create an account to save your progress

Sign Up For Free For More Content

Score Summary
0 / 1
Detail
Choose Response
Gist Content
Gist Purpose
Attitude
Inference
Connecting Content
Function
Hello!   :)

Submit your listening answers to auto generate this report.
You must complete listening practice first


sentiment_satisfied_alt
TOEFL listening LessonsCompleted: 0 / 82
Listening Tips
Listen for the main idea
In most cases, the first question after each lecture is a main idea question also known as a gist question. At the beginning of a listening lecture, the professor usually mentions what the main topic of the lecture will be about, but sometimes the topic might be branched into something more specific. Please note the topic can change, so always be prepared to note down any new topics.

Listen to the speaker's tone of voice
Sometimes you'll be asked questions regarding the speaker's attitude or opinion. To answer these questions correctly, tone of voice matters. For example, does the speaker sound excited, confused, sad...etc?

Listen to how ideas are connected throughout the lecture
When listening to a lecture, make note of the way the ideas in the lecture are connected. In other words, how the professor organized the lecture. When you encounter a question asking you how the lecture is organized, you can refer back to your notes. Some of the main relationships between ideas include cause/effect, compare/contrast, and steps in a process.

Listen for key points not specific details
TOEFL listening questions will not test you on small details. For example, you won't see questions that are about a specific year, name, or location. Instead, questions will test your understanding of key points mentioned in the lecture.

Listen for signal words that indicate different parts of the lecture
To help you capture key points in the lecture, you need to learn to listen for signal words or transition words. These words are like the road signs that tell you what is coming next. Signal words can tell you the beginning or the end of a topic. They can also help you move through the middle of the lecture by introducing topics.

Signal words
"Okay", "Well", "Now", "But", and "So"

1. "Okay" and "Now" are usually used to transition into a different topic or a different key point.
2. "Well" is usually used before answering a question.
3. "But" and "So" are usually followed by a key point.
Examples

All right folks, let’s continue our discussion of alternative energy sources and move on to what’s probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it’s so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle’s ethical theory. What Aristotle’s ethical theory is all about is this: he’s trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It’s not just because it’s something that all people want to aim for. It’s more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I’d like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language. Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.


Signal words
Let's move on to ...
This brings me to my next point, which is….
So far we have have been looking at…. Now I'd like to….
So now that we've covered…
What … is all about is this…
Examples

All right folks, let's continue our discussion of alternative energy sources and move on to what's probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it's so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle's ethical theory. What Aristotle's ethical theory is all about is this: he's trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It's not just because it's something that all people want to aim for. It's more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I'd like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language.   Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.   


Signal words
(opinion) I think, It appears that, It is thought that
(theory) In theory, the hypothesis is that
Examples

You have an advertising budget to spend, but how do you to spend it wisely. Again, research is the key. Good research gives you facts, facts that can help you decide, well, as we already mentioned, decide the right market to target, and the best media to use. But also: When to advertise? or…or how to get the best rates? Like, maybe you're advertising Sport equipment, and you have been spending most of your budget during the holiday season when people buy gifts for each other. Now, in theory, that would seem a great time to advertise, but maybe a research shows you're wrong, that the customers who buy sports equipment tend not to give it as a holiday gift, but want to use it themselves. In that case, advertising during a different season of the year might give you better results.

We recently noticed an increase in cloud cover over an area of the ocean waters around Antarctica. An increased area of low thick clouds, the type that reflects a large portion of solar energy back to space and cools the Earth. Well, the reason for this increased cloud cover, it turns out, is the exceptionally large amount of microscopic marine plants. Well, the current hypothesis is that these microorganisms produce a chemical that interacts with the oxygen in the air, creating conditions that lead to the formation of the low thick clouds we observed. Well, that's true. It could have huge implications. So, maybe we are talking about controlling the weather. Perhaps, if the microorganisms near Antarctica really are responsible, perhaps we can accelerate the process somehow.


Pay attention to the following transition words which can help you capture the main ideas and examples:
Type of connection Transition words
These words show the order of ideas. First/Second/Third
Firstly (or "First of all")/Secondly/Thirdly (or "Lastly")
For one thing/For another thing/Finally (or "Lastly")
In the first place/in the second place/Finally (or "Lastly")
These words show the addition of information In addition, furthermore, additionally, also, next, moreover, what's more, on top of that
These words shows conclusions. To sum up, in summary, in conclusion, to conclude, all in all, all things considered ,overall, taking everything into consideration, in a nutshell
These words demonstrate contrast Conversely, on the contrary, by contrast, by way of contrast, on one hand/on the other hand
These words compare or demonstrate similarity Similarly, likewise, by the same token, along similar lines
These words show result. As a result, as a consequence, consequently, therefore
These words state a generalization. Generally, on the whole, in most cases, in general
These words clarify a point. That is, in other words, to put it simply, That is to say, just to reiterate
These words give examples. For example, for instance, take something, for example, to give a clear example
These words state an alternative. Alternatively, as another possibility
Tips to Improve TOEFL listening score
NO SKIPPING ANSWERS
Unlike the reading section, in the listening section you CANNOT skip answers and come back. If you skip a question, you will not be able to go back and answer it.

Make an educated guess on questions you are unsure of
When you don't know the answer, try to figure out which choice is most consistent with the main idea of the conversation or lecture. Another way is to eliminate obvious wrong answers.

Don't take more than two minutes to answer a question.
If you spend more than two minutes on a question, you might run out of time. It is not worth it. Leave time for other questions that you have more confidence on. It's better to have an educated guess and move on than it is to miss out on potential easy questions because you ran out of time.
Note-taking tips
Here are symbols you can use in your notes:
SymbolMeaningExamples
=refer to, occur, ..etc A concept that people make choices to describe a situation in a positive or negative way is referred to as word framing
Word framing = ppl describe a situation in ✓ or X way.
Because, as a result of, due to, because, owing to Due to the increasing popularity of e-books, there has been a fall in paper book sales.
∵↑e-books, paper books $↓
Therefore Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would have decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
=>result in, lead to, contribute to, give rise to, cause Carbon dioxide significantly contributes to global warming.
CO => global warming
isn't, doesn't, don't, can't etc. Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
+many, lots of, a great deal of, etc. Because potatoes have the ability to provide abundant and extremely nutritious food crop, no other crop grew in Northern Europe. As a result, the nutrition of the general population improved tremendously and population soared in the early 1800s.
∵ potatoes /nutri crop/+vitamins => popul↑ in Europe 1800s
++Comparatives Older and more experienced birds who nest in the high density shrub areas have significantly more offspring than those in low density areas, which suggests the choice of where to nest does have an impact on the number of chicks they have.
older birds /nest in high shrub ++offsprings birds/nest in low shrub
+++Superlatives What was even more surprising were all the large organisms that lived down there. The most distinctive of these was something called the tube worm. Here, let me show you a picture. The tube of the tube worm is really, really long. They can be up to one and half meters long, and these tubes are attached to the ocean floor, pretty weird looking, huh?
! +++special = tube warm /long/tubes attached to ocean floor
-Little, few, lack ,in short of/ be in shortage of, etc. As I said the monsoon migrated itself, so there was less rain in the Sahara. The land started to get drier, which in turn caused huge decreases in the amount of vegetation, because vegetation doesn't grow as well in dry soil, right? And then, less vegetation means the soil can't hold water and the soil loses its ability to retain water when it does rain. So then you have less moisture to help clouds form, nothing to evaporate for cloud formation.
- rain in Sahara
land ++dry => vegetation↓
--vegetation => soil ≠ hold water => -water to form cloud
!Important, interesting But what's particularly interesting about these volcanoes is that most of the volcanoes here on Earth are not shield volcanoes. Instead, they are other volcano types, like strata volcanoes, for example, which are a result of tectonic plate movement.
! volcanoes on earth ≠ shield volcanoes = strata volcanoes
tectonic plate => volcanoes on earth

Other symbols:
SymbolMeaning
&And, also, in addition, etc.
~ about/around, approximately, etc.
...And so on
$Sales, money, cost
e.g.For example
i.e.That is
xWrong, incorrect, bad, detrimental, negative, etc.
Right, good, positive, etc.
schedule03:30
Keywords In The Practice
No Vocabulary Linked To Practice

In this question, you'll listen to a lecture, then answer questions related to that lecture. Answer the questions based on what is stated or implied by the speakers.

You may take notes while you listen. You may use your notes to help you answer the questions.

We recommend you practice taking notes with a pen and paper like you will during your TOEFL exam.

Create an account to save your progress

Today's Topic:

How Caterpillars Work

Sign Up For Free For More Content

1 Which of the following statements is false?

2 The silk producing organ in a caterpillar is called?

3 Which of the following is not used to ward off predators?

4 What is an instar?

5 Metamorphisis is a process by which...?

6 Which of the following statements is false?

You have seen all of the questions in the listening section.

As long as there is time remaining, you can go back and check your work.

Click SUBMIT ANSWERS to continue and view your results.

Create an account to save your progress

Sign Up For Free For More Content

Score Summary
0 / 1
Detail
Choose Response
Gist Content
Gist Purpose
Attitude
Inference
Connecting Content
Function
Hello!   :)

Submit your listening answers to auto generate this report.
You must complete listening practice first


sentiment_satisfied_alt
TOEFL listening LessonsCompleted: 0 / 82
Listening Tips
Listen for the main idea
In most cases, the first question after each lecture is a main idea question also known as a gist question. At the beginning of a listening lecture, the professor usually mentions what the main topic of the lecture will be about, but sometimes the topic might be branched into something more specific. Please note the topic can change, so always be prepared to note down any new topics.

Listen to the speaker's tone of voice
Sometimes you'll be asked questions regarding the speaker's attitude or opinion. To answer these questions correctly, tone of voice matters. For example, does the speaker sound excited, confused, sad...etc?

Listen to how ideas are connected throughout the lecture
When listening to a lecture, make note of the way the ideas in the lecture are connected. In other words, how the professor organized the lecture. When you encounter a question asking you how the lecture is organized, you can refer back to your notes. Some of the main relationships between ideas include cause/effect, compare/contrast, and steps in a process.

Listen for key points not specific details
TOEFL listening questions will not test you on small details. For example, you won't see questions that are about a specific year, name, or location. Instead, questions will test your understanding of key points mentioned in the lecture.

Listen for signal words that indicate different parts of the lecture
To help you capture key points in the lecture, you need to learn to listen for signal words or transition words. These words are like the road signs that tell you what is coming next. Signal words can tell you the beginning or the end of a topic. They can also help you move through the middle of the lecture by introducing topics.

Signal words
"Okay", "Well", "Now", "But", and "So"

1. "Okay" and "Now" are usually used to transition into a different topic or a different key point.
2. "Well" is usually used before answering a question.
3. "But" and "So" are usually followed by a key point.
Examples

All right folks, let’s continue our discussion of alternative energy sources and move on to what’s probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it’s so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle’s ethical theory. What Aristotle’s ethical theory is all about is this: he’s trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It’s not just because it’s something that all people want to aim for. It’s more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I’d like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language. Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.


Signal words
Let's move on to ...
This brings me to my next point, which is….
So far we have have been looking at…. Now I'd like to….
So now that we've covered…
What … is all about is this…
Examples

All right folks, let's continue our discussion of alternative energy sources and move on to what's probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it's so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle's ethical theory. What Aristotle's ethical theory is all about is this: he's trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It's not just because it's something that all people want to aim for. It's more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I'd like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language.   Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.   


Signal words
(opinion) I think, It appears that, It is thought that
(theory) In theory, the hypothesis is that
Examples

You have an advertising budget to spend, but how do you to spend it wisely. Again, research is the key. Good research gives you facts, facts that can help you decide, well, as we already mentioned, decide the right market to target, and the best media to use. But also: When to advertise? or…or how to get the best rates? Like, maybe you're advertising Sport equipment, and you have been spending most of your budget during the holiday season when people buy gifts for each other. Now, in theory, that would seem a great time to advertise, but maybe a research shows you're wrong, that the customers who buy sports equipment tend not to give it as a holiday gift, but want to use it themselves. In that case, advertising during a different season of the year might give you better results.

We recently noticed an increase in cloud cover over an area of the ocean waters around Antarctica. An increased area of low thick clouds, the type that reflects a large portion of solar energy back to space and cools the Earth. Well, the reason for this increased cloud cover, it turns out, is the exceptionally large amount of microscopic marine plants. Well, the current hypothesis is that these microorganisms produce a chemical that interacts with the oxygen in the air, creating conditions that lead to the formation of the low thick clouds we observed. Well, that's true. It could have huge implications. So, maybe we are talking about controlling the weather. Perhaps, if the microorganisms near Antarctica really are responsible, perhaps we can accelerate the process somehow.


Pay attention to the following transition words which can help you capture the main ideas and examples:
Type of connection Transition words
These words show the order of ideas. First/Second/Third
Firstly (or "First of all")/Secondly/Thirdly (or "Lastly")
For one thing/For another thing/Finally (or "Lastly")
In the first place/in the second place/Finally (or "Lastly")
These words show the addition of information In addition, furthermore, additionally, also, next, moreover, what's more, on top of that
These words shows conclusions. To sum up, in summary, in conclusion, to conclude, all in all, all things considered ,overall, taking everything into consideration, in a nutshell
These words demonstrate contrast Conversely, on the contrary, by contrast, by way of contrast, on one hand/on the other hand
These words compare or demonstrate similarity Similarly, likewise, by the same token, along similar lines
These words show result. As a result, as a consequence, consequently, therefore
These words state a generalization. Generally, on the whole, in most cases, in general
These words clarify a point. That is, in other words, to put it simply, That is to say, just to reiterate
These words give examples. For example, for instance, take something, for example, to give a clear example
These words state an alternative. Alternatively, as another possibility
Tips to Improve TOEFL listening score
NO SKIPPING ANSWERS
Unlike the reading section, in the listening section you CANNOT skip answers and come back. If you skip a question, you will not be able to go back and answer it.

Make an educated guess on questions you are unsure of
When you don't know the answer, try to figure out which choice is most consistent with the main idea of the conversation or lecture. Another way is to eliminate obvious wrong answers.

Don't take more than two minutes to answer a question.
If you spend more than two minutes on a question, you might run out of time. It is not worth it. Leave time for other questions that you have more confidence on. It's better to have an educated guess and move on than it is to miss out on potential easy questions because you ran out of time.
Note-taking tips
Here are symbols you can use in your notes:
SymbolMeaningExamples
=refer to, occur, ..etc A concept that people make choices to describe a situation in a positive or negative way is referred to as word framing
Word framing = ppl describe a situation in ✓ or X way.
Because, as a result of, due to, because, owing to Due to the increasing popularity of e-books, there has been a fall in paper book sales.
∵↑e-books, paper books $↓
Therefore Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would have decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
=>result in, lead to, contribute to, give rise to, cause Carbon dioxide significantly contributes to global warming.
CO => global warming
isn't, doesn't, don't, can't etc. Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
+many, lots of, a great deal of, etc. Because potatoes have the ability to provide abundant and extremely nutritious food crop, no other crop grew in Northern Europe. As a result, the nutrition of the general population improved tremendously and population soared in the early 1800s.
∵ potatoes /nutri crop/+vitamins => popul↑ in Europe 1800s
++Comparatives Older and more experienced birds who nest in the high density shrub areas have significantly more offspring than those in low density areas, which suggests the choice of where to nest does have an impact on the number of chicks they have.
older birds /nest in high shrub ++offsprings birds/nest in low shrub
+++Superlatives What was even more surprising were all the large organisms that lived down there. The most distinctive of these was something called the tube worm. Here, let me show you a picture. The tube of the tube worm is really, really long. They can be up to one and half meters long, and these tubes are attached to the ocean floor, pretty weird looking, huh?
! +++special = tube warm /long/tubes attached to ocean floor
-Little, few, lack ,in short of/ be in shortage of, etc. As I said the monsoon migrated itself, so there was less rain in the Sahara. The land started to get drier, which in turn caused huge decreases in the amount of vegetation, because vegetation doesn't grow as well in dry soil, right? And then, less vegetation means the soil can't hold water and the soil loses its ability to retain water when it does rain. So then you have less moisture to help clouds form, nothing to evaporate for cloud formation.
- rain in Sahara
land ++dry => vegetation↓
--vegetation => soil ≠ hold water => -water to form cloud
!Important, interesting But what's particularly interesting about these volcanoes is that most of the volcanoes here on Earth are not shield volcanoes. Instead, they are other volcano types, like strata volcanoes, for example, which are a result of tectonic plate movement.
! volcanoes on earth ≠ shield volcanoes = strata volcanoes
tectonic plate => volcanoes on earth

Other symbols:
SymbolMeaning
&And, also, in addition, etc.
~ about/around, approximately, etc.
...And so on
$Sales, money, cost
e.g.For example
i.e.That is
xWrong, incorrect, bad, detrimental, negative, etc.
Right, good, positive, etc.
schedule03:30
Keywords In The Practice
No Vocabulary Linked To Practice

In this question, you'll listen to a lecture, then answer questions related to that lecture. Answer the questions based on what is stated or implied by the speakers.

You may take notes while you listen. You may use your notes to help you answer the questions.

We recommend you practice taking notes with a pen and paper like you will during your TOEFL exam.

Create an account to save your progress

Today's Topic:

How Butterflies Work

Sign Up For Free For More Content

1 Butterflies get their common name from?

2 The wings of the butterfly are made up of a material called?

3 Which of the following statements is false?

4 Why are parasitic wasps a threat to butterflies?

5 What is puddling?

6 What is a chrysalis?

You have seen all of the questions in the listening section.

As long as there is time remaining, you can go back and check your work.

Click SUBMIT ANSWERS to continue and view your results.

Create an account to save your progress

Sign Up For Free For More Content

Score Summary
0 / 1
Detail
Choose Response
Gist Content
Gist Purpose
Attitude
Inference
Connecting Content
Function
Hello!   :)

Submit your listening answers to auto generate this report.
You must complete listening practice first


sentiment_satisfied_alt
TOEFL listening LessonsCompleted: 0 / 82
Listening Tips
Listen for the main idea
In most cases, the first question after each lecture is a main idea question also known as a gist question. At the beginning of a listening lecture, the professor usually mentions what the main topic of the lecture will be about, but sometimes the topic might be branched into something more specific. Please note the topic can change, so always be prepared to note down any new topics.

Listen to the speaker's tone of voice
Sometimes you'll be asked questions regarding the speaker's attitude or opinion. To answer these questions correctly, tone of voice matters. For example, does the speaker sound excited, confused, sad...etc?

Listen to how ideas are connected throughout the lecture
When listening to a lecture, make note of the way the ideas in the lecture are connected. In other words, how the professor organized the lecture. When you encounter a question asking you how the lecture is organized, you can refer back to your notes. Some of the main relationships between ideas include cause/effect, compare/contrast, and steps in a process.

Listen for key points not specific details
TOEFL listening questions will not test you on small details. For example, you won't see questions that are about a specific year, name, or location. Instead, questions will test your understanding of key points mentioned in the lecture.

Listen for signal words that indicate different parts of the lecture
To help you capture key points in the lecture, you need to learn to listen for signal words or transition words. These words are like the road signs that tell you what is coming next. Signal words can tell you the beginning or the end of a topic. They can also help you move through the middle of the lecture by introducing topics.

Signal words
"Okay", "Well", "Now", "But", and "So"

1. "Okay" and "Now" are usually used to transition into a different topic or a different key point.
2. "Well" is usually used before answering a question.
3. "But" and "So" are usually followed by a key point.
Examples

All right folks, let’s continue our discussion of alternative energy sources and move on to what’s probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it’s so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle’s ethical theory. What Aristotle’s ethical theory is all about is this: he’s trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It’s not just because it’s something that all people want to aim for. It’s more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I’d like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language. Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.


Signal words
Let's move on to ...
This brings me to my next point, which is….
So far we have have been looking at…. Now I'd like to….
So now that we've covered…
What … is all about is this…
Examples

All right folks, let's continue our discussion of alternative energy sources and move on to what's probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it's so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle's ethical theory. What Aristotle's ethical theory is all about is this: he's trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It's not just because it's something that all people want to aim for. It's more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I'd like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language.   Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.   


Signal words
(opinion) I think, It appears that, It is thought that
(theory) In theory, the hypothesis is that
Examples

You have an advertising budget to spend, but how do you to spend it wisely. Again, research is the key. Good research gives you facts, facts that can help you decide, well, as we already mentioned, decide the right market to target, and the best media to use. But also: When to advertise? or…or how to get the best rates? Like, maybe you're advertising Sport equipment, and you have been spending most of your budget during the holiday season when people buy gifts for each other. Now, in theory, that would seem a great time to advertise, but maybe a research shows you're wrong, that the customers who buy sports equipment tend not to give it as a holiday gift, but want to use it themselves. In that case, advertising during a different season of the year might give you better results.

We recently noticed an increase in cloud cover over an area of the ocean waters around Antarctica. An increased area of low thick clouds, the type that reflects a large portion of solar energy back to space and cools the Earth. Well, the reason for this increased cloud cover, it turns out, is the exceptionally large amount of microscopic marine plants. Well, the current hypothesis is that these microorganisms produce a chemical that interacts with the oxygen in the air, creating conditions that lead to the formation of the low thick clouds we observed. Well, that's true. It could have huge implications. So, maybe we are talking about controlling the weather. Perhaps, if the microorganisms near Antarctica really are responsible, perhaps we can accelerate the process somehow.


Pay attention to the following transition words which can help you capture the main ideas and examples:
Type of connection Transition words
These words show the order of ideas. First/Second/Third
Firstly (or "First of all")/Secondly/Thirdly (or "Lastly")
For one thing/For another thing/Finally (or "Lastly")
In the first place/in the second place/Finally (or "Lastly")
These words show the addition of information In addition, furthermore, additionally, also, next, moreover, what's more, on top of that
These words shows conclusions. To sum up, in summary, in conclusion, to conclude, all in all, all things considered ,overall, taking everything into consideration, in a nutshell
These words demonstrate contrast Conversely, on the contrary, by contrast, by way of contrast, on one hand/on the other hand
These words compare or demonstrate similarity Similarly, likewise, by the same token, along similar lines
These words show result. As a result, as a consequence, consequently, therefore
These words state a generalization. Generally, on the whole, in most cases, in general
These words clarify a point. That is, in other words, to put it simply, That is to say, just to reiterate
These words give examples. For example, for instance, take something, for example, to give a clear example
These words state an alternative. Alternatively, as another possibility
Tips to Improve TOEFL listening score
NO SKIPPING ANSWERS
Unlike the reading section, in the listening section you CANNOT skip answers and come back. If you skip a question, you will not be able to go back and answer it.

Make an educated guess on questions you are unsure of
When you don't know the answer, try to figure out which choice is most consistent with the main idea of the conversation or lecture. Another way is to eliminate obvious wrong answers.

Don't take more than two minutes to answer a question.
If you spend more than two minutes on a question, you might run out of time. It is not worth it. Leave time for other questions that you have more confidence on. It's better to have an educated guess and move on than it is to miss out on potential easy questions because you ran out of time.
Note-taking tips
Here are symbols you can use in your notes:
SymbolMeaningExamples
=refer to, occur, ..etc A concept that people make choices to describe a situation in a positive or negative way is referred to as word framing
Word framing = ppl describe a situation in ✓ or X way.
Because, as a result of, due to, because, owing to Due to the increasing popularity of e-books, there has been a fall in paper book sales.
∵↑e-books, paper books $↓
Therefore Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would have decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
=>result in, lead to, contribute to, give rise to, cause Carbon dioxide significantly contributes to global warming.
CO => global warming
isn't, doesn't, don't, can't etc. Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
+many, lots of, a great deal of, etc. Because potatoes have the ability to provide abundant and extremely nutritious food crop, no other crop grew in Northern Europe. As a result, the nutrition of the general population improved tremendously and population soared in the early 1800s.
∵ potatoes /nutri crop/+vitamins => popul↑ in Europe 1800s
++Comparatives Older and more experienced birds who nest in the high density shrub areas have significantly more offspring than those in low density areas, which suggests the choice of where to nest does have an impact on the number of chicks they have.
older birds /nest in high shrub ++offsprings birds/nest in low shrub
+++Superlatives What was even more surprising were all the large organisms that lived down there. The most distinctive of these was something called the tube worm. Here, let me show you a picture. The tube of the tube worm is really, really long. They can be up to one and half meters long, and these tubes are attached to the ocean floor, pretty weird looking, huh?
! +++special = tube warm /long/tubes attached to ocean floor
-Little, few, lack ,in short of/ be in shortage of, etc. As I said the monsoon migrated itself, so there was less rain in the Sahara. The land started to get drier, which in turn caused huge decreases in the amount of vegetation, because vegetation doesn't grow as well in dry soil, right? And then, less vegetation means the soil can't hold water and the soil loses its ability to retain water when it does rain. So then you have less moisture to help clouds form, nothing to evaporate for cloud formation.
- rain in Sahara
land ++dry => vegetation↓
--vegetation => soil ≠ hold water => -water to form cloud
!Important, interesting But what's particularly interesting about these volcanoes is that most of the volcanoes here on Earth are not shield volcanoes. Instead, they are other volcano types, like strata volcanoes, for example, which are a result of tectonic plate movement.
! volcanoes on earth ≠ shield volcanoes = strata volcanoes
tectonic plate => volcanoes on earth

Other symbols:
SymbolMeaning
&And, also, in addition, etc.
~ about/around, approximately, etc.
...And so on
$Sales, money, cost
e.g.For example
i.e.That is
xWrong, incorrect, bad, detrimental, negative, etc.
Right, good, positive, etc.
schedule03:30
Keywords In The Practice
No Vocabulary Linked To Practice

In this question, you'll listen to a lecture, then answer questions related to that lecture. Answer the questions based on what is stated or implied by the speakers.

You may take notes while you listen. You may use your notes to help you answer the questions.

We recommend you practice taking notes with a pen and paper like you will during your TOEFL exam.

Create an account to save your progress

Today's Topic:

Do honeybees hold the secret for faster Web servers?

Sign Up For Free For More Content

1 What is the purpose of a waggle dance?

2 Which of the following statements is true?

3 What is a peculiar feature of the waggle dance?

You have seen all of the questions in the listening section.

As long as there is time remaining, you can go back and check your work.

Click SUBMIT ANSWERS to continue and view your results.

Create an account to save your progress

Sign Up For Free For More Content

Score Summary
0 / 1
Detail
Choose Response
Gist Content
Gist Purpose
Attitude
Inference
Connecting Content
Function
Hello!   :)

Submit your listening answers to auto generate this report.
You must complete listening practice first


sentiment_satisfied_alt
TOEFL listening LessonsCompleted: 0 / 82
Listening Tips
Listen for the main idea
In most cases, the first question after each lecture is a main idea question also known as a gist question. At the beginning of a listening lecture, the professor usually mentions what the main topic of the lecture will be about, but sometimes the topic might be branched into something more specific. Please note the topic can change, so always be prepared to note down any new topics.

Listen to the speaker's tone of voice
Sometimes you'll be asked questions regarding the speaker's attitude or opinion. To answer these questions correctly, tone of voice matters. For example, does the speaker sound excited, confused, sad...etc?

Listen to how ideas are connected throughout the lecture
When listening to a lecture, make note of the way the ideas in the lecture are connected. In other words, how the professor organized the lecture. When you encounter a question asking you how the lecture is organized, you can refer back to your notes. Some of the main relationships between ideas include cause/effect, compare/contrast, and steps in a process.

Listen for key points not specific details
TOEFL listening questions will not test you on small details. For example, you won't see questions that are about a specific year, name, or location. Instead, questions will test your understanding of key points mentioned in the lecture.

Listen for signal words that indicate different parts of the lecture
To help you capture key points in the lecture, you need to learn to listen for signal words or transition words. These words are like the road signs that tell you what is coming next. Signal words can tell you the beginning or the end of a topic. They can also help you move through the middle of the lecture by introducing topics.

Signal words
"Okay", "Well", "Now", "But", and "So"

1. "Okay" and "Now" are usually used to transition into a different topic or a different key point.
2. "Well" is usually used before answering a question.
3. "But" and "So" are usually followed by a key point.
Examples

All right folks, let’s continue our discussion of alternative energy sources and move on to what’s probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it’s so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle’s ethical theory. What Aristotle’s ethical theory is all about is this: he’s trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It’s not just because it’s something that all people want to aim for. It’s more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I’d like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language. Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.


Signal words
Let's move on to ...
This brings me to my next point, which is….
So far we have have been looking at…. Now I'd like to….
So now that we've covered…
What … is all about is this…
Examples

All right folks, let's continue our discussion of alternative energy sources and move on to what's probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it's so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle's ethical theory. What Aristotle's ethical theory is all about is this: he's trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It's not just because it's something that all people want to aim for. It's more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I'd like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language.   Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.   


Signal words
(opinion) I think, It appears that, It is thought that
(theory) In theory, the hypothesis is that
Examples

You have an advertising budget to spend, but how do you to spend it wisely. Again, research is the key. Good research gives you facts, facts that can help you decide, well, as we already mentioned, decide the right market to target, and the best media to use. But also: When to advertise? or…or how to get the best rates? Like, maybe you're advertising Sport equipment, and you have been spending most of your budget during the holiday season when people buy gifts for each other. Now, in theory, that would seem a great time to advertise, but maybe a research shows you're wrong, that the customers who buy sports equipment tend not to give it as a holiday gift, but want to use it themselves. In that case, advertising during a different season of the year might give you better results.

We recently noticed an increase in cloud cover over an area of the ocean waters around Antarctica. An increased area of low thick clouds, the type that reflects a large portion of solar energy back to space and cools the Earth. Well, the reason for this increased cloud cover, it turns out, is the exceptionally large amount of microscopic marine plants. Well, the current hypothesis is that these microorganisms produce a chemical that interacts with the oxygen in the air, creating conditions that lead to the formation of the low thick clouds we observed. Well, that's true. It could have huge implications. So, maybe we are talking about controlling the weather. Perhaps, if the microorganisms near Antarctica really are responsible, perhaps we can accelerate the process somehow.


Pay attention to the following transition words which can help you capture the main ideas and examples:
Type of connection Transition words
These words show the order of ideas. First/Second/Third
Firstly (or "First of all")/Secondly/Thirdly (or "Lastly")
For one thing/For another thing/Finally (or "Lastly")
In the first place/in the second place/Finally (or "Lastly")
These words show the addition of information In addition, furthermore, additionally, also, next, moreover, what's more, on top of that
These words shows conclusions. To sum up, in summary, in conclusion, to conclude, all in all, all things considered ,overall, taking everything into consideration, in a nutshell
These words demonstrate contrast Conversely, on the contrary, by contrast, by way of contrast, on one hand/on the other hand
These words compare or demonstrate similarity Similarly, likewise, by the same token, along similar lines
These words show result. As a result, as a consequence, consequently, therefore
These words state a generalization. Generally, on the whole, in most cases, in general
These words clarify a point. That is, in other words, to put it simply, That is to say, just to reiterate
These words give examples. For example, for instance, take something, for example, to give a clear example
These words state an alternative. Alternatively, as another possibility
Tips to Improve TOEFL listening score
NO SKIPPING ANSWERS
Unlike the reading section, in the listening section you CANNOT skip answers and come back. If you skip a question, you will not be able to go back and answer it.

Make an educated guess on questions you are unsure of
When you don't know the answer, try to figure out which choice is most consistent with the main idea of the conversation or lecture. Another way is to eliminate obvious wrong answers.

Don't take more than two minutes to answer a question.
If you spend more than two minutes on a question, you might run out of time. It is not worth it. Leave time for other questions that you have more confidence on. It's better to have an educated guess and move on than it is to miss out on potential easy questions because you ran out of time.
Note-taking tips
Here are symbols you can use in your notes:
SymbolMeaningExamples
=refer to, occur, ..etc A concept that people make choices to describe a situation in a positive or negative way is referred to as word framing
Word framing = ppl describe a situation in ✓ or X way.
Because, as a result of, due to, because, owing to Due to the increasing popularity of e-books, there has been a fall in paper book sales.
∵↑e-books, paper books $↓
Therefore Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would have decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
=>result in, lead to, contribute to, give rise to, cause Carbon dioxide significantly contributes to global warming.
CO => global warming
isn't, doesn't, don't, can't etc. Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
+many, lots of, a great deal of, etc. Because potatoes have the ability to provide abundant and extremely nutritious food crop, no other crop grew in Northern Europe. As a result, the nutrition of the general population improved tremendously and population soared in the early 1800s.
∵ potatoes /nutri crop/+vitamins => popul↑ in Europe 1800s
++Comparatives Older and more experienced birds who nest in the high density shrub areas have significantly more offspring than those in low density areas, which suggests the choice of where to nest does have an impact on the number of chicks they have.
older birds /nest in high shrub ++offsprings birds/nest in low shrub
+++Superlatives What was even more surprising were all the large organisms that lived down there. The most distinctive of these was something called the tube worm. Here, let me show you a picture. The tube of the tube worm is really, really long. They can be up to one and half meters long, and these tubes are attached to the ocean floor, pretty weird looking, huh?
! +++special = tube warm /long/tubes attached to ocean floor
-Little, few, lack ,in short of/ be in shortage of, etc. As I said the monsoon migrated itself, so there was less rain in the Sahara. The land started to get drier, which in turn caused huge decreases in the amount of vegetation, because vegetation doesn't grow as well in dry soil, right? And then, less vegetation means the soil can't hold water and the soil loses its ability to retain water when it does rain. So then you have less moisture to help clouds form, nothing to evaporate for cloud formation.
- rain in Sahara
land ++dry => vegetation↓
--vegetation => soil ≠ hold water => -water to form cloud
!Important, interesting But what's particularly interesting about these volcanoes is that most of the volcanoes here on Earth are not shield volcanoes. Instead, they are other volcano types, like strata volcanoes, for example, which are a result of tectonic plate movement.
! volcanoes on earth ≠ shield volcanoes = strata volcanoes
tectonic plate => volcanoes on earth

Other symbols:
SymbolMeaning
&And, also, in addition, etc.
~ about/around, approximately, etc.
...And so on
$Sales, money, cost
e.g.For example
i.e.That is
xWrong, incorrect, bad, detrimental, negative, etc.
Right, good, positive, etc.
schedule03:30
Keywords In The Practice
No Vocabulary Linked To Practice

In this question, you'll listen to a lecture, then answer questions related to that lecture. Answer the questions based on what is stated or implied by the speakers.

You may take notes while you listen. You may use your notes to help you answer the questions.

We recommend you practice taking notes with a pen and paper like you will during your TOEFL exam.

Create an account to save your progress

Today's Topic:

Wallaby Vs Kangaroo

Sign Up For Free For More Content

1 The kangaroos found in semi-arid regions are characterised by their.

2 Which of the following statement is false?

3 The word kangaroo is derived form

4 The most obvious difference between a wallaby and a kangaroo is in.

You have seen all of the questions in the listening section.

As long as there is time remaining, you can go back and check your work.

Click SUBMIT ANSWERS to continue and view your results.

Create an account to save your progress

Sign Up For Free For More Content

Score Summary
0 / 1
Detail
Choose Response
Gist Content
Gist Purpose
Attitude
Inference
Connecting Content
Function
Hello!   :)

Submit your listening answers to auto generate this report.
You must complete listening practice first


sentiment_satisfied_alt
TOEFL listening LessonsCompleted: 0 / 82
Listening Tips
Listen for the main idea
In most cases, the first question after each lecture is a main idea question also known as a gist question. At the beginning of a listening lecture, the professor usually mentions what the main topic of the lecture will be about, but sometimes the topic might be branched into something more specific. Please note the topic can change, so always be prepared to note down any new topics.

Listen to the speaker's tone of voice
Sometimes you'll be asked questions regarding the speaker's attitude or opinion. To answer these questions correctly, tone of voice matters. For example, does the speaker sound excited, confused, sad...etc?

Listen to how ideas are connected throughout the lecture
When listening to a lecture, make note of the way the ideas in the lecture are connected. In other words, how the professor organized the lecture. When you encounter a question asking you how the lecture is organized, you can refer back to your notes. Some of the main relationships between ideas include cause/effect, compare/contrast, and steps in a process.

Listen for key points not specific details
TOEFL listening questions will not test you on small details. For example, you won't see questions that are about a specific year, name, or location. Instead, questions will test your understanding of key points mentioned in the lecture.

Listen for signal words that indicate different parts of the lecture
To help you capture key points in the lecture, you need to learn to listen for signal words or transition words. These words are like the road signs that tell you what is coming next. Signal words can tell you the beginning or the end of a topic. They can also help you move through the middle of the lecture by introducing topics.

Signal words
"Okay", "Well", "Now", "But", and "So"

1. "Okay" and "Now" are usually used to transition into a different topic or a different key point.
2. "Well" is usually used before answering a question.
3. "But" and "So" are usually followed by a key point.
Examples

All right folks, let’s continue our discussion of alternative energy sources and move on to what’s probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it’s so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle’s ethical theory. What Aristotle’s ethical theory is all about is this: he’s trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It’s not just because it’s something that all people want to aim for. It’s more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I’d like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language. Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.


Signal words
Let's move on to ...
This brings me to my next point, which is….
So far we have have been looking at…. Now I'd like to….
So now that we've covered…
What … is all about is this…
Examples

All right folks, let's continue our discussion of alternative energy sources and move on to what's probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it's so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle's ethical theory. What Aristotle's ethical theory is all about is this: he's trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It's not just because it's something that all people want to aim for. It's more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I'd like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language.   Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.   


Signal words
(opinion) I think, It appears that, It is thought that
(theory) In theory, the hypothesis is that
Examples

You have an advertising budget to spend, but how do you to spend it wisely. Again, research is the key. Good research gives you facts, facts that can help you decide, well, as we already mentioned, decide the right market to target, and the best media to use. But also: When to advertise? or…or how to get the best rates? Like, maybe you're advertising Sport equipment, and you have been spending most of your budget during the holiday season when people buy gifts for each other. Now, in theory, that would seem a great time to advertise, but maybe a research shows you're wrong, that the customers who buy sports equipment tend not to give it as a holiday gift, but want to use it themselves. In that case, advertising during a different season of the year might give you better results.

We recently noticed an increase in cloud cover over an area of the ocean waters around Antarctica. An increased area of low thick clouds, the type that reflects a large portion of solar energy back to space and cools the Earth. Well, the reason for this increased cloud cover, it turns out, is the exceptionally large amount of microscopic marine plants. Well, the current hypothesis is that these microorganisms produce a chemical that interacts with the oxygen in the air, creating conditions that lead to the formation of the low thick clouds we observed. Well, that's true. It could have huge implications. So, maybe we are talking about controlling the weather. Perhaps, if the microorganisms near Antarctica really are responsible, perhaps we can accelerate the process somehow.


Pay attention to the following transition words which can help you capture the main ideas and examples:
Type of connection Transition words
These words show the order of ideas. First/Second/Third
Firstly (or "First of all")/Secondly/Thirdly (or "Lastly")
For one thing/For another thing/Finally (or "Lastly")
In the first place/in the second place/Finally (or "Lastly")
These words show the addition of information In addition, furthermore, additionally, also, next, moreover, what's more, on top of that
These words shows conclusions. To sum up, in summary, in conclusion, to conclude, all in all, all things considered ,overall, taking everything into consideration, in a nutshell
These words demonstrate contrast Conversely, on the contrary, by contrast, by way of contrast, on one hand/on the other hand
These words compare or demonstrate similarity Similarly, likewise, by the same token, along similar lines
These words show result. As a result, as a consequence, consequently, therefore
These words state a generalization. Generally, on the whole, in most cases, in general
These words clarify a point. That is, in other words, to put it simply, That is to say, just to reiterate
These words give examples. For example, for instance, take something, for example, to give a clear example
These words state an alternative. Alternatively, as another possibility
Tips to Improve TOEFL listening score
NO SKIPPING ANSWERS
Unlike the reading section, in the listening section you CANNOT skip answers and come back. If you skip a question, you will not be able to go back and answer it.

Make an educated guess on questions you are unsure of
When you don't know the answer, try to figure out which choice is most consistent with the main idea of the conversation or lecture. Another way is to eliminate obvious wrong answers.

Don't take more than two minutes to answer a question.
If you spend more than two minutes on a question, you might run out of time. It is not worth it. Leave time for other questions that you have more confidence on. It's better to have an educated guess and move on than it is to miss out on potential easy questions because you ran out of time.
Note-taking tips
Here are symbols you can use in your notes:
SymbolMeaningExamples
=refer to, occur, ..etc A concept that people make choices to describe a situation in a positive or negative way is referred to as word framing
Word framing = ppl describe a situation in ✓ or X way.
Because, as a result of, due to, because, owing to Due to the increasing popularity of e-books, there has been a fall in paper book sales.
∵↑e-books, paper books $↓
Therefore Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would have decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
=>result in, lead to, contribute to, give rise to, cause Carbon dioxide significantly contributes to global warming.
CO => global warming
isn't, doesn't, don't, can't etc. Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
+many, lots of, a great deal of, etc. Because potatoes have the ability to provide abundant and extremely nutritious food crop, no other crop grew in Northern Europe. As a result, the nutrition of the general population improved tremendously and population soared in the early 1800s.
∵ potatoes /nutri crop/+vitamins => popul↑ in Europe 1800s
++Comparatives Older and more experienced birds who nest in the high density shrub areas have significantly more offspring than those in low density areas, which suggests the choice of where to nest does have an impact on the number of chicks they have.
older birds /nest in high shrub ++offsprings birds/nest in low shrub
+++Superlatives What was even more surprising were all the large organisms that lived down there. The most distinctive of these was something called the tube worm. Here, let me show you a picture. The tube of the tube worm is really, really long. They can be up to one and half meters long, and these tubes are attached to the ocean floor, pretty weird looking, huh?
! +++special = tube warm /long/tubes attached to ocean floor
-Little, few, lack ,in short of/ be in shortage of, etc. As I said the monsoon migrated itself, so there was less rain in the Sahara. The land started to get drier, which in turn caused huge decreases in the amount of vegetation, because vegetation doesn't grow as well in dry soil, right? And then, less vegetation means the soil can't hold water and the soil loses its ability to retain water when it does rain. So then you have less moisture to help clouds form, nothing to evaporate for cloud formation.
- rain in Sahara
land ++dry => vegetation↓
--vegetation => soil ≠ hold water => -water to form cloud
!Important, interesting But what's particularly interesting about these volcanoes is that most of the volcanoes here on Earth are not shield volcanoes. Instead, they are other volcano types, like strata volcanoes, for example, which are a result of tectonic plate movement.
! volcanoes on earth ≠ shield volcanoes = strata volcanoes
tectonic plate => volcanoes on earth

Other symbols:
SymbolMeaning
&And, also, in addition, etc.
~ about/around, approximately, etc.
...And so on
$Sales, money, cost
e.g.For example
i.e.That is
xWrong, incorrect, bad, detrimental, negative, etc.
Right, good, positive, etc.
schedule03:30
Keywords In The Practice
No Vocabulary Linked To Practice

In this question, you'll listen to a lecture, then answer questions related to that lecture. Answer the questions based on what is stated or implied by the speakers.

You may take notes while you listen. You may use your notes to help you answer the questions.

We recommend you practice taking notes with a pen and paper like you will during your TOEFL exam.

Create an account to save your progress

Today's Topic:

Painted turtles

Sign Up For Free For More Content

1 What is the main topic of the professor’s lecture on painted turtles?

2 Why isn’t the oxygen concentration number defined by the US Geological Survey important in understanding the concept of anoxic?

3 How do the painted turtles adapt to the winter temperatures?

4 What was the professor’s intent behind explaining the consumption of ATP?

5 Why is it essential for painted turtles to protect their bodies from the formation of large ice crystals to form in their bodily fluids?

6 The professor concludes the lecture with a comparison of cryoprotectants to antifreeze in a car’s radiator. What is the main purpose of making this comparison?

You have seen all of the questions in the listening section.

As long as there is time remaining, you can go back and check your work.

Click SUBMIT ANSWERS to continue and view your results.

Create an account to save your progress

Sign Up For Free For More Content

Score Summary
0 / 1
Detail
Choose Response
Gist Content
Gist Purpose
Attitude
Inference
Connecting Content
Function
Hello!   :)

Submit your listening answers to auto generate this report.
You must complete listening practice first


sentiment_satisfied_alt
TOEFL listening LessonsCompleted: 0 / 82
Listening Tips
Listen for the main idea
In most cases, the first question after each lecture is a main idea question also known as a gist question. At the beginning of a listening lecture, the professor usually mentions what the main topic of the lecture will be about, but sometimes the topic might be branched into something more specific. Please note the topic can change, so always be prepared to note down any new topics.

Listen to the speaker's tone of voice
Sometimes you'll be asked questions regarding the speaker's attitude or opinion. To answer these questions correctly, tone of voice matters. For example, does the speaker sound excited, confused, sad...etc?

Listen to how ideas are connected throughout the lecture
When listening to a lecture, make note of the way the ideas in the lecture are connected. In other words, how the professor organized the lecture. When you encounter a question asking you how the lecture is organized, you can refer back to your notes. Some of the main relationships between ideas include cause/effect, compare/contrast, and steps in a process.

Listen for key points not specific details
TOEFL listening questions will not test you on small details. For example, you won't see questions that are about a specific year, name, or location. Instead, questions will test your understanding of key points mentioned in the lecture.

Listen for signal words that indicate different parts of the lecture
To help you capture key points in the lecture, you need to learn to listen for signal words or transition words. These words are like the road signs that tell you what is coming next. Signal words can tell you the beginning or the end of a topic. They can also help you move through the middle of the lecture by introducing topics.

Signal words
"Okay", "Well", "Now", "But", and "So"

1. "Okay" and "Now" are usually used to transition into a different topic or a different key point.
2. "Well" is usually used before answering a question.
3. "But" and "So" are usually followed by a key point.
Examples

All right folks, let’s continue our discussion of alternative energy sources and move on to what’s probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it’s so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle’s ethical theory. What Aristotle’s ethical theory is all about is this: he’s trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It’s not just because it’s something that all people want to aim for. It’s more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I’d like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language. Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.


Signal words
Let's move on to ...
This brings me to my next point, which is….
So far we have have been looking at…. Now I'd like to….
So now that we've covered…
What … is all about is this…
Examples

All right folks, let's continue our discussion of alternative energy sources and move on to what's probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it's so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle's ethical theory. What Aristotle's ethical theory is all about is this: he's trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It's not just because it's something that all people want to aim for. It's more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I'd like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language.   Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.   


Signal words
(opinion) I think, It appears that, It is thought that
(theory) In theory, the hypothesis is that
Examples

You have an advertising budget to spend, but how do you to spend it wisely. Again, research is the key. Good research gives you facts, facts that can help you decide, well, as we already mentioned, decide the right market to target, and the best media to use. But also: When to advertise? or…or how to get the best rates? Like, maybe you're advertising Sport equipment, and you have been spending most of your budget during the holiday season when people buy gifts for each other. Now, in theory, that would seem a great time to advertise, but maybe a research shows you're wrong, that the customers who buy sports equipment tend not to give it as a holiday gift, but want to use it themselves. In that case, advertising during a different season of the year might give you better results.

We recently noticed an increase in cloud cover over an area of the ocean waters around Antarctica. An increased area of low thick clouds, the type that reflects a large portion of solar energy back to space and cools the Earth. Well, the reason for this increased cloud cover, it turns out, is the exceptionally large amount of microscopic marine plants. Well, the current hypothesis is that these microorganisms produce a chemical that interacts with the oxygen in the air, creating conditions that lead to the formation of the low thick clouds we observed. Well, that's true. It could have huge implications. So, maybe we are talking about controlling the weather. Perhaps, if the microorganisms near Antarctica really are responsible, perhaps we can accelerate the process somehow.


Pay attention to the following transition words which can help you capture the main ideas and examples:
Type of connection Transition words
These words show the order of ideas. First/Second/Third
Firstly (or "First of all")/Secondly/Thirdly (or "Lastly")
For one thing/For another thing/Finally (or "Lastly")
In the first place/in the second place/Finally (or "Lastly")
These words show the addition of information In addition, furthermore, additionally, also, next, moreover, what's more, on top of that
These words shows conclusions. To sum up, in summary, in conclusion, to conclude, all in all, all things considered ,overall, taking everything into consideration, in a nutshell
These words demonstrate contrast Conversely, on the contrary, by contrast, by way of contrast, on one hand/on the other hand
These words compare or demonstrate similarity Similarly, likewise, by the same token, along similar lines
These words show result. As a result, as a consequence, consequently, therefore
These words state a generalization. Generally, on the whole, in most cases, in general
These words clarify a point. That is, in other words, to put it simply, That is to say, just to reiterate
These words give examples. For example, for instance, take something, for example, to give a clear example
These words state an alternative. Alternatively, as another possibility
Tips to Improve TOEFL listening score
NO SKIPPING ANSWERS
Unlike the reading section, in the listening section you CANNOT skip answers and come back. If you skip a question, you will not be able to go back and answer it.

Make an educated guess on questions you are unsure of
When you don't know the answer, try to figure out which choice is most consistent with the main idea of the conversation or lecture. Another way is to eliminate obvious wrong answers.

Don't take more than two minutes to answer a question.
If you spend more than two minutes on a question, you might run out of time. It is not worth it. Leave time for other questions that you have more confidence on. It's better to have an educated guess and move on than it is to miss out on potential easy questions because you ran out of time.
Note-taking tips
Here are symbols you can use in your notes:
SymbolMeaningExamples
=refer to, occur, ..etc A concept that people make choices to describe a situation in a positive or negative way is referred to as word framing
Word framing = ppl describe a situation in ✓ or X way.
Because, as a result of, due to, because, owing to Due to the increasing popularity of e-books, there has been a fall in paper book sales.
∵↑e-books, paper books $↓
Therefore Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would have decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
=>result in, lead to, contribute to, give rise to, cause Carbon dioxide significantly contributes to global warming.
CO => global warming
isn't, doesn't, don't, can't etc. Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
+many, lots of, a great deal of, etc. Because potatoes have the ability to provide abundant and extremely nutritious food crop, no other crop grew in Northern Europe. As a result, the nutrition of the general population improved tremendously and population soared in the early 1800s.
∵ potatoes /nutri crop/+vitamins => popul↑ in Europe 1800s
++Comparatives Older and more experienced birds who nest in the high density shrub areas have significantly more offspring than those in low density areas, which suggests the choice of where to nest does have an impact on the number of chicks they have.
older birds /nest in high shrub ++offsprings birds/nest in low shrub
+++Superlatives What was even more surprising were all the large organisms that lived down there. The most distinctive of these was something called the tube worm. Here, let me show you a picture. The tube of the tube worm is really, really long. They can be up to one and half meters long, and these tubes are attached to the ocean floor, pretty weird looking, huh?
! +++special = tube warm /long/tubes attached to ocean floor
-Little, few, lack ,in short of/ be in shortage of, etc. As I said the monsoon migrated itself, so there was less rain in the Sahara. The land started to get drier, which in turn caused huge decreases in the amount of vegetation, because vegetation doesn't grow as well in dry soil, right? And then, less vegetation means the soil can't hold water and the soil loses its ability to retain water when it does rain. So then you have less moisture to help clouds form, nothing to evaporate for cloud formation.
- rain in Sahara
land ++dry => vegetation↓
--vegetation => soil ≠ hold water => -water to form cloud
!Important, interesting But what's particularly interesting about these volcanoes is that most of the volcanoes here on Earth are not shield volcanoes. Instead, they are other volcano types, like strata volcanoes, for example, which are a result of tectonic plate movement.
! volcanoes on earth ≠ shield volcanoes = strata volcanoes
tectonic plate => volcanoes on earth

Other symbols:
SymbolMeaning
&And, also, in addition, etc.
~ about/around, approximately, etc.
...And so on
$Sales, money, cost
e.g.For example
i.e.That is
xWrong, incorrect, bad, detrimental, negative, etc.
Right, good, positive, etc.
schedule03:30
Keywords In The Practice
No Vocabulary Linked To Practice

In this question, you'll listen to a lecture, then answer questions related to that lecture. Answer the questions based on what is stated or implied by the speakers.

You may take notes while you listen. You may use your notes to help you answer the questions.

We recommend you practice taking notes with a pen and paper like you will during your TOEFL exam.

Create an account to save your progress

Today's Topic:

Differentiating apes from monkeys

Sign Up For Free For More Content

1 What was the reason why the physical characteristics of the primates evolved?

2 What is one of the most obvious way to distinguish between a monkey and an ape?

3 What distinguishes an ape from a hominid?

4 Which characteristic of the chimpanzee is in stark contrast to other animals of the same group?

5 Apes belong to which of the following family?

6 Which of the following is not done by an ape?

7 The forelimbs in apes were initially used for.

You have seen all of the questions in the listening section.

As long as there is time remaining, you can go back and check your work.

Click SUBMIT ANSWERS to continue and view your results.

Create an account to save your progress

Sign Up For Free For More Content

Score Summary
0 / 1
Detail
Choose Response
Gist Content
Gist Purpose
Attitude
Inference
Connecting Content
Function
Hello!   :)

Submit your listening answers to auto generate this report.
You must complete listening practice first


sentiment_satisfied_alt
TOEFL listening LessonsCompleted: 0 / 82
Listening Tips
Listen for the main idea
In most cases, the first question after each lecture is a main idea question also known as a gist question. At the beginning of a listening lecture, the professor usually mentions what the main topic of the lecture will be about, but sometimes the topic might be branched into something more specific. Please note the topic can change, so always be prepared to note down any new topics.

Listen to the speaker's tone of voice
Sometimes you'll be asked questions regarding the speaker's attitude or opinion. To answer these questions correctly, tone of voice matters. For example, does the speaker sound excited, confused, sad...etc?

Listen to how ideas are connected throughout the lecture
When listening to a lecture, make note of the way the ideas in the lecture are connected. In other words, how the professor organized the lecture. When you encounter a question asking you how the lecture is organized, you can refer back to your notes. Some of the main relationships between ideas include cause/effect, compare/contrast, and steps in a process.

Listen for key points not specific details
TOEFL listening questions will not test you on small details. For example, you won't see questions that are about a specific year, name, or location. Instead, questions will test your understanding of key points mentioned in the lecture.

Listen for signal words that indicate different parts of the lecture
To help you capture key points in the lecture, you need to learn to listen for signal words or transition words. These words are like the road signs that tell you what is coming next. Signal words can tell you the beginning or the end of a topic. They can also help you move through the middle of the lecture by introducing topics.

Signal words
"Okay", "Well", "Now", "But", and "So"

1. "Okay" and "Now" are usually used to transition into a different topic or a different key point.
2. "Well" is usually used before answering a question.
3. "But" and "So" are usually followed by a key point.
Examples

All right folks, let’s continue our discussion of alternative energy sources and move on to what’s probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it’s so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle’s ethical theory. What Aristotle’s ethical theory is all about is this: he’s trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It’s not just because it’s something that all people want to aim for. It’s more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I’d like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language. Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.


Signal words
Let's move on to ...
This brings me to my next point, which is….
So far we have have been looking at…. Now I'd like to….
So now that we've covered…
What … is all about is this…
Examples

All right folks, let's continue our discussion of alternative energy sources and move on to what's probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it's so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle's ethical theory. What Aristotle's ethical theory is all about is this: he's trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It's not just because it's something that all people want to aim for. It's more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I'd like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language.   Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.   


Signal words
(opinion) I think, It appears that, It is thought that
(theory) In theory, the hypothesis is that
Examples

You have an advertising budget to spend, but how do you to spend it wisely. Again, research is the key. Good research gives you facts, facts that can help you decide, well, as we already mentioned, decide the right market to target, and the best media to use. But also: When to advertise? or…or how to get the best rates? Like, maybe you're advertising Sport equipment, and you have been spending most of your budget during the holiday season when people buy gifts for each other. Now, in theory, that would seem a great time to advertise, but maybe a research shows you're wrong, that the customers who buy sports equipment tend not to give it as a holiday gift, but want to use it themselves. In that case, advertising during a different season of the year might give you better results.

We recently noticed an increase in cloud cover over an area of the ocean waters around Antarctica. An increased area of low thick clouds, the type that reflects a large portion of solar energy back to space and cools the Earth. Well, the reason for this increased cloud cover, it turns out, is the exceptionally large amount of microscopic marine plants. Well, the current hypothesis is that these microorganisms produce a chemical that interacts with the oxygen in the air, creating conditions that lead to the formation of the low thick clouds we observed. Well, that's true. It could have huge implications. So, maybe we are talking about controlling the weather. Perhaps, if the microorganisms near Antarctica really are responsible, perhaps we can accelerate the process somehow.


Pay attention to the following transition words which can help you capture the main ideas and examples:
Type of connection Transition words
These words show the order of ideas. First/Second/Third
Firstly (or "First of all")/Secondly/Thirdly (or "Lastly")
For one thing/For another thing/Finally (or "Lastly")
In the first place/in the second place/Finally (or "Lastly")
These words show the addition of information In addition, furthermore, additionally, also, next, moreover, what's more, on top of that
These words shows conclusions. To sum up, in summary, in conclusion, to conclude, all in all, all things considered ,overall, taking everything into consideration, in a nutshell
These words demonstrate contrast Conversely, on the contrary, by contrast, by way of contrast, on one hand/on the other hand
These words compare or demonstrate similarity Similarly, likewise, by the same token, along similar lines
These words show result. As a result, as a consequence, consequently, therefore
These words state a generalization. Generally, on the whole, in most cases, in general
These words clarify a point. That is, in other words, to put it simply, That is to say, just to reiterate
These words give examples. For example, for instance, take something, for example, to give a clear example
These words state an alternative. Alternatively, as another possibility
Tips to Improve TOEFL listening score
NO SKIPPING ANSWERS
Unlike the reading section, in the listening section you CANNOT skip answers and come back. If you skip a question, you will not be able to go back and answer it.

Make an educated guess on questions you are unsure of
When you don't know the answer, try to figure out which choice is most consistent with the main idea of the conversation or lecture. Another way is to eliminate obvious wrong answers.

Don't take more than two minutes to answer a question.
If you spend more than two minutes on a question, you might run out of time. It is not worth it. Leave time for other questions that you have more confidence on. It's better to have an educated guess and move on than it is to miss out on potential easy questions because you ran out of time.
Note-taking tips
Here are symbols you can use in your notes:
SymbolMeaningExamples
=refer to, occur, ..etc A concept that people make choices to describe a situation in a positive or negative way is referred to as word framing
Word framing = ppl describe a situation in ✓ or X way.
Because, as a result of, due to, because, owing to Due to the increasing popularity of e-books, there has been a fall in paper book sales.
∵↑e-books, paper books $↓
Therefore Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would have decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
=>result in, lead to, contribute to, give rise to, cause Carbon dioxide significantly contributes to global warming.
CO => global warming
isn't, doesn't, don't, can't etc. Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
+many, lots of, a great deal of, etc. Because potatoes have the ability to provide abundant and extremely nutritious food crop, no other crop grew in Northern Europe. As a result, the nutrition of the general population improved tremendously and population soared in the early 1800s.
∵ potatoes /nutri crop/+vitamins => popul↑ in Europe 1800s
++Comparatives Older and more experienced birds who nest in the high density shrub areas have significantly more offspring than those in low density areas, which suggests the choice of where to nest does have an impact on the number of chicks they have.
older birds /nest in high shrub ++offsprings birds/nest in low shrub
+++Superlatives What was even more surprising were all the large organisms that lived down there. The most distinctive of these was something called the tube worm. Here, let me show you a picture. The tube of the tube worm is really, really long. They can be up to one and half meters long, and these tubes are attached to the ocean floor, pretty weird looking, huh?
! +++special = tube warm /long/tubes attached to ocean floor
-Little, few, lack ,in short of/ be in shortage of, etc. As I said the monsoon migrated itself, so there was less rain in the Sahara. The land started to get drier, which in turn caused huge decreases in the amount of vegetation, because vegetation doesn't grow as well in dry soil, right? And then, less vegetation means the soil can't hold water and the soil loses its ability to retain water when it does rain. So then you have less moisture to help clouds form, nothing to evaporate for cloud formation.
- rain in Sahara
land ++dry => vegetation↓
--vegetation => soil ≠ hold water => -water to form cloud
!Important, interesting But what's particularly interesting about these volcanoes is that most of the volcanoes here on Earth are not shield volcanoes. Instead, they are other volcano types, like strata volcanoes, for example, which are a result of tectonic plate movement.
! volcanoes on earth ≠ shield volcanoes = strata volcanoes
tectonic plate => volcanoes on earth

Other symbols:
SymbolMeaning
&And, also, in addition, etc.
~ about/around, approximately, etc.
...And so on
$Sales, money, cost
e.g.For example
i.e.That is
xWrong, incorrect, bad, detrimental, negative, etc.
Right, good, positive, etc.
schedule03:30
Keywords In The Practice
No Vocabulary Linked To Practice

In this question, you'll listen to a lecture, then answer questions related to that lecture. Answer the questions based on what is stated or implied by the speakers.

You may take notes while you listen. You may use your notes to help you answer the questions.

We recommend you practice taking notes with a pen and paper like you will during your TOEFL exam.

Create an account to save your progress

Today's Topic:

All about Chimps supporting our medical research

Sign Up For Free For More Content

1 Why are chimpanzees suitable ‘human models’?

2 Why was the Animal Welfare Act put in place?

3 Which of the following statements are false?

4 Ape testing has given fruitful results for which of the following?

5 Which are the only two countries that permit testing on chimps?

You have seen all of the questions in the listening section.

As long as there is time remaining, you can go back and check your work.

Click SUBMIT ANSWERS to continue and view your results.

Create an account to save your progress

Sign Up For Free For More Content

Score Summary
0 / 1
Detail
Choose Response
Gist Content
Gist Purpose
Attitude
Inference
Connecting Content
Function
Hello!   :)

Submit your listening answers to auto generate this report.
You must complete listening practice first


sentiment_satisfied_alt
TOEFL listening LessonsCompleted: 0 / 82
Listening Tips
Listen for the main idea
In most cases, the first question after each lecture is a main idea question also known as a gist question. At the beginning of a listening lecture, the professor usually mentions what the main topic of the lecture will be about, but sometimes the topic might be branched into something more specific. Please note the topic can change, so always be prepared to note down any new topics.

Listen to the speaker's tone of voice
Sometimes you'll be asked questions regarding the speaker's attitude or opinion. To answer these questions correctly, tone of voice matters. For example, does the speaker sound excited, confused, sad...etc?

Listen to how ideas are connected throughout the lecture
When listening to a lecture, make note of the way the ideas in the lecture are connected. In other words, how the professor organized the lecture. When you encounter a question asking you how the lecture is organized, you can refer back to your notes. Some of the main relationships between ideas include cause/effect, compare/contrast, and steps in a process.

Listen for key points not specific details
TOEFL listening questions will not test you on small details. For example, you won't see questions that are about a specific year, name, or location. Instead, questions will test your understanding of key points mentioned in the lecture.

Listen for signal words that indicate different parts of the lecture
To help you capture key points in the lecture, you need to learn to listen for signal words or transition words. These words are like the road signs that tell you what is coming next. Signal words can tell you the beginning or the end of a topic. They can also help you move through the middle of the lecture by introducing topics.

Signal words
"Okay", "Well", "Now", "But", and "So"

1. "Okay" and "Now" are usually used to transition into a different topic or a different key point.
2. "Well" is usually used before answering a question.
3. "But" and "So" are usually followed by a key point.
Examples

All right folks, let’s continue our discussion of alternative energy sources and move on to what’s probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it’s so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle’s ethical theory. What Aristotle’s ethical theory is all about is this: he’s trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It’s not just because it’s something that all people want to aim for. It’s more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I’d like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language. Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.


Signal words
Let's move on to ...
This brings me to my next point, which is….
So far we have have been looking at…. Now I'd like to….
So now that we've covered…
What … is all about is this…
Examples

All right folks, let's continue our discussion of alternative energy sources and move on to what's probably the most well-known alternative energy source--- solar energy. The sun basically provides earth with virtually unlimited source of energy every day, but the problem has always been how do we tap this source of energy. Can anyone think of why it's so difficult to make use of solar energy?

OK. Another ancient Greek philosopher we need to discuss is Aristotle—Aristotle's ethical theory. What Aristotle's ethical theory is all about is this: he's trying to show you how to be happy—what true happiness is. Now, why is he interested in human happiness? It's not just because it's something that all people want to aim for. It's more than that. But to get there we need to first make a very important distinction. Let me introduce a couple of technical terms: extrinsic value and intrinsic value.

All right, so far we have been looking at some of the core areas of linguistics, like syntax, phonology, semantics. Now I'd like to talk about the branch of historical linguistics, and the comparison of several different languages, or the comparison of different stages of a single language.   Now, if you are comparing different languages, and you notice that they have a lot in common. Maybe they have similar sounds and words that correspond to one another that have the same meaning and that sound similar.   


Signal words
(opinion) I think, It appears that, It is thought that
(theory) In theory, the hypothesis is that
Examples

You have an advertising budget to spend, but how do you to spend it wisely. Again, research is the key. Good research gives you facts, facts that can help you decide, well, as we already mentioned, decide the right market to target, and the best media to use. But also: When to advertise? or…or how to get the best rates? Like, maybe you're advertising Sport equipment, and you have been spending most of your budget during the holiday season when people buy gifts for each other. Now, in theory, that would seem a great time to advertise, but maybe a research shows you're wrong, that the customers who buy sports equipment tend not to give it as a holiday gift, but want to use it themselves. In that case, advertising during a different season of the year might give you better results.

We recently noticed an increase in cloud cover over an area of the ocean waters around Antarctica. An increased area of low thick clouds, the type that reflects a large portion of solar energy back to space and cools the Earth. Well, the reason for this increased cloud cover, it turns out, is the exceptionally large amount of microscopic marine plants. Well, the current hypothesis is that these microorganisms produce a chemical that interacts with the oxygen in the air, creating conditions that lead to the formation of the low thick clouds we observed. Well, that's true. It could have huge implications. So, maybe we are talking about controlling the weather. Perhaps, if the microorganisms near Antarctica really are responsible, perhaps we can accelerate the process somehow.


Pay attention to the following transition words which can help you capture the main ideas and examples:
Type of connection Transition words
These words show the order of ideas. First/Second/Third
Firstly (or "First of all")/Secondly/Thirdly (or "Lastly")
For one thing/For another thing/Finally (or "Lastly")
In the first place/in the second place/Finally (or "Lastly")
These words show the addition of information In addition, furthermore, additionally, also, next, moreover, what's more, on top of that
These words shows conclusions. To sum up, in summary, in conclusion, to conclude, all in all, all things considered ,overall, taking everything into consideration, in a nutshell
These words demonstrate contrast Conversely, on the contrary, by contrast, by way of contrast, on one hand/on the other hand
These words compare or demonstrate similarity Similarly, likewise, by the same token, along similar lines
These words show result. As a result, as a consequence, consequently, therefore
These words state a generalization. Generally, on the whole, in most cases, in general
These words clarify a point. That is, in other words, to put it simply, That is to say, just to reiterate
These words give examples. For example, for instance, take something, for example, to give a clear example
These words state an alternative. Alternatively, as another possibility
Tips to Improve TOEFL listening score
NO SKIPPING ANSWERS
Unlike the reading section, in the listening section you CANNOT skip answers and come back. If you skip a question, you will not be able to go back and answer it.

Make an educated guess on questions you are unsure of
When you don't know the answer, try to figure out which choice is most consistent with the main idea of the conversation or lecture. Another way is to eliminate obvious wrong answers.

Don't take more than two minutes to answer a question.
If you spend more than two minutes on a question, you might run out of time. It is not worth it. Leave time for other questions that you have more confidence on. It's better to have an educated guess and move on than it is to miss out on potential easy questions because you ran out of time.
Note-taking tips
Here are symbols you can use in your notes:
SymbolMeaningExamples
=refer to, occur, ..etc A concept that people make choices to describe a situation in a positive or negative way is referred to as word framing
Word framing = ppl describe a situation in ✓ or X way.
Because, as a result of, due to, because, owing to Due to the increasing popularity of e-books, there has been a fall in paper book sales.
∵↑e-books, paper books $↓
Therefore Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would have decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
=>result in, lead to, contribute to, give rise to, cause Carbon dioxide significantly contributes to global warming.
CO => global warming
isn't, doesn't, don't, can't etc. Element 43 has radioactive decay, therefore element 43 doesn't last very long, which means if that ever had been present on earth, it would decayed ages ago.
Elem43 has radioa. decay ∴ it ≠ last long
+many, lots of, a great deal of, etc. Because potatoes have the ability to provide abundant and extremely nutritious food crop, no other crop grew in Northern Europe. As a result, the nutrition of the general population improved tremendously and population soared in the early 1800s.
∵ potatoes /nutri crop/+vitamins => popul↑ in Europe 1800s
++Comparatives Older and more experienced birds who nest in the high density shrub areas have significantly more offspring than those in low density areas, which suggests the choice of where to nest does have an impact on the number of chicks they have.
older birds /nest in high shrub ++offsprings birds/nest in low shrub
+++Superlatives What was even more surprising were all the large organisms that lived down there. The most distinctive of these was something called the tube worm. Here, let me show you a picture. The tube of the tube worm is really, really long. They can be up to one and half meters long, and these tubes are attached to the ocean floor, pretty weird looking, huh?
! +++special = tube warm /long/tubes attached to ocean floor
-Little, few, lack ,in short of/ be in shortage of, etc. As I said the monsoon migrated itself, so there was less rain in the Sahara. The land started to get drier, which in turn caused huge decreases in the amount of vegetation, because vegetation doesn't grow as well in dry soil, right? And then, less vegetation means the soil can't hold water and the soil loses its ability to retain water when it does rain. So then you have less moisture to help clouds form, nothing to evaporate for cloud formation.
- rain in Sahara
land ++dry => vegetation↓
--vegetation => soil ≠ hold water => -water to form cloud
!Important, interesting But what's particularly interesting about these volcanoes is that most of the volcanoes here on Earth are not shield volcanoes. Instead, they are other volcano types, like strata volcanoes, for example, which are a result of tectonic plate movement.
! volcanoes on earth ≠ shield volcanoes = strata volcanoes
tectonic plate => volcanoes on earth

Other symbols:
SymbolMeaning
&And, also, in addition, etc.
~ about/around, approximately, etc.
...And so on
$Sales, money, cost
e.g.For example
i.e.That is
xWrong, incorrect, bad, detrimental, negative, etc.
Right, good, positive, etc.
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