- published: 12 Jun 2013
- views: 111269
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This animation provides a general overview of the anatomy of the cochlea. It was created using 3ds Max, Premier Pro, After Effects, Garage Band, and Sound Booth.
In my 2-Minute Neuroscience videos I simplistically explain neuroscience topics in 2 minutes or less. In this video, I discuss the cochlea. I describe the passage of sound waves through the ear, which leads to the depression of the oval window, a structure found in the wall of the cochlea. I cover the three main cavities in the cochlea: the scala vestibuli, scala media, and scala tympani. Then I describe how the movement of fluid in the cochlea causes movement of the basilar membrane, which activates hair cells in the organ of Corti. The hair cells transmit the auditory information to the vestibulocochlear nerve, which carries it to the brain to be processed.
TRANSCRIPT:
Welcome to 2 minute neuroscience, where I simplistically explain neuroscience topics in 2 minutes or less. In this installment I will discuss the cochlea
When sound waves travel through the canal of our ear, they hit the tympanic membrane or eardrum and cause it to vibrate. This vibration prompts movement in the ossicles, a trio of tiny bones that transmit the vibration to a structure called the oval window, which sits in the wall of the cochlea. The cochlea is a tiny coiled structure in the inner ear that resembles a snail shell.
The interior of the cochlea consists of three fluid-filled canals that run parallel to one another: the scala vestibuli, the scala media, and the scala tympani. The scala vestibuli and scala tympani contain a fluid called perilymph and the scala media contains a fluid called endolymph. When the oval window is depressed by the ossicles it creates waves that travel through the fluid of the cochlea, and these waves cause a structure called the basilar membrane to move as well.
To visualize the function of the basilar membrane it can be helpful to imagine the cochlea uncoiled. When waves flow through the fluid in the cochlea, they create small waves within the basilar membrane itself that travel down the membrane. Different sections of the basilar membrane respond to different frequencies of sound and as the waves progress down the membrane, they reach their peak at the part of the membrane that responds to the frequency of the sound wave created by the original stimulus. In this way, the basilar membrane accurately translates the frequency of sounds picked up by the ear into representative neural activity that can be sent to the brain.
The translation of the movement of the basilar membrane into electrical impulses occurs in the organ of Corti, which is the receptor organ of the ear. It sits atop the basilar membrane and contains receptor cells known as hair cells. Hair cells are so named because protruding from the top of each cell is a collection of small "hairs" called stereocilia. When the basilar membrane vibrates, this causes movement of the hair cells and their stereocilia; movement of the stereocilia opens ion channels and causes the release of neurotransmitters to propagate the auditory signal to the vestibulocochlear nerve, which will carry the information regarding the auditory stimulus to the brain to be analyzed and perceived.
- published: 19 Jun 2015
- views: 10941
This animation shows the various structures of the ear and the process of hearing.
- published: 22 Aug 2012
- views: 24969
This video was produced to help students of human anatomy at Modesto Junior College study our anatomical models.
- published: 18 Nov 2008
- views: 213896
Cochlear implant surgery at Thomas Jefferson University - by Gregory J. Artz M.D.
- published: 26 Apr 2013
- views: 107787
You may license this video royalty free by contacting us at http://www.javitz3d.com
Many of us take for granted a very extraordinary ogan... our ears. To understand the ear, we need to understand what sound is.
The speakers you are listening to right now are vibrating...flexing in and out causing a wave of pressure through the air
The frequency of these waves, or the speed at which the sound creating surface moves back and forth affects the pitch of the sound. The level of air pressure in each wave is directly related to how loud the sound is.
The outer part of our ear catches these waves. It faces forward and has a specially designed structure of curves helping us to determine the direction of sound, and emphasize frequencies used in human speech
Now that the sound waves are caught, they travel through the ear canal and strike against our eardrum...a thin membrane about 10 mm wide.
Now that we received the sound, the middle ear transfers this energy.
The smallest bones in your body, the Malleus, Incus, and Stapes start in motion.
The Malleus is attached to the eardrum, and as the sound travels along the force is amplified by leverage until it arrives at the Stapes which acts like a reverse piston creating waves in the fluid of the inner ear.
The most significant increase in pressure is caused by pneumatic amplification. The face of the stapes has a surface area of 3.2 square mm, while the eardrum has a surface area of 55 square mm. Using this, along with leverage through the Malleus and Incus, the final pressure is 22 times greater than when the sound first arrived.
Now we come to the most complicated part of hearing... the Cochlea. In reality, it is coiled up, but it is easyer to understand straightned out.
There are actually three chambers inside, but lets take a look at the central part.
The stapes is cuasing pressure waves to travel through the structure. Along the inside wall is about 20-30k reed like fibers. As the waves move along they encounter fibers with the correct resonant frequency and energy is released.
These fibers aren't actually what give us the signal that we heard something. There is a special structure next to these fibers containing hair cells. When the hair fibers resonate, they cause the hair cells to move, which then sends an electrical impulse to the cochlear nerve, and on to the brain. Certain pitches of sound will resonate in specific locations, and louder sounds will cause more hair cells to move.
Our brain interprets all this raw data, making it possible to enjoy things like music, or an engaging conversation.
Just to think that all of this is happening in your head right now at full speed.
And not just one, but two of these sophisticated instruments are giving you the amazing sense of hearing. This is just one of the amazing systems found in the human body that go far beyond our humble human understanding.
- published: 15 Jun 2012
- views: 698709
This animation may be used, copied, and distributed, without modification and with the foregoing copyright notice included, for non-commercial scientific or educational purposes only; any other use requires the written permission of Howard Hughes Medical Institute (contact bricken@hhmi.org).
- published: 02 Dec 2006
- views: 228912
Chapter 13
Seeley’s Principles of Anatomy and Physiology (2nd edition 2012)
A Courtesy of "Philip Tate"
- published: 02 May 2015
- views: 1754
The Cochlea
Were the cochlea uncoiled it would be a continuous tube divided into three separate compartments-the scala media, the scala tympani and the scala vestibuli. Sound waves are transmitted in the scala vestibuli and reach the organ of Corti on the basilar membrane, where they stimulate hairlike receptors, whose tips are fixed in the tectorial membrane.
- published: 03 Aug 2007
- views: 80484
Cochlea
The cochlea /ˈkɒk.lɪə/ (Ancient Greek: κοχλίας, kōhlias, meaning spiral or snail shell) is the auditory portion of the inner ear. It is a spiral-shaped cavity in the bony labyrinth, in humans making 2.5 turns around its axis, the modiolus. A core component of the cochlea is the Organ of Corti, the sensory organ of hearing, which is distributed along the partition separating fluid chambers in the coiled tapered tube of the cochlea. The name is derived from the Latin word for snail shell, which in turn is from the Greek κοχλίας kokhlias ("snail, screw"), from κόχλος kokhlos ("spiral shell") in reference to its coiled shape; the cochlea is coiled in mammals with the exception of monotremes.
Structure
The cochlea (plural is cochleae) is a spiralled, hollow, conical chamber of bone, in which waves propagate from the base (near the middle ear and the oval window) to the apex (the top or center of the spiral). Rosenthal's canal or the spiral canal of the cochlea is a section of the bony labyrinth of the inner ear that is approximately 30 mm long and makes 2¾ turns about the modiolus. The cochlear structures include:
This page contains text from Wikipedia, the Free Encyclopedia -
https://wn.com/Cochlea
This article is licensed under the Creative Commons Attribution-ShareAlike 3.0 Unported License, which means that you can copy and modify it as long as the entire work (including additions) remains under this license.
This article is licensed under the Creative Commons Attribution-ShareAlike 3.0 Unported License, which means that you can copy and modify it as long as the entire work (including additions) remains under this license.
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5:14The Human Cochlea
The Human CochleaThe Human Cochlea
This animation provides a general overview of the anatomy of the cochlea. It was created using 3ds Max, Premier Pro, After Effects, Garage Band, and Sound Booth. -
2:022-Minute Neuroscience: The Cochlea
2-Minute Neuroscience: The Cochlea2-Minute Neuroscience: The Cochlea
In my 2-Minute Neuroscience videos I simplistically explain neuroscience topics in 2 minutes or less. In this video, I discuss the cochlea. I describe the passage of sound waves through the ear, which leads to the depression of the oval window, a structure found in the wall of the cochlea. I cover the three main cavities in the cochlea: the scala vestibuli, scala media, and scala tympani. Then I describe how the movement of fluid in the cochlea causes movement of the basilar membrane, which activates hair cells in the organ of Corti. The hair cells transmit the auditory information to the vestibulocochlear nerve, which carries it to the brain to be processed. TRANSCRIPT: Welcome to 2 minute neuroscience, where I simplistically explain neuroscience topics in 2 minutes or less. In this installment I will discuss the cochlea When sound waves travel through the canal of our ear, they hit the tympanic membrane or eardrum and cause it to vibrate. This vibration prompts movement in the ossicles, a trio of tiny bones that transmit the vibration to a structure called the oval window, which sits in the wall of the cochlea. The cochlea is a tiny coiled structure in the inner ear that resembles a snail shell. The interior of the cochlea consists of three fluid-filled canals that run parallel to one another: the scala vestibuli, the scala media, and the scala tympani. The scala vestibuli and scala tympani contain a fluid called perilymph and the scala media contains a fluid called endolymph. When the oval window is depressed by the ossicles it creates waves that travel through the fluid of the cochlea, and these waves cause a structure called the basilar membrane to move as well. To visualize the function of the basilar membrane it can be helpful to imagine the cochlea uncoiled. When waves flow through the fluid in the cochlea, they create small waves within the basilar membrane itself that travel down the membrane. Different sections of the basilar membrane respond to different frequencies of sound and as the waves progress down the membrane, they reach their peak at the part of the membrane that responds to the frequency of the sound wave created by the original stimulus. In this way, the basilar membrane accurately translates the frequency of sounds picked up by the ear into representative neural activity that can be sent to the brain. The translation of the movement of the basilar membrane into electrical impulses occurs in the organ of Corti, which is the receptor organ of the ear. It sits atop the basilar membrane and contains receptor cells known as hair cells. Hair cells are so named because protruding from the top of each cell is a collection of small "hairs" called stereocilia. When the basilar membrane vibrates, this causes movement of the hair cells and their stereocilia; movement of the stereocilia opens ion channels and causes the release of neurotransmitters to propagate the auditory signal to the vestibulocochlear nerve, which will carry the information regarding the auditory stimulus to the brain to be analyzed and perceived. -
1:31Hearing and the Cochlea
Hearing and the CochleaHearing and the Cochlea
This animation shows the various structures of the ear and the process of hearing. -
3:18Cochlea Model
Cochlea ModelCochlea Model
This video was produced to help students of human anatomy at Modesto Junior College study our anatomical models. -
3:47Cochlear Implant Surgery Thomas Jefferson
Cochlear Implant Surgery Thomas JeffersonCochlear Implant Surgery Thomas Jefferson
Cochlear implant surgery at Thomas Jefferson University - by Gregory J. Artz M.D. -
3:26How the ear works
How the ear worksHow the ear works
You may license this video royalty free by contacting us at http://www.javitz3d.com Many of us take for granted a very extraordinary ogan... our ears. To understand the ear, we need to understand what sound is. The speakers you are listening to right now are vibrating...flexing in and out causing a wave of pressure through the air The frequency of these waves, or the speed at which the sound creating surface moves back and forth affects the pitch of the sound. The level of air pressure in each wave is directly related to how loud the sound is. The outer part of our ear catches these waves. It faces forward and has a specially designed structure of curves helping us to determine the direction of sound, and emphasize frequencies used in human speech Now that the sound waves are caught, they travel through the ear canal and strike against our eardrum...a thin membrane about 10 mm wide. Now that we received the sound, the middle ear transfers this energy. The smallest bones in your body, the Malleus, Incus, and Stapes start in motion. The Malleus is attached to the eardrum, and as the sound travels along the force is amplified by leverage until it arrives at the Stapes which acts like a reverse piston creating waves in the fluid of the inner ear. The most significant increase in pressure is caused by pneumatic amplification. The face of the stapes has a surface area of 3.2 square mm, while the eardrum has a surface area of 55 square mm. Using this, along with leverage through the Malleus and Incus, the final pressure is 22 times greater than when the sound first arrived. Now we come to the most complicated part of hearing... the Cochlea. In reality, it is coiled up, but it is easyer to understand straightned out. There are actually three chambers inside, but lets take a look at the central part. The stapes is cuasing pressure waves to travel through the structure. Along the inside wall is about 20-30k reed like fibers. As the waves move along they encounter fibers with the correct resonant frequency and energy is released. These fibers aren't actually what give us the signal that we heard something. There is a special structure next to these fibers containing hair cells. When the hair fibers resonate, they cause the hair cells to move, which then sends an electrical impulse to the cochlear nerve, and on to the brain. Certain pitches of sound will resonate in specific locations, and louder sounds will cause more hair cells to move. Our brain interprets all this raw data, making it possible to enjoy things like music, or an engaging conversation. Just to think that all of this is happening in your head right now at full speed. And not just one, but two of these sophisticated instruments are giving you the amazing sense of hearing. This is just one of the amazing systems found in the human body that go far beyond our humble human understanding. -
1:12Cochlear animation
Cochlear animationCochlear animation
This animation may be used, copied, and distributed, without modification and with the foregoing copyright notice included, for non-commercial scientific or educational purposes only; any other use requires the written permission of Howard Hughes Medical Institute (contact bricken@hhmi.org). -
1:16effect of sound waves on cochlear structures
effect of sound waves on cochlear structureseffect of sound waves on cochlear structures
Chapter 13 Seeley’s Principles of Anatomy and Physiology (2nd edition 2012) A Courtesy of "Philip Tate" -
3:0017 DISSECTION OF THE COCHLEA
17 DISSECTION OF THE COCHLEA17 DISSECTION OF THE COCHLEA
-
0:28How the Body Works : The Cochlea
How the Body Works : The CochleaHow the Body Works : The Cochlea
The Cochlea Were the cochlea uncoiled it would be a continuous tube divided into three separate compartments-the scala media, the scala tympani and the scala vestibuli. Sound waves are transmitted in the scala vestibuli and reach the organ of Corti on the basilar membrane, where they stimulate hairlike receptors, whose tips are fixed in the tectorial membrane.
Cochlea
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The Human Cochlea
This animation provides a general overview of the anatomy of the cochlea. It was created using 3ds Max, Premier Pro, After Effects, Garage Band, and Sound Booth.
published: 12 Jun 2013 -
2-Minute Neuroscience: The Cochlea
In my 2-Minute Neuroscience videos I simplistically explain neuroscience topics in 2 minutes or less. In this video, I discuss the cochlea. I describe the passage of sound waves through the ear, which leads to the depression of the oval window, a structure found in the wall of the cochlea. I cover the three main cavities in the cochlea: the scala vestibuli, scala media, and scala tympani. Then I describe how the movement of fluid in the cochlea causes movement of the basilar membrane, which activates hair cells in the organ of Corti. The hair cells transmit the auditory information to the vestibulocochlear nerve, which carries it to the brain to be processed. TRANSCRIPT: Welcome to 2 minute neuroscience, where I simplistically explain neuroscience topics in 2 minutes or less. In this ins...
published: 19 Jun 2015 -
Hearing and the Cochlea
This animation shows the various structures of the ear and the process of hearing.
published: 22 Aug 2012 -
Cochlea Model
This video was produced to help students of human anatomy at Modesto Junior College study our anatomical models.
published: 18 Nov 2008 -
Cochlear Implant Surgery Thomas Jefferson
Cochlear implant surgery at Thomas Jefferson University - by Gregory J. Artz M.D.
published: 26 Apr 2013 -
How the ear works
You may license this video royalty free by contacting us at http://www.javitz3d.com Many of us take for granted a very extraordinary ogan... our ears. To understand the ear, we need to understand what sound is. The speakers you are listening to right now are vibrating...flexing in and out causing a wave of pressure through the air The frequency of these waves, or the speed at which the sound creating surface moves back and forth affects the pitch of the sound. The level of air pressure in each wave is directly related to how loud the sound is. The outer part of our ear catches these waves. It faces forward and has a specially designed structure of curves helping us to determine the direction of sound, and emphasize frequencies used in human speech Now that the sound waves are caught, ...
published: 15 Jun 2012 -
Cochlear animation
This animation may be used, copied, and distributed, without modification and with the foregoing copyright notice included, for non-commercial scientific or educational purposes only; any other use requires the written permission of Howard Hughes Medical Institute (contact bricken@hhmi.org).
published: 02 Dec 2006 -
effect of sound waves on cochlear structures
Chapter 13 Seeley’s Principles of Anatomy and Physiology (2nd edition 2012) A Courtesy of "Philip Tate"
published: 02 May 2015 -
17 DISSECTION OF THE COCHLEA
published: 28 Jun 2016 -
How the Body Works : The Cochlea
The Cochlea Were the cochlea uncoiled it would be a continuous tube divided into three separate compartments-the scala media, the scala tympani and the scala vestibuli. Sound waves are transmitted in the scala vestibuli and reach the organ of Corti on the basilar membrane, where they stimulate hairlike receptors, whose tips are fixed in the tectorial membrane.
published: 03 Aug 2007
The Human Cochlea
- Order: Reorder
- Duration: 5:14
- Updated: 12 Jun 2013
- views: 111269
This animation provides a general overview of the anatomy of the cochlea. It was created using 3ds Max, Premier Pro, After Effects, Garage Band, and Sound Booth...
This animation provides a general overview of the anatomy of the cochlea. It was created using 3ds Max, Premier Pro, After Effects, Garage Band, and Sound Booth.
https://wn.com/The_Human_Cochlea
This animation provides a general overview of the anatomy of the cochlea. It was created using 3ds Max, Premier Pro, After Effects, Garage Band, and Sound Booth.
- published: 12 Jun 2013
- views: 111269
2-Minute Neuroscience: The Cochlea
- Order: Reorder
- Duration: 2:02
- Updated: 19 Jun 2015
- views: 10941
In my 2-Minute Neuroscience videos I simplistically explain neuroscience topics in 2 minutes or less. In this video, I discuss the cochlea. I describe the passa...
In my 2-Minute Neuroscience videos I simplistically explain neuroscience topics in 2 minutes or less. In this video, I discuss the cochlea. I describe the passage of sound waves through the ear, which leads to the depression of the oval window, a structure found in the wall of the cochlea. I cover the three main cavities in the cochlea: the scala vestibuli, scala media, and scala tympani. Then I describe how the movement of fluid in the cochlea causes movement of the basilar membrane, which activates hair cells in the organ of Corti. The hair cells transmit the auditory information to the vestibulocochlear nerve, which carries it to the brain to be processed.
TRANSCRIPT:
Welcome to 2 minute neuroscience, where I simplistically explain neuroscience topics in 2 minutes or less. In this installment I will discuss the cochlea
When sound waves travel through the canal of our ear, they hit the tympanic membrane or eardrum and cause it to vibrate. This vibration prompts movement in the ossicles, a trio of tiny bones that transmit the vibration to a structure called the oval window, which sits in the wall of the cochlea. The cochlea is a tiny coiled structure in the inner ear that resembles a snail shell.
The interior of the cochlea consists of three fluid-filled canals that run parallel to one another: the scala vestibuli, the scala media, and the scala tympani. The scala vestibuli and scala tympani contain a fluid called perilymph and the scala media contains a fluid called endolymph. When the oval window is depressed by the ossicles it creates waves that travel through the fluid of the cochlea, and these waves cause a structure called the basilar membrane to move as well.
To visualize the function of the basilar membrane it can be helpful to imagine the cochlea uncoiled. When waves flow through the fluid in the cochlea, they create small waves within the basilar membrane itself that travel down the membrane. Different sections of the basilar membrane respond to different frequencies of sound and as the waves progress down the membrane, they reach their peak at the part of the membrane that responds to the frequency of the sound wave created by the original stimulus. In this way, the basilar membrane accurately translates the frequency of sounds picked up by the ear into representative neural activity that can be sent to the brain.
The translation of the movement of the basilar membrane into electrical impulses occurs in the organ of Corti, which is the receptor organ of the ear. It sits atop the basilar membrane and contains receptor cells known as hair cells. Hair cells are so named because protruding from the top of each cell is a collection of small "hairs" called stereocilia. When the basilar membrane vibrates, this causes movement of the hair cells and their stereocilia; movement of the stereocilia opens ion channels and causes the release of neurotransmitters to propagate the auditory signal to the vestibulocochlear nerve, which will carry the information regarding the auditory stimulus to the brain to be analyzed and perceived.
https://wn.com/2_Minute_Neuroscience_The_Cochlea
In my 2-Minute Neuroscience videos I simplistically explain neuroscience topics in 2 minutes or less. In this video, I discuss the cochlea. I describe the passage of sound waves through the ear, which leads to the depression of the oval window, a structure found in the wall of the cochlea. I cover the three main cavities in the cochlea: the scala vestibuli, scala media, and scala tympani. Then I describe how the movement of fluid in the cochlea causes movement of the basilar membrane, which activates hair cells in the organ of Corti. The hair cells transmit the auditory information to the vestibulocochlear nerve, which carries it to the brain to be processed.
TRANSCRIPT:
Welcome to 2 minute neuroscience, where I simplistically explain neuroscience topics in 2 minutes or less. In this installment I will discuss the cochlea
When sound waves travel through the canal of our ear, they hit the tympanic membrane or eardrum and cause it to vibrate. This vibration prompts movement in the ossicles, a trio of tiny bones that transmit the vibration to a structure called the oval window, which sits in the wall of the cochlea. The cochlea is a tiny coiled structure in the inner ear that resembles a snail shell.
The interior of the cochlea consists of three fluid-filled canals that run parallel to one another: the scala vestibuli, the scala media, and the scala tympani. The scala vestibuli and scala tympani contain a fluid called perilymph and the scala media contains a fluid called endolymph. When the oval window is depressed by the ossicles it creates waves that travel through the fluid of the cochlea, and these waves cause a structure called the basilar membrane to move as well.
To visualize the function of the basilar membrane it can be helpful to imagine the cochlea uncoiled. When waves flow through the fluid in the cochlea, they create small waves within the basilar membrane itself that travel down the membrane. Different sections of the basilar membrane respond to different frequencies of sound and as the waves progress down the membrane, they reach their peak at the part of the membrane that responds to the frequency of the sound wave created by the original stimulus. In this way, the basilar membrane accurately translates the frequency of sounds picked up by the ear into representative neural activity that can be sent to the brain.
The translation of the movement of the basilar membrane into electrical impulses occurs in the organ of Corti, which is the receptor organ of the ear. It sits atop the basilar membrane and contains receptor cells known as hair cells. Hair cells are so named because protruding from the top of each cell is a collection of small "hairs" called stereocilia. When the basilar membrane vibrates, this causes movement of the hair cells and their stereocilia; movement of the stereocilia opens ion channels and causes the release of neurotransmitters to propagate the auditory signal to the vestibulocochlear nerve, which will carry the information regarding the auditory stimulus to the brain to be analyzed and perceived.
- published: 19 Jun 2015
- views: 10941
Hearing and the Cochlea
- Order: Reorder
- Duration: 1:31
- Updated: 22 Aug 2012
- views: 24969
This animation shows the various structures of the ear and the process of hearing.
This animation shows the various structures of the ear and the process of hearing.
https://wn.com/Hearing_And_The_Cochlea
This animation shows the various structures of the ear and the process of hearing.
- published: 22 Aug 2012
- views: 24969
Cochlea Model
- Order: Reorder
- Duration: 3:18
- Updated: 18 Nov 2008
- views: 213896
This video was produced to help students of human anatomy at Modesto Junior College study our anatomical models.
This video was produced to help students of human anatomy at Modesto Junior College study our anatomical models.
https://wn.com/Cochlea_Model
This video was produced to help students of human anatomy at Modesto Junior College study our anatomical models.
- published: 18 Nov 2008
- views: 213896
Cochlear Implant Surgery Thomas Jefferson
- Order: Reorder
- Duration: 3:47
- Updated: 26 Apr 2013
- views: 107787
Cochlear implant surgery at Thomas Jefferson University - by Gregory J. Artz M.D.
- published: 26 Apr 2013
- views: 107787
How the ear works
- Order: Reorder
- Duration: 3:26
- Updated: 15 Jun 2012
- views: 698709
You may license this video royalty free by contacting us at http://www.javitz3d.com
Many of us take for granted a very extraordinary ogan... our ears. To under...
You may license this video royalty free by contacting us at http://www.javitz3d.com
Many of us take for granted a very extraordinary ogan... our ears. To understand the ear, we need to understand what sound is.
The speakers you are listening to right now are vibrating...flexing in and out causing a wave of pressure through the air
The frequency of these waves, or the speed at which the sound creating surface moves back and forth affects the pitch of the sound. The level of air pressure in each wave is directly related to how loud the sound is.
The outer part of our ear catches these waves. It faces forward and has a specially designed structure of curves helping us to determine the direction of sound, and emphasize frequencies used in human speech
Now that the sound waves are caught, they travel through the ear canal and strike against our eardrum...a thin membrane about 10 mm wide.
Now that we received the sound, the middle ear transfers this energy.
The smallest bones in your body, the Malleus, Incus, and Stapes start in motion.
The Malleus is attached to the eardrum, and as the sound travels along the force is amplified by leverage until it arrives at the Stapes which acts like a reverse piston creating waves in the fluid of the inner ear.
The most significant increase in pressure is caused by pneumatic amplification. The face of the stapes has a surface area of 3.2 square mm, while the eardrum has a surface area of 55 square mm. Using this, along with leverage through the Malleus and Incus, the final pressure is 22 times greater than when the sound first arrived.
Now we come to the most complicated part of hearing... the Cochlea. In reality, it is coiled up, but it is easyer to understand straightned out.
There are actually three chambers inside, but lets take a look at the central part.
The stapes is cuasing pressure waves to travel through the structure. Along the inside wall is about 20-30k reed like fibers. As the waves move along they encounter fibers with the correct resonant frequency and energy is released.
These fibers aren't actually what give us the signal that we heard something. There is a special structure next to these fibers containing hair cells. When the hair fibers resonate, they cause the hair cells to move, which then sends an electrical impulse to the cochlear nerve, and on to the brain. Certain pitches of sound will resonate in specific locations, and louder sounds will cause more hair cells to move.
Our brain interprets all this raw data, making it possible to enjoy things like music, or an engaging conversation.
Just to think that all of this is happening in your head right now at full speed.
And not just one, but two of these sophisticated instruments are giving you the amazing sense of hearing. This is just one of the amazing systems found in the human body that go far beyond our humble human understanding.
https://wn.com/How_The_Ear_Works
You may license this video royalty free by contacting us at http://www.javitz3d.com
Many of us take for granted a very extraordinary ogan... our ears. To understand the ear, we need to understand what sound is.
The speakers you are listening to right now are vibrating...flexing in and out causing a wave of pressure through the air
The frequency of these waves, or the speed at which the sound creating surface moves back and forth affects the pitch of the sound. The level of air pressure in each wave is directly related to how loud the sound is.
The outer part of our ear catches these waves. It faces forward and has a specially designed structure of curves helping us to determine the direction of sound, and emphasize frequencies used in human speech
Now that the sound waves are caught, they travel through the ear canal and strike against our eardrum...a thin membrane about 10 mm wide.
Now that we received the sound, the middle ear transfers this energy.
The smallest bones in your body, the Malleus, Incus, and Stapes start in motion.
The Malleus is attached to the eardrum, and as the sound travels along the force is amplified by leverage until it arrives at the Stapes which acts like a reverse piston creating waves in the fluid of the inner ear.
The most significant increase in pressure is caused by pneumatic amplification. The face of the stapes has a surface area of 3.2 square mm, while the eardrum has a surface area of 55 square mm. Using this, along with leverage through the Malleus and Incus, the final pressure is 22 times greater than when the sound first arrived.
Now we come to the most complicated part of hearing... the Cochlea. In reality, it is coiled up, but it is easyer to understand straightned out.
There are actually three chambers inside, but lets take a look at the central part.
The stapes is cuasing pressure waves to travel through the structure. Along the inside wall is about 20-30k reed like fibers. As the waves move along they encounter fibers with the correct resonant frequency and energy is released.
These fibers aren't actually what give us the signal that we heard something. There is a special structure next to these fibers containing hair cells. When the hair fibers resonate, they cause the hair cells to move, which then sends an electrical impulse to the cochlear nerve, and on to the brain. Certain pitches of sound will resonate in specific locations, and louder sounds will cause more hair cells to move.
Our brain interprets all this raw data, making it possible to enjoy things like music, or an engaging conversation.
Just to think that all of this is happening in your head right now at full speed.
And not just one, but two of these sophisticated instruments are giving you the amazing sense of hearing. This is just one of the amazing systems found in the human body that go far beyond our humble human understanding.
- published: 15 Jun 2012
- views: 698709
Cochlear animation
- Order: Reorder
- Duration: 1:12
- Updated: 02 Dec 2006
- views: 228912
This animation may be used, copied, and distributed, without modification and with the foregoing copyright notice included, for non-commercial scientific or edu...
This animation may be used, copied, and distributed, without modification and with the foregoing copyright notice included, for non-commercial scientific or educational purposes only; any other use requires the written permission of Howard Hughes Medical Institute (contact bricken@hhmi.org).
https://wn.com/Cochlear_Animation
This animation may be used, copied, and distributed, without modification and with the foregoing copyright notice included, for non-commercial scientific or educational purposes only; any other use requires the written permission of Howard Hughes Medical Institute (contact bricken@hhmi.org).
- published: 02 Dec 2006
- views: 228912
effect of sound waves on cochlear structures
- Order: Reorder
- Duration: 1:16
- Updated: 02 May 2015
- views: 1754
Chapter 13
Seeley’s Principles of Anatomy and Physiology (2nd edition 2012)
A Courtesy of "Philip Tate"
Chapter 13
Seeley’s Principles of Anatomy and Physiology (2nd edition 2012)
A Courtesy of "Philip Tate"
https://wn.com/Effect_Of_Sound_Waves_On_Cochlear_Structures
Chapter 13
Seeley’s Principles of Anatomy and Physiology (2nd edition 2012)
A Courtesy of "Philip Tate"
- published: 02 May 2015
- views: 1754
17 DISSECTION OF THE COCHLEA
- Order: Reorder
- Duration: 3:00
- Updated: 28 Jun 2016
- views: 6171
- published: 28 Jun 2016
- views: 6171
How the Body Works : The Cochlea
- Order: Reorder
- Duration: 0:28
- Updated: 03 Aug 2007
- views: 80484
The Cochlea
Were the cochlea uncoiled it would be a continuous tube divided into three separate compartments-the scala media, the scala tympani and the scala...
The Cochlea
Were the cochlea uncoiled it would be a continuous tube divided into three separate compartments-the scala media, the scala tympani and the scala vestibuli. Sound waves are transmitted in the scala vestibuli and reach the organ of Corti on the basilar membrane, where they stimulate hairlike receptors, whose tips are fixed in the tectorial membrane.
https://wn.com/How_The_Body_Works_The_Cochlea
The Cochlea
Were the cochlea uncoiled it would be a continuous tube divided into three separate compartments-the scala media, the scala tympani and the scala vestibuli. Sound waves are transmitted in the scala vestibuli and reach the organ of Corti on the basilar membrane, where they stimulate hairlike receptors, whose tips are fixed in the tectorial membrane.
- published: 03 Aug 2007
- views: 80484
- Playlist
- Chat
- Playlist
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5:14
The Human Cochlea
This animation provides a general overview of the anatomy of the cochlea. It was created u...
published: 12 Jun 2013
The Human Cochlea
The Human Cochlea
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- published: 12 Jun 2013
- views: 111269
2:02
2-Minute Neuroscience: The Cochlea
In my 2-Minute Neuroscience videos I simplistically explain neuroscience topics in 2 minut...
published: 19 Jun 2015
2-Minute Neuroscience: The Cochlea
2-Minute Neuroscience: The Cochlea
- Report rights infringement
- published: 19 Jun 2015
- views: 10941
1:31
Hearing and the Cochlea
This animation shows the various structures of the ear and the process of hearing.
published: 22 Aug 2012
Hearing and the Cochlea
Hearing and the Cochlea
- Report rights infringement
- published: 22 Aug 2012
- views: 24969
3:18
Cochlea Model
This video was produced to help students of human anatomy at Modesto Junior College study ...
published: 18 Nov 2008
Cochlea Model
Cochlea Model
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- published: 18 Nov 2008
- views: 213896
3:47
Cochlear Implant Surgery Thomas Jefferson
Cochlear implant surgery at Thomas Jefferson University - by Gregory J. Artz M.D.
published: 26 Apr 2013
Cochlear Implant Surgery Thomas Jefferson
Cochlear Implant Surgery Thomas Jefferson
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- published: 26 Apr 2013
- views: 107787
3:26
How the ear works
You may license this video royalty free by contacting us at http://www.javitz3d.com
Many ...
published: 15 Jun 2012
How the ear works
How the ear works
- Report rights infringement
- published: 15 Jun 2012
- views: 698709
1:12
Cochlear animation
This animation may be used, copied, and distributed, without modification and with the for...
published: 02 Dec 2006
Cochlear animation
Cochlear animation
- Report rights infringement
- published: 02 Dec 2006
- views: 228912
1:16
effect of sound waves on cochlear structures
Chapter 13
Seeley’s Principles of Anatomy and Physiology (2nd edition 2012)
A Courtesy of...
published: 02 May 2015
effect of sound waves on cochlear structures
effect of sound waves on cochlear structures
- Report rights infringement
- published: 02 May 2015
- views: 1754
3:00
17 DISSECTION OF THE COCHLEA
published: 28 Jun 2016
17 DISSECTION OF THE COCHLEA
17 DISSECTION OF THE COCHLEA
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- published: 28 Jun 2016
- views: 6171
0:28
How the Body Works : The Cochlea
The Cochlea
Were the cochlea uncoiled it would be a continuous tube divided into three ...
published: 03 Aug 2007
How the Body Works : The Cochlea
How the Body Works : The Cochlea
- Report rights infringement
- published: 03 Aug 2007
- views: 80484
The Human Cochlea...
2-Minute Neuroscience: The Cochlea...
Hearing and the Cochlea...
Cochlea Model...
Cochlear Implant Surgery Thomas Jefferson...
How the ear works...
Cochlear animation...
effect of sound waves on cochlear structures...
17 DISSECTION OF THE COCHLEA...
How the Body Works : The Cochlea...
See more photos of cochlea
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Lyrics list:lyrics
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Belum Terpisah, Coco Lee
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Reflection, Coco Lee
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Mo Mo Ai Ni (Chinese), Coco Lee
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Rap, Coco Lee
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No Doubt(feat. Blaaze), Coco Lee
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Just No Other Way (To Love Me), Coco Lee
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Gotta Clue(feat. Joon Park (G.o.d)), Coco Lee
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Didadi, Coco Lee
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Did You Really Love Me, Coco Lee
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Dao Ma Dan (Dow Man Dan), Coco Lee
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Belum Terpisah
Melontar kerikil ke sungai
Dan mencinta kitaran air
Yang tak henti mencerminkan dirimu
Supaya terpadam kenanganmu
Namun tidak terluput biar seberkas pun
Sebaliknya wajahmu jadi sejuta ragam
Melamar mesra, mengusik jiwa
Menguris merintih membujuk kasih
Menjaring rindu mengintai waktu
Kala cinta belum terpisah
Kucuba merubah situasi
Dan berlari jauh dari situ
Masih juga kau bermain mesra di mata
back
Mystery Woman With Putin Raises Eyebrows Across Russia
Edit WorldNews.com 14 Jul 2017
Russian President Vladimir Putin took a trip to the northwestern countryside of Russia for a local feast day but many were talking about a brief clip that showed an anonymous pair of animated hands in the back of Putin's black Mercedes, according to Newsweek ... But the new footage showing Putin extending his arm to a mystery backseat passenger before quickly shutting the door to his car has made headline news ... -WN.com, Maureen Foody....
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GOP Donor, Operative Investigating Clinton Emails Found Dead In Hotel Room
Edit WorldNews.com 14 Jul 2017
The Chicago Tribune is reporting a Republican donor and operative from the city’s North Shore region who spoke recently to the Wall Street Journal about his efforts to obtain Hillary Clinton’s missing emails from Russian hackers killed himself in a Minnesota hotel room, public records reveal. Peter W ... In addition, The Journal reported it had seen emails written by Smith showing his team considered retired Lt. Gen ... on Sunday, May 14....
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Chinese Ship Found Lurking In Alaskan Coastal Waters During THAAD Test
Edit WorldNews.com 14 Jul 2017
Multiple officials told CNN a Chinese spy ship has been cruising for several days off the Alaskan coast – arriving shortly before a U.S. missile defense system test. North American Aerospace Defense Command spokesman and U.S. Navy Capt. Scott Miller said the ship is suspected to be a "communications" or "intelligence" vessel and has been in the area for several days. Miller would not speculate the ship’s motives ... U.S ... ....
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Will Smith Cast as Genie in 'Aladdin' Live-Action Film
Edit Rollingstone 15 Jul 2017
Disney confirmed that Will Smith will portray the Genie in the upcoming live-action remake of Aladdin, with the actor taking over the voice role previously filled by Robin Williams in the 1992 animated film.Related. 50 Most Anticipated Movies of 2017. 'Blade Runner,' 'Star Wars' and More ... Let's get to work," Massoud tweeted Saturday ... The Last Jedi. More News. 'Star Wars ... ....
Six-month increase in cochlear implant waiting times
Edit Stuff 08 Jul 2017
The possibility of hearing is steadily getting further away for Kiwis on the waiting list for cochlear implants. Deaf people now have to wait an average of six months or more for the life-changing operation in the north, and three months more if they're south of Taupo ... The implant converts auditory sound waves into weak electric currents, which are delivered to the immediate vicinity of the auditory nerve in the inner ear or cochlea....
The Range Rover’s popular Evoque Convertible is an attention grabber
Edit The National 08 Jul 2017
In the year 2017, there really shouldn’t be stereotypical gender divides in professions, designations or major belongings ... "Here comes the queen" ... When you’re protected from the elements, the road noise is a little more than you might expect from a luxury vehicle, but it’s nothing so serious that it will leave your cochleas reverberating, although you do have to wonder how well the fabric hood will stand up to UAE weather ... ....
Why Do You Hate The Sound Of Your Own Voice When It's Recorded?
Edit IFL Science 29 Jun 2017
Vibration Pathways ... These vibrations then reach the cochlea, which translates them into electrical impulses to then enter the brain via the auditory nerve ... However, when you hear yourself speak, those vibrations also take another, more direct route to the cochlea ... Traveling through these denser structures, the lower-frequency vibrations become enhanced, leading to a significantly deeper sound reaching the cochlea ... How Normal Is It? ... ....
The Range Rover's popular Evoque Convertible is an attention grabber
Edit The National 29 Jun 2017
In the year 2017, there really shouldn't be stereotypical gender divides in professions, designations or major belongings ... "Here comes the queen" ... When you're protected from the elements, the road noise is a little more than you might expect from a luxury vehicle, but it's nothing so serious that it will leave your cochleas reverberating, although you do have to wonder how well the fabric hood will stand up to UAE weather....
Popular Range Rover Evoque Convertible is an attention grabber
Edit The National 28 Jun 2017
In the year 2017, there really shouldn't be stereotypical gender divides in professions, designations or major belongings ... "Here comes the queen" ... When you're protected from the elements, the road noise is a little more than you might expect from a luxury vehicle, but it's nothing so serious that it will leave your cochleas reverberating, although you do have to wonder how well the fabric hood will stand up to UAE weather....
Can't find words? Speak in gestures
Edit Arkansas Online 19 Jun 2017
When we were growing up in New York, the Italians in our house (that is, all of us) talked with our hands and arms and as well as with our mouths. Some of the gestures simply matched the urgency of a story being told. Others stood alone, with no words needed ... Mom's gestures would say more ... One linguist ... No one knows for sure, but one theory is that "cockles" comes from the Latin phrase for the heart's ventricles, the "cochleae cordis."...
Listen very Caerphilly! How cheese boosts your hearing with a chemical compound that could cure deafness
Edit This is Money 11 Jun 2017MNH Specialists Start Restoring Hearing Problem in Children
Edit All Africa 08 Jun 2017
[Citizen] Dar es Salaam -Tanzania becomes the second country in East African Community after Kenya to carry out cochlea implantation ... ....
Tanzania: MNH Specialists Start Restoring Hearing Problem in Children
Edit All Africa 08 Jun 2017
[Citizen] Dar es Salaam -Tanzania becomes the second country in East African Community after Kenya to carry out cochlea implantation ... ....
Over 1,500 senior citizens with disabilities to get aids
Edit The Times of India 05 Jun 2017
Nagpur. The Union Ministry of Social Justice and Empowerment is going to distribute various types of aids (hearing machines, crutches, wheelchairs) to senior citizens of the city below poverty line under the scheme of Rashtriya Vayoshri Yojana ... As their government and children, we wish to help them." ... It is indeed a proud moment." He also mentioned that recently 800 kids received the cochlea transplant and were now able to hear properly....
Bionic Ears Market, market research reports, market insights, future market insights
Edit Community news 30 May 2017
Standard hearing aid devices work by amplifying sound, but it is only useful for people with the partial hearing loss not for people who are deaf or have profoundly impaired hearing. Hearing loss is associated with the damage or other abnormalities in the tiny censor hair cells present inside the cochlea or inner ear. To overcome such conditions bionic ears are used ... Bionic Ears Market. Drivers and Restraints ... Bionic Ears Market ... ... Ltd ... ... ....
Diabetes mellitus and hearing
Edit Graphic 25 May 2017
SNHL comprises the cochlea and/or auditory nerve (Gelfand, 2009). The cochlea is the organ of hearing and forms part of the inner ear ... Hearing loss as a result of disease of the cochlea is termed sensory hearing loss ... Spiral ganglion is a group of nerve cells that serve the sense of hearing by sending a representation of sound from the cochlea to the brain....
Cotton Swabs Send Dozens of Kids to the ER Every Day
Edit Mercola 24 May 2017
It can be particularly dangerous for children ... What’s Behind the Drum? ... When sound hits this membrane, it begins to vibrate, transmitting sound waves into the middle ear.1 These waves cause three small bones in the middle ear to vibrate, transmitting the sound to a fluid-filled cochlea. Tiny hairs in the cochlea pick up the sound waves and transmit this information to your auditory nerve, which communicates the data to your brain ... ....
Rare Disease Report® Highlights Dr. Freyer on Hearing Loss Caused by Chemotherapy Agent During a Recent Interview
Edit Market Watch 24 May 2017
Recent news identified cisplatin, a common chemotherapy agent, as a cause of hearing loss in children and adults undergoing chemotherapy. During the interview, Dr ... Dr. Freyer said, “The damage is caused by chemotherapy itself and free radicals, or superoxide ions that damage the hearing apparatus in the cochlea.” He added, “Sodium thiosulfate is a scavenger that inactivates those damaging substances produced by the cisplatin.” ... SOURCE....
The Moonbears
Edit The Quietus 18 May 2017
The world has soiled its collective britches. Newspaper headlines outshine dystopian fiction for sleep-stealing scenarios. The trolls have crawled out from under the bridge and taken control of the political mainframe ... In the absence of solutions to all these problems, I’ll take a warm, meaningful embrace in their place ... The Moonbears don’t deal in cochlea-scouring noise, in cave-quaking beats or thesaurus-burning braggadocio ... ....
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