the cochlea convents vibrations into electrical sound
A loudspeaker changes electrical energy into sound energy by converting the electrical signal into vibrations that move the speaker cone and produce sound waves.
A microphone converts sound vibrations into electrical impulses by using a diaphragm that moves in response to sound waves. This movement is transformed into an electrical signal by a transducer, such as a coil or condenser, which generates a voltage proportional to the sound waves.
You can hear vibrations by detecting the movement of air particles caused by sound waves. Your ears capture these vibrations and convert them into electrical signals that your brain interprets as sound.
Loudspeakers produce sound by converting electrical signals into mechanical vibrations through a cone or diaphragm. These vibrations create sound waves in the air that are perceived as sound by our ears. The movements of the cone or diaphragm correspond to the variations in the electrical signal, reproducing the original sound.
Sound is turned into electrical signals by a device called a microphone. Microphones convert sound vibrations into electrical impulses that can then be processed or recorded by various electronic devices.
By changing the electrical energy into sound energy and creating vibrations in the air.
the cochlea convents vibrations into electrical sound
When you strum a guitar, the vibrations create sound. You can manipulate the sound by changing the vibrations.
A loudspeaker changes electrical energy into sound energy by converting the electrical signal into vibrations that move the speaker cone and produce sound waves.
A microphone is a device that converts sound vibrations into electrical signals in a telephone. When you speak into a phone, the microphone picks up the sound waves and converts them into electrical signals that can be transmitted through the telephone system.
A microphone converts sound vibrations into electrical impulses by using a diaphragm that moves in response to sound waves. This movement is transformed into an electrical signal by a transducer, such as a coil or condenser, which generates a voltage proportional to the sound waves.
You can hear vibrations by detecting the movement of air particles caused by sound waves. Your ears capture these vibrations and convert them into electrical signals that your brain interprets as sound.
Sound waves enter through the outer ear, then sound waves move through the ear canal. Next sound waves strike the eardrum, causing it to vibrate, then vibrations enter the middle ear. Then the hammer picks up the vibrations, then vibrations are passed to the anvil. Next the vibrations are transmitted to the stirrup, then a vibrating membrane transmits vibrations to the inner ear, and then vibrations are channeled into the cochlea. Then nerve cells detect vibrations and convert them to electrical impulses, then electrical impulses are transmitted to the brain. Then the brain interprets electrical impulses as sound.
The cochlea turns vibrations into electrical signals that are then sent to the brain via the auditory nerve. These electrical signals are interpreted by the brain as sound.
The cochlea, which is a spiral-shaped structure in the inner ear, is responsible for changing vibrations into nerve signals. Inside the cochlea, specialized hair cells convert the mechanical vibrations of sound waves into electrical signals that can be interpreted by the brain.
Loudspeakers produce sound by converting electrical signals into mechanical vibrations through a cone or diaphragm. These vibrations create sound waves in the air that are perceived as sound by our ears. The movements of the cone or diaphragm correspond to the variations in the electrical signal, reproducing the original sound.
Sound is turned into electrical signals by a device called a microphone. Microphones convert sound vibrations into electrical impulses that can then be processed or recorded by various electronic devices.