hair cells are located within the organ of Corti on a thin basilar membrane in the cochlea of the inner ear. They derive their name from the tufts of stereocilia that protrude from the apical surface of the cell, a structure known as the hair bundle, into the scala media, a fluid-filled tube within the cochlea. Mammalian cochlear hair cells come in two anatomically and functionally distinct types: the outer and inner hair cells. Damage to these hair cells results in decreased hearing sensitivity, i.e. sensorineural hearing loss.
The hairs in the cochlea help convert sound vibrations into electrical signals that the brain can interpret as sound. When sound waves enter the cochlea, they cause the hairs to move, triggering nerve impulses that are sent to the brain for processing. This allows us to hear and distinguish different sounds.
The hairs in your ear are located in the cochlea, which is a spiral-shaped structure in the inner ear. These hairs help to detect sound vibrations and send signals to the brain for processing.
Tiny hairs in your ear conduct vibration and convey that to your brain
cochlea
The hair cells in the cochlea of the inner ear are the sensory receptors for hearing. These hair cells are activated by vibrations in the fluid of the cochlea, which are caused by sound waves traveling through the ear. When the hair cells bend in response to the vibrations, they send electrical signals to the brain, which are then interpreted as sound.
The hairs in the cochlea help convert sound vibrations into electrical signals that the brain can interpret as sound. When sound waves enter the cochlea, they cause the hairs to move, triggering nerve impulses that are sent to the brain for processing. This allows us to hear and distinguish different sounds.
The inner ear or the cochlea
The hairs in your ear are located in the cochlea, which is a spiral-shaped structure in the inner ear. These hairs help to detect sound vibrations and send signals to the brain for processing.
The stirrup hits the cochlea and it sends waves through the liquid inside of it. These waves move the tiny hairs at the start of the auditory nerve. The hairs use the auditory nerve to make a cricket noise in your ear to send the vibrations to the brain.
The hair cells inside the cochlea are of varying lengths to detect different frequencies of sound. Shorter hairs are sensitive to high-frequency sounds, while longer hairs are sensitive to low-frequency sounds. This organization allows us to perceive a wide range of pitches.
When sound vibrations bend hairs on the cochlea, it triggers an electrical signal to be sent to the brain via the auditory nerve. The brain then interprets this signal as sound, allowing us to perceive and recognize different sounds.
In the inner ear, is a spiral organ called the cochlea, and this liquid filled organ is tapered and along its length are a large number of small sensory hairs. These small hairs cause a signal to be generated in the cell supporting the hair and this we interpret as sound.
i think it is the cochlea
the cells which receive the signal receive "mechanical stimulation". As fluid waves, propagated when sound waves interact with the ear, travel through the cochlea tiny hairs are moved, smaller/stiffer hairs moved = higher pitch, longer/looser hairs moved = lower pitch.
the grasshoppers ears are located next to their eyes
Tiny hairs in your ear conduct vibration and convey that to your brain
The cochlea is not a bone. It is a fluid filled tube in the ear that has tiny hairs. When a vibration, or sound, travels through the cochlea, the hairs move, which triggers nerves connected to the base of each hair to send a signal to the brain, allowing us to perceive sounds. However, there are two tiny bones in the ear which transmit vibrations from the eardrum to the cochlea. These bones are referred to as the hammer, the anvil and the stirrup.