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  2. Basilar membrane - Wikipedia

    en.wikipedia.org/wiki/Basilar_membrane

    The basilar membrane is widest (0.42–0.65 mm) and least stiff at the apex of the cochlea, and narrowest (0.08–0.16 mm) and stiffest at the base (near the round and oval windows). [3] High-frequency sounds localize near the base of the cochlea, while low-frequency sounds localize near the apex.

  3. Cochlea - Wikipedia

    en.wikipedia.org/wiki/Cochlea

    The farther a wave travels towards the cochlea's apex (the helicotrema), the less stiff the basilar membrane is; thus lower frequencies travel down the tube, and the less-stiff membrane is moved most easily by them where the reduced stiffness allows: that is, as the basilar membrane gets less and less stiff, waves slow down and it responds ...

  4. Tonotopy - Wikipedia

    en.wikipedia.org/wiki/Tonotopy

    In the cochlea, sound creates a traveling wave that moves from base to apex, increasing in amplitude as it moves along a tonotopic axis in the basilar membrane (BM). [13] This pressure wave travels along the BM of the cochlea until it reaches an area that corresponds to its maximum vibration frequency; this is then coded as pitch. [13]

  5. Sensorineural hearing loss - Wikipedia

    en.wikipedia.org/wiki/Sensorineural_hearing_loss

    The base of the basilar membrane is narrow and stiff, resulting in it responding best to high frequency sounds. The apex of the basilar membrane is wider and much less stiff in comparison to the base, causing it to respond best to low frequencies. [14] This selectivity to certain frequencies can be illustrated by neural tuning curves.

  6. Critical band - Wikipedia

    en.wikipedia.org/wiki/Critical_band

    The basilar membrane widens as it progresses from base to apex. Therefore, the base (the thinnest part) has a greater stiffness than the apex. [4] This means that the amplitude of a sound wave travelling through the basilar membrane varies as it travels through the cochlea. [11]

  7. Auditory system - Wikipedia

    en.wikipedia.org/wiki/Auditory_system

    Basilar membrane width and stiffness vary to control the frequencies best sensed by the IHC. At the cochlear base the BM is at its narrowest and most stiff (high-frequencies), while at the cochlear apex it is at its widest and least stiff (low-frequencies).

  8. Cochlear duct - Wikipedia

    en.wikipedia.org/wiki/Cochlear_duct

    The cochlear duct (a.k.a. the scala media) is an endolymph filled cavity inside the cochlea, located between the tympanic duct and the vestibular duct, separated by the basilar membrane and the vestibular membrane (Reissner's membrane) respectively. The cochlear duct houses the organ of Corti. [1]

  9. Inner ear - Wikipedia

    en.wikipedia.org/wiki/Inner_ear

    He found that movement of the basilar membrane resembles that of a traveling wave; the shape of which varies based on the frequency of the pitch. In low-frequency sounds, the tip (apex) of the membrane moves the most, while in high-frequency sounds, the base of the membrane moves most. [7]