A swollen wing vein helps butterflies detect low-frequency sounds.

After a decades-long pursuit, researchers have confirmed the identity of the pore of the mechanotransduction channel in vertebrates’ inner ear hair cells.

The tissue, grown on a 3-D scaffold and seeded from the kids’ own cells, was transplanted to correct deformities in their cartilage.

Deficiency in a protein called pejvakin makes inner ear cells more vulnerable to sound, unable to brace themselves against oxidative stress stimulated by noise. 

Localization of two proteins important for inner ear hair cell function suggests they are part of the elusive mechanotransduction channel. 

Common in vitro experiments have distorted the true mechanics of mammalian hair cell stereocilia.

Support cells in the inner ear respond differently to two drugs that kill hair cells.

A molecular signature makes it possible to trace the details of hair cell replacement in the mammalian inner ear.

A teaching obligation in graduate school introduced James Hudspeth to a career focused on how vertebrates sense sounds.