Our research investigates the biomechanical and biophysical mechanisms underlying auditory transduction, with particular emphasis on establishing correlations between anatomy and function in both normal and pathological ears. Observations of sound-induced vibrations and electrical potentials along the auditory pathway form the foundation of our understanding of hearing mechanics, shaping current perspectives on middle ear function, cochlear mechanics, the generation of otoacoustic emissions (OAEs), and the auditory central system in normal and impaired ears.

A current focus of our work is characterizing the complex interplay among cochlear structures during both forward and reverse sound transmission. Using a comprehensive experimental approach, we examine the forward transmission pathway — spanning sound wave capture to neural signal generation — as well as reverse transmission mechanisms, including OAEs, which serve as critical diagnostic indicators of cochlear function. Our research goal is to elucidate the fundamental principles governing auditory function under normal and pathological conditions, ultimately advancing diagnostic methodologies, therapeutic interventions, and hearing restoration strategies for individuals with auditory impairment.