The current levels of development of diagnostic methods for the sensitivity and frequency resolving power (FRP) of hearing are significantly different. Devices for measuring FRP have not entered clinical practice. Laboratory methods for measuring FRP are not suitable for practical applications. Signals with rippled spectra may provide an effective tool for testing the FRP of hearing both in studies of the basic mechanisms of hearing and in practical audiology. The use of such signals for testing allows measurement not of the acuteness of individual frequency-selective filter channels but directly assesses their ability to analyze sound signals with complex time-spectral patterns. In addition, measurement of FRP using rippled test signals is convenient for practical application. Measurements using rippled test signals yield data on the real ability of the auditory system to discriminate complex sound signals. Furthermore, these measurements demonstrate the roles of a number of basic auditory mechanisms – compressive nonlinearity, lateral suppression, and the frequency- and time-based mechanisms of frequency analysis – in the perception of complex auditory signals. Depending on the discrimination task, either frequency or time analysis is activated, giving fundamentally different evaluations of FRP. There is successful experience of the use of test signals with rippled spectra for assessment of auditory acuity in users of cochlear implants.
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Supin, A.Y. What is “Acute Hearing”? Measures of the Frequency-Resolving Power of Hearing. Neurosci Behav Physi 51, 100–107 (2021). https://doi.org/10.1007/s11055-020-01044-4
- resolving power
- rippled spectra