Schulze H, Tziridis K (2023)
Publication Type: Journal article
Publication year: 2023
DOI: 10.1111/ejn.16033
Temporal processing of auditory data plays a crucial role in our proposed model of tinnitus development through stochastic resonance (SR). The model assumes a physiological mechanism optimizing auditory information transmission (as quantified by autocorrelation [AC] analysis) into the brain by adding the optimal amount of neuronal noise to otherwise subthreshold signals. We hypothesize that this takes place at the second synapse of the auditory pathway in the dorsal cochlear nucleus (DCN). We propose that after hearing loss, this neuronal noise is increased in the affected frequency band to improve hearing thresholds at the cost of upward propagation of this added noise, which finally may be perceived as tinnitus. We already showed the improvement of hearing thresholds in a large population of patients. Until now, we did not investigate the differences in hearing thresholds based on the biological constraints of early auditory temporal processing (phase locking) that is only possible up to frequencies of 5 kHz. In this report, we grouped our patient database (N = 47,986) according to tinnitus pitch (TP) of below (TP
APA:
Schulze, H., & Tziridis, K. (2023). Is phase locking crucial to improve hearing thresholds in tinnitus patients? European Journal of Neuroscience. https://doi.org/10.1111/ejn.16033
MLA:
Schulze, Holger, and Konstantin Tziridis. "Is phase locking crucial to improve hearing thresholds in tinnitus patients?" European Journal of Neuroscience (2023).
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