Gürültüye Bağlı Gizli İşitme Kaybının Davranışsal Değerlendirme Yöntemleri
Özet
Sensörinöral işitme kayıpları gürültü maruziyetine bağlı olarak dünya genelinde yaygın şekilde görülmekte, iç kulak tüy hücreleri ile işitme sinir lifleri arasındaki ribbon sinapslarının bozulması sonucu oluşan koklear sinaptopati veya gizli işitme kaybı bireylerin sessiz ortamlarda normal işitme eşiklerine sahip görünmesine karşın özellikle arka plan gürültülü ve karmaşık ortamlarda konuşulanları anlamlandırmada ciddi algısal güçlükler yaşamasına yol açmaktadır. Standart odyogramların bu gizli nörodejenerasyonu ve iç tüy hücre hasarlarını tam olarak yansıtamaması nedeniyle teşhiste yetersiz kalması, odyolojide tanının güvenirliğini artırmak adına klinik test bataryalarına yüksek frekans odyometre testlerinin, temporal kodlama becerilerini ölçen genlik modülasyonu fark etme testlerinin, zamansal işlemleme bozukluklarını belirleyen gürültüde konuşma anlaşılırlığı testlerinin ve bilateral zamansal kodlama keskinliğini değerlendiren kulaklar arası faz farkı ölçümlerinin bir arada kullanılmasını zorunlu kılmaktadır.
Sensorineural hearing loss is widely observed worldwide due to noise exposure, and cochlear synaptopathy, or hidden hearing loss, which is caused by the disruption of ribbon synapses between inner hair cells and auditory nerve fibers, results in individuals appearing to have normal hearing thresholds in quiet environments while experiencing severe perceptual difficulties in understanding speech, especially in background noise and complex settings. Since standard audiograms fail to fully reflect this hidden neurodegeneration and inner hair cell damage, making them insufficient for diagnosis, it is essential to combine extended high-frequency audiometry tests, amplitude modulation detection tests that measure temporal coding skills, speech-in-noise intelligibility tests that identify temporal processing deficits, and interaural phase difference measurements that evaluate the acuity of bilateral temporal coding within clinical test batteries to enhance diagnostic reliability.
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