Soft tissue conduction as a possible contributor to the limited attenuation provided by hearing protection devices.

PubWeight™: 0.75‹?›

🔗 View Article (PMID 27762257)

Published in Noise Health on October 20, 2016

Authors

Shai Chordekar1, Cahtia Adelman2, Haim Sohmer3, Liat Kishon-Rabin1

Author Affiliations

1: Department of Communication Disorders, Sackler Faculty of Medicine, Tel Aviv University, Tel Aviv, Israel.
2: Speech & Hearing Center, Hebrew University School of Medicine - Hadassah Medical Center, Jerusalem; Department of Communication Disorders, Hadassah Academic College, Jerusalem, Israel.
3: Department of Medical Neurobiology (Physiology), Institute for Medical Research - Israel-Canada, Hebrew University-Hadassah Medical School, Jerusalem, Israel.

Articles cited by this

Transmission pathways of vibratory stimulation as measured by subjective thresholds and distortion-product otoacoustic emissions. Ear Hear (2008) 1.62

Bone conduction experiments in animals - evidence for a non-osseous mechanism. Hear Res (2000) 1.39

Bone conduction experiments in humans - a fluid pathway from bone to ear. Hear Res (2000) 1.36

Isolating the auditory system from acoustic noise during functional magnetic resonance imaging: examination of noise conduction through the ear canal, head, and body. J Acoust Soc Am (2001) 1.33

Surgical findings and long-term hearing results in 3,050 stapedotomies for primary otosclerosis: a prospective study with the otology-neurotology database. Otol Neurotol (2006) 1.32

Bone-conducted sound: physiological and clinical aspects. Otol Neurotol (2005) 1.28

Interventions to prevent occupational noise-induced hearing loss. Cochrane Database Syst Rev (2012) 1.17

A model of the occlusion effect with bone-conducted stimulation. Int J Audiol (2007) 1.12

Factors contributing to bone conduction: the outer ear. J Acoust Soc Am (2003) 1.07

Examination of bone-conducted transmission from sound field excitation measured by thresholds, ear-canal sound pressure, and skull vibrations. J Acoust Soc Am (2007) 1.02

Acoustic and physiologic aspects of bone conduction hearing. Adv Otorhinolaryngol (2011) 0.98

Hearing protection: surpassing the limits to attenuation imposed by the bone-conduction pathways. J Acoust Soc Am (2003) 0.97

Analysis of the mechanical impedance of bone-anchored hearing aids. Acta Otolaryngol (1980) 0.94

Bone conduction thresholds and skull vibration measured on the teeth during stimulation at different sites on the human head. Audiol Neurootol (2010) 0.91

Mutual cancellation between tones presented by air conduction, by bone conduction and by non-osseous (soft tissue) bone conduction. Hear Res (2011) 0.86

Insert earphone depth and the occlusion effect. Am J Audiol (2000) 0.84

Bone-conduction hearing and the occlusion effect in otosclerosis and normal controls. Otol Neurotol (2005) 0.83

Estimation of bone conduction skull transmission by hearing thresholds and ear-canal sound pressure. Hear Res (2013) 0.81

Non-osseous sound transmission to the inner ear. Hear Res (2002) 0.81

Non-syndromal round window atresia: an autosomal dominant genetic disorder with variable penetrance? Eur Arch Otorhinolaryngol (2007) 0.80

Eyes as fenestrations to the ears: a novel mechanism for high-frequency and ultrasonic hearing. Int Tinnitus J (2007) 0.78

Interactions in the cochlea between air conduction and osseous and non-osseous bone conduction stimulation. Eur Arch Otorhinolaryngol (2011) 0.78

Comparison of umbo velocity in air- and bone-conduction. Hear Res (2012) 0.78

Assessment of inner ear bone vibrations during auditory stimulation by bone conduction and by soft tissue conduction. J Basic Clin Physiol Pharmacol (2013) 0.78

Reflections on the role of a traveling wave along the basilar membrane in view of clinical and experimental findings. Eur Arch Otorhinolaryngol (2014) 0.78

Interaction between osseous and non-osseous vibratory stimulation of the human cadaveric head. Hear Res (2016) 0.77