超越骨传导极限的保护:开发和实战被动式听力保护头盔的经验教训

J. Wilbur, Lindsay Allen, W. Audette, Christian Passow, Jacob VanMalden, James Arsenault, Jonathan Hamilton, Kimberly Gould, Tiffany Lei, John Farnese, Sienna Pollock, Robert Kline Schoder
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引用次数: 0

摘要

传统的听力保护装置侧重于衰减空气传导的声音,受到骨传导阈值的限制(Berger,1983 年)。在极端噪声环境下,例如在航空母舰喷气发动机附近工作的飞机维修人员,骨传导途径携带的能量足以损伤耳蜗。在此,我们介绍了一种被动式听力保护头盔(HPH)的开发、鉴定和现场测试情况,该头盔的设计超过了骨传导极限。听力保护头盔采用隔音外壳,通过顺应性边缘密封件与头部密封。与泡沫耳塞一起佩戴并按照 ANSI S12.6-2016 标准(实验者适合度)进行测试时,HPH 的降噪等级(NRR)为 38 dB,降噪统计(NRSA)(ANSI S12.68)(80% 至 20% 的用户)为 45 至 52 dB。我们还介绍了与用户接受 HPH 相关的挑战。用户的反馈意见促使我们整合了电子透听系统,以恢复听觉态势感知。用户还拒绝接受支持有线通信的耳塞,这导致了耳罩扬声器的集成,并增加了与设置穿透声压级限制相关的挑战。最后,我们将介绍 2020 年、2022 年和 2023 年在美国海军航空母舰上进行试验部署时发生的轶事。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Protecting beyond the bone-conduction limit: Lessons learned developing and fielding a passive Hearing Protection Helmet
Traditional hearing protection devices focus on attenuating air-conducted sound and are limited by the bone conduction threshold (Berger, 1983). In extreme noise fields, such as aircraft maintainers operating near jet engines on aircraft carriers, the bone conducted pathway carries sufficient energy to damage the cochlea. Here, we describe the development, qualification, and field-testing of a passive Hearing Protection Helmet (HPH) designed to surpass the bone conduction limit. The HPH features a noise-isolating shell sealed to the head via a compliant edge seal. When worn with foam earplugs and tested to ANSI S12.6-2016 (Experimenter Fit), the Noise Reduction Rating (NRR) of the HPH is 38 dB and the Noise Reduction Statistic (NRSA) (ANSI S12.68) (80% to 20% of users) is 45 to 52 dB. We also describe challenges associated with user acceptance of the HPH. User feedback led to the integration of an electronic hear-through system to restore auditory situational awareness. Users also rejected wired communication-enabled ear plugs, resulting in the integration of ear cup speakers and adding challenges associated with setting the hear-through sound pressure level limits. We conclude with anecdotes from trial deployments aboard U.S. Navy Aircraft Carriers in 2020, 2022, and 2023.
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