Omnipresent with human habitation in artificial environments is background and operational noise. Inherent in almost any platform or craft that maintains a human crew in an enclosed cabin is the need for circulation of air to remove metabolic and other adverse waste products and to replenish consumed oxygen. Water and fluid coolants of thermal control systems may also require circulation, typically provided by motorized fans and pumps. Noise generated by such systems is an expected consequence for surface ships, submarines, aircraft, and spacecraft and adds to noise that may be produced by propulsion systems and other operational equipment. Noise in low Earth orbit spacecraft operations has been identified as a significant environmental hazard for human crews. This chapter examines the sources and character of background noise on board orbiting spacecraft, the morbidity and pathophysiology associated with such noise, and aspects of remediation and crew protection.
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References
Beranek LL, Ver IL. Noise and Vibration Control Engineering. New York: John Wiley & Sons, Inc; 1992; 14:626-629.
Driskell JE, Salas E. Stress and Human Performance. Mahwah, NJ: Lawrence Erlbaum Associates; 1996.
Dimberg U. Perceived unpleasantness and facial reactions to auditory stimuli. Scand J Psychol 1990; 31:70-75.
Cohen MM. Perception of facial features and face-to-face communi-cations in space. Aviat Space Environ Med 2000; 71:A51-57.
Stansfeld SA, Haines MM, Burr M, et al. A review of environ-mental noise and mental health. Noise Health 2000;8:1-8.
Hamernik RP, Henderson D. Impulse noise trauma. A study of histological susceptibility. Arch Otolaryngol 1974; 99: 118-121.
Henderson D, Hamernik RP. Impulse noise: Critical review. J Acoust Soc Am 1986; 80:569-584.
Henderson D, Hamernik RP. Biologic bases of noise-induced hearing loss. Occup Med 1995; 10:513-534.
Slepecky N. Overview of mechanical damage to the inner ear: Noise as a tool to probe cochlear function. Hear Res 1986; 22:307-321.
Kopke R, Allen KA, Henderson D, et al. A radical demise: Tox-ins and trauma share common pathways in hair cell death. Ann NY Acad Sci 1999; 884:171-191.
Falk SA, Woods NF. Hospital noise levels and potential health hazards. N Engl J Med 1973; 289:774-781.
Finkelman JM, Zeitlin LR, Romoff RA, et al. Conjoint effect of physical stress and noise stress on information process-ing performance and cardiac response. Hum Factors 1979; 21:1-6.
Baker C. Sensory overload and noise in the ICU: Sources of environmental stress. Critical Care Quarterly 1984; 6:66-80.
Vorob’ev OA, Krylov IuV, Zaritskii VV, et al. Current aspects of the noise problem in aviation medicine. Voen Med Zh 1996; 317:56-60, 79.
Skrebnev SV, Krylov IV, Vorob’ev OA, et al. Problems of hearing loss in aviation engineers (professional and ecological aspects). Vestn Otorinolaringol 1997; 2:9-12.
National Institutes of Health. Consensus Development Confer-ence Statement: Noise and Hearing Loss. NIH Consensus State-ment 1990 Jan 22-24; 8(1):1-24.
Department of Defense Military Specifications for Human Engi-neering. American Society for Testing and Materials F1166-95a, “Standard Practice for Human Engineering Design for Marine Systems, Equipment and Facilities.”
Department of Defense Design Criteria Standard. MIL-STD-1472E, “Human Engineering” 1994.
NATO Advisory Group for Aerospace Research and Develop-ment (AGARD): Conference Proceedings No. 171. Effects of Long Duration Noise Exposure on Hearing and Health. 1975.
Department of Transportation United States Coast Guard, Navi-gation and Vessel Inspection Circular No. 12-82. Recommenda-tions on Control of Excessive Noise. 1982.
Cohen HH, et al. Effects of Noise Upon Human Information Pro-cessing. NASA CR-132469, 1974.
Shoenberger RW, Harris CS. Human Performance as a Function of Changes in Acoustic Noise Levels. Journal of Engineering Psychology: AMRL-TR-65-165, 1974.
Theologus GC, et al. Development of a Standardized Battery of Performance Tests for the Assessment of Noise Stress Effects, NASA CR-2149, 1973.
Mital, A, et al. Noise in multiple-workstation open-plan com-puter rooms: Measurements and annoyance. J Human Ergol 1992; 21:69-82.
Topf M, Davis JE. Critical care unit noise and rapid eye move-ment sleep. Heart Lung 1993; 22:252-258.
Kawada T, Suzuki S. Change in rapid eye movement (REM) sleep in response to exposure to all-night noise and transient noise. Arch Environ Health 1999 Sep-Oct; 54(5):336-40.
Mills JH. Temporary and permanent threshold shifts produced by nine-day exposures to noise. J Speech Hearing Res 1973; 16:426-438.
Yuganov YM, Krylov YV, Kusnetsov KS. Standards for noise levels in cabins of spacecraft during long-duration flights. Pre-sented at the XVIth International Astronautical Congress, Ath-ens, Greece, 1965:296-303.
Ward WD, Duvall AJ, Santi PA, et al. Total energy and critical intensity concepts in noise damage. Ann Otol 1981; 90:584-589.
Mills JH, Gilbert RM, Adkins WY. Temporary threshold shift in humans exposed to octave bands of noise for 16 to 24 hours. J Acoust Soc Am 1979; 65:1238-1248.
Clark WW, Bohne BA, Boettcher FA. Effect of periodic rest on hearing loss and cochlear damage following exposure to noise. J Acoust Soc Am 1987; 82:1253-1264.
Bohne BA, Yohman L, Gruner MM. Cochlear damage following interrupted exposure to high frequency noise. Hear Res 1987; 29:251-264.
Bohne BA, Zahn SJ, Bozzay DG. Damage to the cochlea fol-lowing interrupted exposure to low frequency noise. Ann Otol Rhinol Laryngol 1985; 94:123-128.
Dalton BP, Hines ML. Acoustics and microgravity flight. Presented at the 25th International Conference on Environmental Systems, July 1995, San Diego, CA. Society of Automotive Engineers (SAE) Technical Paper Series 951644.
NASA. Human Factors Assessment of STS-40/SLS-1. Houston, TX: NASA-Johnson Space Center; JSC-28514, 1998.
NASA Technical Memorandum 104775: An Evaluation of Noise and its Effects on Shuttle Crewmembers during STS-50/USML-1, 1993.
NASA Technical Memorandum 104802: Human Factors Assess-ment of the STS-57 Spacehab-1 Mission, 1994.
Beierle J. MIR Acoustic Environment. Houston, TX: NASA-Johnson Space Center. JSC 961609, 1996. 24. Acoustics Issues
Foley T. Everyday noise, all day. Houston, TX: NASA-Johnson Space Center; JSC 981787, 1998.
Prohl W, Nefedova MV, Birke J. Temporary results of the examination of the audition of cosmonauts during a long-term flight in the space station MIR with the audiometer ELBE 2 (Experiment AUDIO 2). IAF/IAA Paper 90-519. Paris, France. International Astronautical Federation; 1990.
Yakovleva IYa, Nefedova MF. Sensory systems: Hearing. In: Gurovskiy NN (ed.), Results of Medical Research Performed on the “Salyut-6-Soyuz” Space Station Complex. Moscow: Nauka Press; 1986:165-168.
Nefedova MV. The effect of space flight factors on the auditory function of cosmonauts. Space Biology and Aerospace Medicine: 9th All-Union Conference, Kaluga, June 19-21, 1990. Moscow: Nauka; 1990. in Russian].
Goodman JR. International Space Station Acoustics, The 2003 National Conference on Noise Controll Engineering, Paper # NC03-125, 2003.
Allen CS, Goodman JR. Preparing for Flight—The Process of Assessing the ISS Acoustic Environment. The 2003 National Conference on Noise Control Engineering, Paper # NC03-006, 2003.
Alibaruho K, Gentry G, Sang A. Flight 2A.1/STS-96 ISS Air Quality Issue Assessment and Recommendations for Flight 2A.2/STS-101, October 23, 1999, ISS Independent Assessment Report.
Wagstaff AS, Woxen OJ, Andersen HT. Effects of active noise reduction on noise levels at the tympanic membrane. Aviat Space Environ Med 1998; 69:539-544.
Pilkington GD. ISS Acoustics Mission Support, The 2003 National Conference on Noise Controll Engineering, Paper # NC03-021, 2003.
Prohl W, Mocker R, Yakovleva IYa, et al. Initial audiometric investigations in an orbital station. Zeitschr Militaermed 1981; 2:60-62.
Brownell WE. Outer hair cell electromotility and otoacoustic emissions. Ear Hear 1990; 11:82-92.
Kemp DT, Ryan S. Otoacoustic emission tests in neonatal screen-ing programmes. Acta Otolaryngol Suppl 1991; 482:73-84.
Lonsbury-Martin BL, Martin GK, Telischi FF. Otoacoustic emis-sions in clinical practice. In: FE Musiek, WF Rintelmann (eds.), Contemporary Perspectives in Hearing Assessment. Boston, MA: Allyn and Bacon; 1999:167-195.
Probst R, Lonsbury-Martin BL, Martin GK, et al. Otoacoustic emis-sions in ears with hearing loss. Am J Otolaryngol 1987; 8:73-81.
Lonsbury-Martin BL, Martin GK. The clinical utility of distortion-product otoacoustic emissions. Ear Hear 1990; 11:144-154.
Prasher D, Sulkowski W. The role of otoacoustic emissions in screening and evaluation of noise damage. Int J Occup Med Environ Health 1999; 12:183-192.
Sliwinska-Kowalska M, Kotylo P. The role of evoked and distor-tion product otoacoustic emissions in the diagnosis of occupa-tional noise-induced hearing loss. J Audiol Med 1998; 7:29-45.
Namyslowski G, Morawaki K, Trybalska G, et al. Comparison of DPOAE in musicians, noise exposed workers and elderly with presbycusis. Med Sci Monit 1998; 4:314-320.
Hall JW, Baer JE, Chase PA, et al. Clinical application of oto-acoustic emissions: What do we know about factors influencing measurement and analysis? Otolaryngol Head Neck Surg 1994; 110:22-38.
Kimberley BP. Applications of distortion-product emissions to an otological practice. Laryngoscope 1999; 109:1908-1918.
Draeger J, Schwartz R, Groenhoff S, et al. Self-tonometry under microgravity conditions. Aviat Space Environ Med 1995; 66:568-570.
Froehlich P, Ferber C, Remond J, et al. Lack of association between transiently evoked otoacoustic emission amplitude and experimentation linked-factors (repeated acoustic stimulation, cerebrospinal fluid pressure, supine and sitting positions, alert-ness level). Hear Res 1994; 75:184-190.
Buki B, Chomicki A, Dordain M, et al. Middle-ear influence on otoacoustic emissions. II: contributions of posture and intracra-nial pressure. Hear Res 2000; 140:202-211.
Boettcher FA, Henderson D, Gratton MA, et al. Synergistic inter-actions of noise and other ototraumatic agents. Ear Hear 1987; 8192-212.
Pekkarinen J. Noise, impulse noise and other physical factors: Combined effects on hearing. Occup Med 1995; 10:545-559.
Hamernik RP, Henderson D, Coling D, et al. Influence of vibra-tion on asymptotic threshold shift produced by impulse noise. Audiology 1981; 20:259-269.
Manninen O. Bioresponses in men after repeated exposures to single and simultaneous sinusoidal or stochastic whole body vibrations of varying bandwidths and noise. Int Arch Occup Environ Health 1986; 57:267-295.
Manninen O. Cardiovascular changes and hearing threshold shifts in men under complex exposures to noise, whole body vibrations, temperatures and competition-type psychic load. Int Arch Occup Environ Health 1980; 56:251-274.
Lin JC. The microwave auditory phenomenon. Proc IEEE 1980; 68:67-73.
Young JS, Upchurch MB, Kaufman MJ, et al. Carbon monoxide exposure potentiates high-frequency hearing auditory threshold shifts induced by noise. Hear Res 1987; 26:37-43.
Burdick CK. Hearing loss from low-frequency noise. In: Hamernik RP, Henderson D, Salvi R, (eds.), New Perspec-tives in Noise-Induced Hearing Loss. New York: Raven Press; 1982:321-329.
Lataye R, Campo P. Applicability of the Leq as a damage risk cri-terion: An animal experiment. J Acoust Soc Am 1996; 99:1621-1632.
Flottorp G. Treatment of noise induced hearing loss. Scand Audiol Suppl 1991; 34:123-130.
Mills JH, Osguthorpe JD, Burdick CK, et al. Temporary thresh-old shifts produced by exposure to low-frequency noises. J Acoustic Soc Am 1983; 73:918-923.
Mills JH, Gengel RW, Watson CS, et al. Temporary changes of the auditory system due to exposure to noise for one or two days. J Acoustic Soc Am 1970; 48:524-530.
Mills JH, Talo SA. Temporary threshold shifts produced by exposure to high-frequency noise. J Speech Hearing Res 1972; 15:624-631.
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Clark, J.B., Allen, C.S. (2008). Acoustics Issues. In: Barratt, M.R., Pool, S.L. (eds) Principles of Clinical Medicine for Space Flight. Springer, New York, NY. https://doi.org/10.1007/978-0-387-68164-1_24
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