重振工程噪音控制:一种系统方法。

IF 1.4 4区 医学 Q3 PUBLIC, ENVIRONMENTAL & OCCUPATIONAL HEALTH International journal of occupational medicine and environmental health Pub Date : 2023-11-27 Epub Date: 2023-09-27 DOI:10.13075/ijomeh.1896.02043
Jeremy Slagley, Adam Dudarewicz, Małgorzata Pawlaczyk-Łuszczyńska, Francis Slagley
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引用次数: 0

摘要

目标:听力损失是全球范围内的一个主要健康问题,约有15亿人受到影响。听力损失的原因包括遗传、化学物质、药物、吸烟等生活习惯和噪音。噪音可能是造成听力损失的最大因素。噪音来自工作场所、周围环境和休闲活动。最容易控制的噪声源是工作场所和环境。工作场所的噪音是独一无二的,因为雇主对噪音和工人负责。此外,工人可能会暴露在比其他地方更高水平的噪音中。雇主遵循传统的控制层级(替代/工程、管理、个人防护设备[PPP])。替代或设计较低的噪音水平实际上减少了工人面临的危险,但需要更多的资本投资。行政和个人防护装备控制可能是有效的,但强制执行和激励对于降低风险至关重要,而且部分工人仍有一些听力损失。挑战在于更清楚地估计管理人员的成本。系统工程方法可以帮助可视化影响听力健康的因素。材料和方法:在本研究中,开发了系统工程因果循环图(CLD),以帮助理解因素及其相互关系。然后在VenSim中对CLD进行建模。该模型来源于作者在听力健康和暴露科学方面的专业知识。此外,还使用了一个案例研究来测试该模型。该模型可用于告知决策者噪音控制方案的整体成本,并可能为工人带来更好的听力健康结果。结果:CLD和成本模型在案例研究中证明了工程噪声控制的4.3年投资回收期。结论:使用CLD和成本模型进行职业听力健康控制的系统思维可以帮助组织管理者应用资源来控制风险。国际神秘医学与环境健康杂志。2023年;36(5)。
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Reinvigorating engineered noise controls: a systems approach.

Objectives: Hearing loss is a major worldwide health issue affecting an estimated 1.5 billion people. Causes of hearing loss include genetics, chemicals, medications, lifestyle habits such as smoking, and noise. Noise is probably the largest contributing factor for hearing loss. Noise arises from the workplace, ambient environment, and leisure activities. The easiest noise sources to control are workplace and environmental. Workplace noise is unique in that the employer is responsible for the noise and the worker. Also, workers may be exposed to much higher levels of noise than they would accept elsewhere. Employers follow the traditional hierarchy of controls (substitution/engineering, administrative, personal protective equipment [PPE]). Substituting or engineering a lower noise level actually reduces the hazard present to the worker but demand more capital investment. Administrative and PPE controls can be effective, but enforcement and motivation are essential to reducing risk and there is still some hearing loss for a portion of the workers. The challenge is to estimate the costs more clearly for managers. A systems engineering approach can help visualize factors affecting hearing health.

Material and methods: In this study, a systems engineering causal loop diagram (CLD) was developed to aid in understanding factors and their interrelationships. The CLD was then modeled in VenSim. The model was informed from the authors' expertise in hearing health and exposure science. Also, a case study was used to test the model. The model can be used to inform decision-makers of holistic costs for noise control options, with potentially better hearing health outcomes for workers.

Results: The CLD and cost model demonstrated a 4.3 year payback period for the engineered noise control in the case study.

Conclusions: Systems thinking using a CLD and cost model for occupational hearing health controls can aid organizational managers in applying resources to control risk. Int J Occup Med Environ Health. 2023;36(5):672-84.

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来源期刊
CiteScore
3.40
自引率
5.00%
发文量
52
审稿时长
7.5 months
期刊介绍: The Journal is dedicated to present the contemporary research in occupational and environmental health from all over the world. It publishes works concerning: occupational and environmental: medicine, epidemiology, hygiene and toxicology; work physiology and ergonomics, musculoskeletal problems; psychosocial factors at work, work-related mental problems, aging, work ability and return to work; working hours, shift work; reproductive factors and endocrine disruptors; radiation, ionizing and non-ionizing health effects; agricultural hazards; work safety and injury and occupational health service; climate change and its effects on health; omics, genetics and epigenetics in occupational and environmental health; health effects of exposure to nanoparticles and nanotechnology products; human biomarkers in occupational and environmental health, intervention studies, clinical sciences’ achievements with potential to improve occupational and environmental health.
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