Johan du Plessis, Sonette du Preez, Aleksandr B Stefaniak
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引用次数: 0
摘要
增材制造(AM)是指从计算机辅助设计文件中,将材料一层一层地连接起来以构建物体的几种类型的工艺。许多增材制造过程在打印和相关任务中释放潜在的有害颗粒和气体。人们对包括消除、替代、行政和个人防护技术在内的控制措施在减少或消除排放方面的效力了解有限,这阻碍了风险缓解战略的实施。使用Medline、Embase、Environmental Science Collection、CINAHL、Scopus和Web of Science数据库和其他资源确定了42篇符合本综述纳入标准的文章。主要调查结果如下:1)与单独隔离相比,包含局部排气通风的材料挤出型熔丝制造(FFF) 3d打印机和材料喷射打印机的工程控制通常在降低颗粒和气体水平方面表现出更高的效果;2)与细颗粒相比,FFF 3d打印机的颗粒排放工程控制在超细颗粒和测试室中表现出更高的效果。确定的关键知识差距包括对数据的需求:1)对所有增材制造工艺类型的控制效果,2)更好地理解控制不同尺寸颗粒和气相排放的方法,3)使用标准化收集方法获得,以促进研究结果的相互比较,4)超越吸入暴露途径的方法,包括控制以最大限度地减少皮肤暴露,5)不仅评估工程层,还有通过设计进行预防和其他层次的控制。
Identification of effective control technologies for additive manufacturing.
Additive manufacturing (AM) refers to several types of processes that join materials to build objects, often layer-by-layer, from a computer-aided design file. Many AM processes release potentially hazardous particles and gases during printing and associated tasks. There is limited understanding of the efficacy of controls including elimination, substitution, administrative, and personal protective technologies to reduce or remove emissions, which is an impediment to implementation of risk mitigation strategies. The Medline, Embase, Environmental Science Collection, CINAHL, Scopus, and Web of Science databases and other resources were used to identify 42 articles that met the inclusion criteria for this review. Key findings were as follows: 1) engineering controls for material extrusion-type fused filament fabrication (FFF) 3-D printers and material jetting printers that included local exhaust ventilation generally exhibited higher efficacy to decrease particle and gas levels compared with isolation alone, and 2) engineering controls for particle emissions from FFF 3-D printers displayed higher efficacy for ultrafine particles compared with fine particles and in test chambers compared with real-world settings. Critical knowledge gaps identified included a need for data: 1) on efficacy of controls for all AM process types, 2) better understanding approaches to control particles over a range of sizes and gas-phase emissions, 3) obtained using a standardized collection approach to facilitate inter-comparison of study results, 4) approaches that go beyond the inhalation exposure pathway to include controls to minimize dermal exposures, and 5) to evaluate not just the engineering tier, but also the prevention-through-design and other tiers of the hierarchy of controls.
期刊介绍:
"Journal of Toxicology and Environmental Health: Part B - Critical Reviews" is an academic journal published by Taylor & Francis, focusing on the critical examination of research in the areas of environmental exposure and population health. With an ISSN identifier of 1093-7404, this journal has established itself as a significant source of scholarly content in the field of toxicology and environmental health.
Since its inception, the journal has published over 424 articles that have garnered 35,097 citations, reflecting its impact and relevance in the scientific community. Known for its comprehensive reviews, the journal also goes by the names "Critical Reviews" and "Journal of Toxicology & Environmental Health, Part B, Critical Reviews."
The journal's mission is to provide a platform for in-depth analysis and critical discussion of the latest findings in toxicology, environmental health, and related disciplines. By doing so, it contributes to the advancement of knowledge and understanding of the complex interactions between environmental factors and human health, aiding in the development of strategies to protect and improve public health.