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纳米级 TiO2 和银的生产车间的职业暴露评估

Exposure assessment of workplaces manufacturing nanosized TiO2 and silver.

机构信息

Hoseo University, Asan, Republic of Korea.

出版信息

Inhal Toxicol. 2011 Mar;23(4):226-36. doi: 10.3109/08958378.2011.562567.

DOI:10.3109/08958378.2011.562567
PMID:21456955
Abstract

With the increased production and widespread use of nanomaterials, human and environmental exposure to nanomaterials is inevitably increasing. Therefore, this study monitored the possible exposure to nanoparticles at workplaces that manufacture nano-TiO(2) and nano-silver. To estimate the potential exposure of workers, personal sampling, area monitoring, and real-time monitoring using a scanning mobility particle sizer (SMPS) and dust monitor were conducted at workplaces where the workers handle nanomaterials. The gravimetric concentrations of TiO(2) ranged from 0.10 to 4.99 mg/m(3), which were lower than the occupational exposure limit 10 mg/m(3) set by the Korean Ministry of Labor or American Conference of Governmental Industrial Hygienists (ACGIH). Meanwhile, the silver metal concentrations ranged from 0.00002 to 0.00118 mg/m(3), which were also lower than the silver dust 0.1 mg/m(3) and silver soluble compound 0.01 mg/m(3) occupational exposure limits set by the ACGIH. The particle number concentrations at the nano-TiO(2) manufacturing workplaces ranged from 11,418 to 45,889 particles/cm(3) with a size range of 15-710.5 nm during the reaction, although the concentration decreased to 14,000 particles/cm(3) when the reaction was stopped. The particle concentrations at the TiO(2) manufacturing workplaces increased during the reactor and vacuum pump operations, and during the collection of the synthesized TiO(2) particles. Similarly, the particle concentrations at the silver nanoparticle manufacturing workplaces increased when the sodium citrates were weighed or reacted with the silver nitrates, and during the cleaning of the workplace. The number of silver nanoparticles in the samples obtained from the workplace manufacturing silver nanoparticles using induced coupled plasma ranged from 57,789 to 2,373,309 particles/cm(3) inside the reactor with an average size of 20-30 nm and 535-25,022 particles/cm(3) with a wide range of particle sizes due to agglomeration or aggregation after the release of nanoparticles into the workplace air. In contrast, the silver nanoparticles manufactured by the wet method ranged from 393 to 3526 particle/cm(3) with an average size of 50 nm. Thus, when taken together, the TiO(2) and silver nanoparticle concentrations were relatively lower than existing occupational exposure limits.

摘要

随着纳米材料的大量生产和广泛应用,人类和环境接触纳米材料的情况不可避免地在增加。因此,本研究监测了生产纳米 TiO(2) 和纳米银的工作场所中工人可能接触到的纳米颗粒。为了评估工人的潜在暴露情况,在处理纳米材料的工作场所进行了个人采样、区域监测和使用扫描迁移率颗粒物粒径谱仪 (SMPS) 和粉尘监测仪的实时监测。TiO(2) 的重量浓度范围为 0.10 至 4.99mg/m(3),低于韩国劳动部或美国政府工业卫生学家会议 (ACGIH) 设定的 10mg/m(3) 职业暴露限值。同时,银金属浓度范围为 0.00002 至 0.00118mg/m(3),也低于 ACGIH 设定的银尘 0.1mg/m(3) 和银可溶性化合物 0.01mg/m(3) 的职业暴露限值。在纳米 TiO(2) 制造工作场所,反应过程中粒径为 15-710.5nm 的粒子数浓度范围为 11418 至 45889 个/cm(3),尽管反应停止时浓度降至 14000 个/cm(3)。在反应器和真空泵运行期间、在合成 TiO(2) 颗粒收集期间,TiO(2) 制造工作场所的颗粒浓度增加。同样,在称取柠檬酸钠或与硝酸银反应以及清洁工作场所时,银纳米颗粒制造工作场所的颗粒浓度增加。使用感应耦合等离子体从制造银纳米颗粒的工作场所获得的样品中的银纳米颗粒数量范围为 57789 至 2373309 个/cm(3),在反应器内平均粒径为 20-30nm,535 至 25022 个/cm(3),由于纳米颗粒释放到工作场所空气中后团聚或聚集,粒径范围较宽。相比之下,湿法制造的银纳米颗粒数量范围为 393 至 3526 个/cm(3),平均粒径为 50nm。因此,总的来说,TiO(2) 和银纳米颗粒的浓度相对低于现有的职业暴露限值。

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