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Efficacy of soap and water based skin decontamination using in vivo animal models: a systematic review. 在体内动物模型中使用肥皂和水基皮肤去污的功效:系统综述。
IF 7.2 2区 医学 Q1 ENVIRONMENTAL SCIENCES Pub Date : 2021-10-03 Epub Date: 2021-07-18 DOI: 10.1080/10937404.2021.1943087
Anuk Burli, Nadia Kashetsky, Aileen Feschuk, Rebecca M Law, Howard I Maibach

Water-only or soap and water solutions are considered a gold standard for skin decontamination. However, there is lack of conclusive data regarding their efficacy. The aim of this study was to summarize in vivo animal model data on skin decontamination using water-only, and/or soap and water. Covidence, Embase, MEDLINE, PubMed, Web of Science, and Google Scholar were searched to identify relevant articles using water-only or soap and water decontamination methods in in vivo animals. Data extraction was completed from studies, representing three animal models, and 11 contaminants. Results demonstrated water-only decontamination solutions led to complete decontamination in 3.1% (n = 16/524) protocols, incomplete decontamination in 90.6% (n = 475/524) of protocols, and mortality in 6.3% (n = 33/524) of protocols. Soap and water decontamination solutions resulted in complete decontamination in 6.9% (n = 8/116) protocols, incomplete decontamination in 92.2% (n = 107/116) of protocols, and mortality in 6.9% (n = 8/116) of protocols. Although water only, or soap and water is considered a gold standard for skin decontamination, most papers investigated found that water only, and soap and water provided incomplete decontamination. Due to the insufficient data, and limitations that hinder the applicability of available data, evidence indicates that more contemporary studies investigating skin decontamination are needed, and compared to other model species, including humans, when practical.

纯水或肥皂和水溶液被认为是皮肤净化的黄金标准。然而,缺乏关于其功效的结论性数据。本研究的目的是总结使用纯水和/或肥皂和水进行皮肤去污的体内动物模型数据。检索covid、Embase、MEDLINE、PubMed、Web of Science和Google Scholar,以在体内动物中使用纯水或肥皂和水去污方法识别相关文章。数据提取从研究中完成,代表三种动物模型,11种污染物。结果表明,纯水去污方案导致3.1% (n = 16/524)的方案完全去污,90.6% (n = 475/524)的方案不完全去污,6.3% (n = 33/524)的方案死亡率。肥皂和水去污溶液导致6.9% (n = 8/116)的方案完全去污,92.2% (n = 107/116)的方案完全去污,6.9% (n = 8/116)的方案死亡。虽然仅用水或肥皂和水被认为是皮肤去污的黄金标准,但大多数研究论文发现,仅用水、肥皂和水只能提供不完全的去污。由于数据不足,以及阻碍现有数据适用性的局限性,有证据表明,需要更多的当代研究来调查皮肤去污染,并在实际情况下与其他模式物种(包括人类)进行比较。
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引用次数: 7
Improving the predictive value of bioaccessibility assays and their use to provide mechanistic insights into bioavailability for toxic metals/metalloids - A research prospectus. 提高生物利用率测定的预测价值,并利用这些测定从机理上深入了解有毒金属/金属化合物的生物利用率--研究展望。
IF 6.4 2区 医学 Q1 ENVIRONMENTAL SCIENCES Pub Date : 2021-10-03 Epub Date: 2021-06-06 DOI: 10.1080/10937404.2021.1934764
Jennifer L Griggs, David J Thomas, Rebecca Fry, Karen D Bradham

Widespread contamination of soil, dust, and food with toxic metal(loid)s pose a significant public health concern. Only a portion of orally ingested metal(loid) contaminants are bioavailable, which is defined as the fraction of ingested metal(loid)s absorbed across the gastrointestinal barrier and into systemic circulation. Bioaccessibility tools are a class of in vitro assays used as a surrogate to estimate risk of oral exposure and bioavailability. Although development and use of bioaccessibility tools have contributed to our understanding of the factors influencing oral bioavailability of metal(loid)s, some of these assays may lack data that support their use in decisions concerning adverse health risks and soil remediation. This review discusses the factors known to influence bioaccessibility of metal(loid) contaminants and evaluates experimental approaches and key findings of SW-846 Test Method 1340, Unified BARGE Method, Simulated Human Intestinal Microbial Ecosystem, Solubility Bioaccessibility Research Consortium assay, In Vitro Gastrointestinal model, TNO-Gastrointestinal Model, and Dutch National Institute for Public Health and the Environment bioaccessibility models which are used to assess oral absolute bioavailability and relative bioavailability in solid matrices. The aim of this review was to identify emerging knowledge gaps and research needs with an emphasis on research required to evaluate these models on (1) standardization of assay techniques and methodology, and (2) use of common criteria for assessing the performance of bioaccessibility models.

土壤、灰尘和食物普遍受到有毒金属(loid)的污染,对公众健康构成了严重威胁。口服金属(loid)污染物中只有一部分具有生物可利用性,生物可利用性是指摄入的金属(loid)通过胃肠道屏障被吸收并进入全身循环的比例。生物可利用性工具是一类体外检测工具,可用作估算口服暴露风险和生物可利用性的替代物。虽然生物可利用性工具的开发和使用有助于我们了解影响金属(松散物)口服生物利用率的因素,但其中一些检测方法可能缺乏数据支持,无法用于有关不利健康风险和土壤修复的决策。本综述讨论了已知的影响金属(loid)污染物生物利用度的因素,并评估了 SW-846 测试方法 1340、统一 BARGE 方法、模拟人体肠道微生物生态系统、溶解性生物利用度研究联合会测定法、体外胃肠道模型、TNO-胃肠道模型和荷兰国家公共卫生与环境研究所生物利用度模型的实验方法和主要研究结果,这些模型用于评估固体基质中的口服绝对生物利用度和相对生物利用度。本综述旨在确定新出现的知识差距和研究需求,重点是评估这些模型所需的研究:(1) 检测技术和方法的标准化;(2) 使用通用标准评估生物利用度模型的性能。
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引用次数: 0
Efficacy of water-based skin decontamination of occupational chemicals using in vitro human skin models: a systematic review. 使用体外人体皮肤模型对职业性化学品的水基皮肤去污效果的系统评价。
IF 7.2 2区 医学 Q1 ENVIRONMENTAL SCIENCES Pub Date : 2021-10-03 Epub Date: 2021-07-26 DOI: 10.1080/10937404.2021.1957048
Chavy Chiang, Nadia Kashetsky, Aileen Feschuk, Anuk Burli, Rebecca Law, Howard Maibach
ABSTRACT Percutaneous absorption of chemicals is a potential route of topical and systemic toxicity. Skin decontamination interrupts this process by removing contaminants from the skin surface. Decontamination using water-only or soap and water solutions is the current gold standard despite limited efficacy data. A summary of studies evaluating their efficacy in decontaminating occupational contaminants from in vitro human skin models is presented. Embase, MEDLINE, PubMed, Web of Science, and Google Scholar were searched for relevant articles and data extracted from 15 investigations that reported on 21 occupational contaminants, which were further classified as industrial chemicals, drugs, or pesticides. Water-only decontamination yielded no response in 4.3% (n = 6/140) and partial decontamination in 95.7% (n = 134/140) of skin samples. Soap and water decontamination yielded complete decontamination in 4.9% (n = 13/264) and partial decontamination in 95.1% (n = 251/264) of skin samples. Four studies (26.7%, n = 4/15) reported increased penetration rates or skin concentration of contaminants following decontamination, demonstrating a “wash-in” effect. Varying study methodologies hinder our ability to compare data and determine when water alone or soap and water are best used. International harmonized efficacy protocol might enhance our decontamination understanding and enable a more customized approach to decontamination clinical practice and research.
化学物质经皮吸收是局部和全身毒性的潜在途径。皮肤去污通过去除皮肤表面的污染物来中断这一过程。使用纯水或肥皂和水溶液进行净化是目前的黄金标准,尽管功效数据有限。综述了评估其在体外人体皮肤模型中去污职业性污染物的功效的研究。我们检索了Embase、MEDLINE、PubMed、Web of Science和Google Scholar,从15项调查中提取了相关文章和数据,这些调查报告了21种职业污染物,这些污染物进一步被分类为工业化学品、药物或杀虫剂。在4.3% (n = 6/140)的皮肤样本中,纯水去污无效,95.7% (n = 134/140)的皮肤样本部分去污无效。肥皂和水去污的皮肤样本完全去污率为4.9% (n = 13/264),部分去污率为95.1% (n = 251/264)。四项研究(26.7%,n = 4/15)报告了去污后污染物的渗透率或皮肤浓度增加,证明了“冲洗”效应。不同的研究方法阻碍了我们比较数据和确定什么时候单独使用水或肥皂和水最好的能力。国际统一的疗效协议可能会增强我们对去污的理解,并使去污临床实践和研究更有针对性。
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引用次数: 5
Assessment of risks to listed species from the use of atrazine in the USA: a perspective. 美国使用阿特拉津对所列物种的风险评估:一个视角。
IF 7.2 2区 医学 Q1 ENVIRONMENTAL SCIENCES Pub Date : 2021-08-18 Epub Date: 2021-07-05 DOI: 10.1080/10937404.2021.1902890
Philip N Smith, Kevin L Armbrust, Richard A Brain, Wenlin Chen, Nika Galic, Lula Ghebremichael, Jeffrey M Giddings, Mark L Hanson, Jonathan Maul, Glen Van Der Kraak, Keith R Solomon
<p><p>Atrazine is a triazine herbicide used predominantly on corn, sorghum, and sugarcane in the US. Its use potentially overlaps with the ranges of listed (threatened and endangered) species. In response to registration review in the context of the Endangered Species Act, we evaluated potential direct and indirect impacts of atrazine on listed species and designated critical habitats. Atrazine has been widely studied, extensive environmental monitoring and toxicity data sets are available, and the spatial and temporal uses on major crops are well characterized. Ranges of listed species are less well-defined, resulting in overly conservative designations of "May Effect". Preferences for habitat and food sources serve to limit exposure among many listed animal species and animals are relatively insensitive. Atrazine does not bioaccumulate, further diminishing exposures among consumers and predators. Because of incomplete exposure pathways, many species can be eliminated from consideration for direct effects. It is toxic to plants, but even sensitive plants tolerate episodic exposures, such as those occurring in flowing waters. Empirical data from long-term monitoring programs and realistic field data on off-target deposition of drift indicate that many other listed species can be removed from consideration because exposures are below conservative toxicity thresholds for direct and indirect effects. Combined with recent mitigation actions by the registrant, this review serves to refine and focus forthcoming listed species assessment efforts for atrazine.<b>Abbreviations:</b> a.i. = Active ingredient (of a pesticide product). AEMP = Atrazine Ecological Monitoring Program. AIMS = Avian Incident Monitoring SystemArach. = Arachnid (spiders and mites). AUC = Area Under the Curve. BE = Biological Evaluation (of potential effects on listed species). BO = Biological Opinion (conclusion of the consultation between USEPA and the Services with respect to potential effects in listed species). CASM = Comprehensive Aquatic System Model. CDL = Crop Data LayerCN = field Curve Number. CRP = Conservation Reserve Program (lands). CTA = Conditioned Taste Avoidance. DAC = Diaminochlorotriazine (a metabolite of atrazine, also known by the acronym DACT). DER = Data Evaluation Record. EC25 = Concentration causing a specified effect in 25% of the tested organisms. EC50 = Concentration causing a specified effect in 50% of the tested organisms. EC50<sub>RGR</sub> = Concentration causing a 50% reduction in relative growth rate. ECOS = Environmental Conservation Online System. EDD = Estimated Daily Dose. EEC = Expected Environmental Concentration. EFED = Environmental Fate and Effects Division (of the USEPA). EFSA = European Food Safety Agency. EIIS = Ecological Incident Information System. ERA = Environmental Risk Assessment. ESA = Endangered Species Act. ESU = Evolutionarily Significant UnitsFAR = Field Application RateFIFRA = Federal Insecticide, Fungicide, and Rodenticide
阿特拉津是一种三嗪类除草剂,在美国主要用于玉米、高粱和甘蔗。它的使用范围可能与所列(受威胁和濒危)物种的范围重叠。为了响应《濒危物种法》背景下的登记审查,我们评估了阿特拉津对所列物种和指定关键栖息地的潜在直接和间接影响。人们对阿特拉津进行了广泛的研究,有广泛的环境监测和毒性数据集,对主要作物的空间和时间使用也有很好的描述。所列物种的范围不太明确,导致“五月效应”的命名过于保守。对栖息地和食物来源的偏好有助于限制许多列出的动物物种的暴露,而动物相对不敏感。阿特拉津不会生物积累,进一步减少了消费者和捕食者的接触。由于暴露途径不完全,许多物种可以从直接影响的考虑中消除。它对植物是有毒的,但即使是敏感的植物也能忍受间歇性的暴露,比如在流动的水中发生的暴露。来自长期监测项目的经验数据和漂浮物脱靶沉积的实际现场数据表明,许多其他列出的物种可以从考虑中删除,因为暴露低于直接和间接影响的保守毒性阈值。结合注册人最近采取的缓解行动,本次审查有助于完善和集中即将开展的阿特拉津清单物种评估工作。缩写:a.i =(农药产品的)活性成分。阿特拉津生态监测计划。鸟类事件监测系统蛛形纲动物(蜘蛛和螨虫)。AUC =曲线下面积。BE =生物评价(对所列物种的潜在影响)。BO =生物学意见(美国环保署与各服务部门就所列物种的潜在影响进行磋商的结论)。综合水生系统模型。CDL =作物数据层数cn =田间曲线数。保护储备计划(土地)。条件性味觉回避。DAC =二氨基氯三嗪(阿特拉津的代谢物,也被简称为DACT)。数据评估记录。EC25 =在25%的受试生物中引起特定效应的浓度。EC50 =在50%的受试生物中引起特定影响的浓度。EC50RGR =使相对生长速率降低50%的浓度。环境保护在线系统。EDD =估计每日剂量。EEC =预期环境浓度。(美国环保署的)环境命运与影响司。欧洲食品安全局。生态事件信息系统。环境风险评估。濒危物种法案。ESU =进化显著单位far =田间应用率fifra =联邦杀虫剂、杀菌剂和灭鼠剂法案。信息自由法(请求)。GSD =属敏感性分布。HC5 =≤5%物种的危险浓度。水文单位代码。IBM =基于个人的模型。IDS =事件数据系统。KOC =土壤或沉积物中水分与有机质的分配系数。KOW =辛醇-水分配系数。LC50 =对50%受测生物致死的浓度。液相色谱串联质谱法。LD50 =对50%的受试生物致死的剂量。LAA =可能产生不利影响。最低观察到的不良反应浓度。LOC =关注程度。MA =可能影响。最大可接受毒物浓度。美国国家科学院。国家水质研究中心。NE =无效果。NLAA =不太可能产生不利影响。国家海洋渔业局。美国国家海洋和大气管理局。NOAEC =未观察到的不良反应浓度。NOAEL =未观察到不良反应剂量水平。经济合作与发展组织。农药国家合成项目。PQ =质体醌。PRZM =农药根区模型。PWC =水中农药计算器。QWoE =证据的定量权重。(植物的)相对生长率。风险商。RUD =残留单位剂量。科学顾问小组(USEPA)。特定增长率。SI =补充信息。物种敏感性分布。地表径流滞后系数。水土评估工具。地表水浓度计算器。UDL =使用数据层(用于农药)。美国农业部。美国环境保护署。美国鱼类和野生动物管理局。美国地质调查局。流域农药回归。
{"title":"Assessment of risks to listed species from the use of atrazine in the USA: a perspective.","authors":"Philip N Smith,&nbsp;Kevin L Armbrust,&nbsp;Richard A Brain,&nbsp;Wenlin Chen,&nbsp;Nika Galic,&nbsp;Lula Ghebremichael,&nbsp;Jeffrey M Giddings,&nbsp;Mark L Hanson,&nbsp;Jonathan Maul,&nbsp;Glen Van Der Kraak,&nbsp;Keith R Solomon","doi":"10.1080/10937404.2021.1902890","DOIUrl":"https://doi.org/10.1080/10937404.2021.1902890","url":null,"abstract":"&lt;p&gt;&lt;p&gt;Atrazine is a triazine herbicide used predominantly on corn, sorghum, and sugarcane in the US. Its use potentially overlaps with the ranges of listed (threatened and endangered) species. In response to registration review in the context of the Endangered Species Act, we evaluated potential direct and indirect impacts of atrazine on listed species and designated critical habitats. Atrazine has been widely studied, extensive environmental monitoring and toxicity data sets are available, and the spatial and temporal uses on major crops are well characterized. Ranges of listed species are less well-defined, resulting in overly conservative designations of \"May Effect\". Preferences for habitat and food sources serve to limit exposure among many listed animal species and animals are relatively insensitive. Atrazine does not bioaccumulate, further diminishing exposures among consumers and predators. Because of incomplete exposure pathways, many species can be eliminated from consideration for direct effects. It is toxic to plants, but even sensitive plants tolerate episodic exposures, such as those occurring in flowing waters. Empirical data from long-term monitoring programs and realistic field data on off-target deposition of drift indicate that many other listed species can be removed from consideration because exposures are below conservative toxicity thresholds for direct and indirect effects. Combined with recent mitigation actions by the registrant, this review serves to refine and focus forthcoming listed species assessment efforts for atrazine.&lt;b&gt;Abbreviations:&lt;/b&gt; a.i. = Active ingredient (of a pesticide product). AEMP = Atrazine Ecological Monitoring Program. AIMS = Avian Incident Monitoring SystemArach. = Arachnid (spiders and mites). AUC = Area Under the Curve. BE = Biological Evaluation (of potential effects on listed species). BO = Biological Opinion (conclusion of the consultation between USEPA and the Services with respect to potential effects in listed species). CASM = Comprehensive Aquatic System Model. CDL = Crop Data LayerCN = field Curve Number. CRP = Conservation Reserve Program (lands). CTA = Conditioned Taste Avoidance. DAC = Diaminochlorotriazine (a metabolite of atrazine, also known by the acronym DACT). DER = Data Evaluation Record. EC25 = Concentration causing a specified effect in 25% of the tested organisms. EC50 = Concentration causing a specified effect in 50% of the tested organisms. EC50&lt;sub&gt;RGR&lt;/sub&gt; = Concentration causing a 50% reduction in relative growth rate. ECOS = Environmental Conservation Online System. EDD = Estimated Daily Dose. EEC = Expected Environmental Concentration. EFED = Environmental Fate and Effects Division (of the USEPA). EFSA = European Food Safety Agency. EIIS = Ecological Incident Information System. ERA = Environmental Risk Assessment. ESA = Endangered Species Act. ESU = Evolutionarily Significant UnitsFAR = Field Application RateFIFRA = Federal Insecticide, Fungicide, and Rodenticide ","PeriodicalId":49971,"journal":{"name":"Journal of Toxicology and Environmental Health-Part B-Critical Reviews","volume":"24 6","pages":"223-306"},"PeriodicalIF":7.2,"publicationDate":"2021-08-18","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://sci-hub-pdf.com/10.1080/10937404.2021.1902890","citationCount":null,"resultStr":null,"platform":"Semanticscholar","paperid":"39157548","PeriodicalName":null,"FirstCategoryId":null,"ListUrlMain":null,"RegionNum":2,"RegionCategory":"医学","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":"","EPubDate":null,"PubModel":null,"JCR":null,"JCRName":null,"Score":null,"Total":0}
引用次数: 10
Additive Manufacturing for Occupational Hygiene: A Comprehensive Review of Processes, Emissions, & Exposures. 职业卫生的快速成型制造:工艺、排放和接触的全面回顾。
IF 7.2 2区 医学 Q1 ENVIRONMENTAL SCIENCES Pub Date : 2021-06-17 DOI: 10.1080/10937404.2021.1936319
A B Stefaniak, S Du Preez, J L Du Plessis
<p><p>This comprehensive review introduces occupational (industrial) hygienists and toxicologists to the seven basic additive manufacturing (AM) process categories. Forty-six articles were identified that reported real-world measurements for all AM processes, except sheet lamination. Particles released from powder bed fusion (PBF), material jetting (MJ), material extrusion (ME), and directed energy deposition (DED) processes exhibited nanoscale to submicron scale; real-time particle number (mobility sizers, condensation nuclei counters, miniDiSC, electrical diffusion batteries) and surface area monitors (diffusion chargers) were generally sufficient for these processes. Binder jetting (BJ) machines released particles up to 8.5 µm; optical particle sizers (number) and laser scattering photometers (mass) were sufficient for this process. PBF and DED processes (powdered metallic feedstocks) released particles that contained respiratory irritants (chromium, molybdenum), central nervous system toxicants (manganese), and carcinogens (nickel). All process categories, except those that use metallic feedstocks, released organic gases, including (but not limited to), respiratory irritants (toluene, xylenes), asthmagens (methyl methacrylate, styrene), and carcinogens (benzene, formaldehyde, acetaldehyde). Real-time photoionization detectors for total volatile organics provided useful information for processes that utilize polymer feedstock materials. More research is needed to understand 1) facility-, machine-, and feedstock-related factors that influence emissions and exposures, 2) dermal exposure and biological burden, and 3) task-based exposures. Harmonized emissions monitoring and exposure assessment approaches are needed to facilitate inter-comparison of study results. Improved understanding of AM process emissions and exposures is needed for hygienists to ensure appropriate health and safety conditions for workers and for toxicologists to design experimental protocols that accurately mimic real-world exposure conditions.<b>ABBREVIATIONS</b> ABS : acrylonitrile butadiene styrene; ACGIH® TLV® : American Conference of Governmental Industrial Hygienists Threshold Limit Value; ACH : air change per hour; AM : additive manufacturing; ASA : acrylonitrile styrene acrylate; AVP : acetone vapor polishing; BJ : binder jetting; CAM-LEM : computer-aided manufacturing of laminated engineering materials; CNF : carbon nanofiber; CNT : carbon nanotube; CP : co-polyester; CNC : condensation nuclei counter; CVP : chloroform vapor polishing; DED : directed energy deposition; DLP : digital light processing; EBM : electron beam melting; EELS : electron energy loss spectrometry; EDB : electrical diffusion batteries; EDX : energy dispersive x-ray analyzer; ER : emission rate; FDM™ : fused deposition modeling; FFF : fused filament fabrication; IAQ : indoor air quality; LSP : laser scattering photometer; LCD : liquid crystal display; LDSA : lung deposited particle surface area;
本综述向职业(工业)卫生学家和毒理学家介绍了七种基本的增材制造 (AM) 工艺类别。除板材层压外,46 篇文章报告了所有 AM 工艺的实际测量结果。粉末床熔融 (PBF)、材料喷射 (MJ)、材料挤压 (ME) 和定向能沉积 (DED) 工艺释放的颗粒呈现纳米级到亚微米级;实时颗粒数(迁移率测定仪、凝结核计数器、miniDiSC、电扩散电池)和表面积监测器(扩散充电器)通常足以满足这些工艺的要求。粘合剂喷射(BJ)机可释放 8.5 微米以下的颗粒;光学颗粒测定仪(数量)和激光散射光度计(质量)足以满足该工艺的要求。PBF 和 DED 工艺(粉末状金属原料)释放的颗粒含有呼吸道刺激物(铬、钼)、中枢神经系统毒性物质(锰)和致癌物质(镍)。除使用金属原料的工艺外,所有工艺类别都会释放有机气体,包括(但不限于)呼吸道刺激物(甲苯、二甲苯)、致喘剂(甲基丙烯酸甲酯、苯乙烯)和致癌物(苯、甲醛、乙醛)。总挥发性有机物的实时光离子化检测器为使用聚合物原料材料的工艺提供了有用的信息。需要开展更多的研究来了解:1)影响排放和暴露的设施、机器和原料相关因素;2)皮肤暴露和生物负荷;3)基于任务的暴露。需要统一排放监测和暴露评估方法,以促进研究结果的相互比较。卫生学家需要更好地了解 AM 工艺的排放和暴露情况,以确保为工人提供适当的健康和安全条件,毒理学家也需要更好地了解 AM 工艺的排放和暴露情况,以设计能够准确模拟真实世界暴露条件的实验方案。缩略语 ABS:丙烯腈-丁二烯-苯乙烯;ACGIH® TLV®:美国政府工业卫生学家会议阈限值;ACH:每小时换气次数;AM:增材制造;ASA:丙烯腈-苯乙烯-丙烯酸酯;AVP:丙酮蒸气抛光;BJ:粘合剂喷射;CAM-LEM:计算机辅助制造层压工程材料;CNF:碳纳米纤维;CNT:碳纳米管:CNC :冷凝核计数器;CVP :氯仿气相抛光;DED :定向能沉积;DLP :数字光处理;EBM :电子束熔化;EELS :电子能量损失光谱仪;EDB :电扩散电池;EDX :能量色散 X 射线分析仪;ER :发射率;FDM™ :FFF :熔融长丝制造;IAQ :室内空气质量;LSP :激光散射光度计;LCD :液晶显示屏;LDSA :肺部沉积颗粒表面积;LOD :检测限;LOM :层压物体制造;LOQ :定量限;MCE :混合纤维素酯过滤器;ME :材料挤压;MJ :材料喷射;OEL :职业接触限值;OPS :室内空气质量:OPS:光学颗粒测定仪;PBF:粉末床熔融;PBZ:个人呼吸区;PC:聚碳酸酯;PEEK:聚醚醚酮;PET:聚对苯二甲酸乙二醇酯;PETG:聚对苯二甲酸乙二醇酯;PID:光离子化检测器;PLA:聚乳酸;PM1:空气动力学直径小于 1 µm 的颗粒物质;PM2.5:空气动力学直径小于 2.PSL:塑料板层压;PVA:聚乙烯醇;REL:建议接触限值;SDL:选择性沉积层压;SDS:安全数据表;SEM:扫描电子显微镜;SL:板材层压;SLA:立体光刻;SLM:选择性激光熔融;SMPS:扫描移动式粒子分级机;REL:建议接触限值;SDL:选择性沉积层压;SDS:安全数据表;SEM:扫描电子显微镜;SL:板材层压;SLA:立体光刻;SLM:选择性激光熔融:SVOC:半挥发性有机化合物;TEM:透射电子显微镜;TGA:热重分析;TPU:热聚氨酯;UAM:超声波增材制造;UC:超声波固化;TVOC:总挥发性有机化合物;TWA:时间加权平均值;VOC:挥发性有机化合物;VP:大桶光聚合。
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引用次数: 0
Current opinion on risk assessment of cosmetics. 目前对化妆品风险评估的看法。
IF 7.2 2区 医学 Q1 ENVIRONMENTAL SCIENCES Pub Date : 2021-05-19 Epub Date: 2021-04-08 DOI: 10.1080/10937404.2021.1907264
Kyu-Bong Kim, Seung Jun Kwack, Joo Young Lee, Sam Kacew, Byung-Mu Lee

Risk assessment of cosmetic ingredients is a useful scientific method to characterize potential adverse effects resulting from using cosmetics. The process of risk assessment consists of four steps: hazard identification, dose-response assessment, exposure assessment, and risk characterization. Hazard identification of chemicals refers to the initial stage of risk assessment and generally utilizes animal studies to evaluate toxicity. Since 2013, however, toxicity studies of cosmetic ingredients using animals have not been permitted in the EU and alternative toxicity test methods for animal studies have momentum to be developed for cosmetic ingredients. In this paper, we briefly review the alternative test methods that are available for cosmetic ingredients including read-across, in silico, in chemico, and invitro methods. In addition, new technologies such as omics and artificial intelligence (AI) have been discussed to expand or improve the knowledge and hazard identification of cosmetic ingredients. Aggregate exposure of cosmetic ingredients is another safety issue and methods for its improvement were reviewed. There have been concerns over the safety of nano-cosmetics for a long time, but the risk of nano-cosmetics remains unclear. Therefore, current issues of cosmetic risk assessment are discussed and expert opinion will be provided for the safety of cosmetics.

化妆品成分风险评估是描述化妆品使用可能产生的不良反应的一种有用的科学方法。风险评估过程包括四个步骤:危害识别、剂量反应评估、暴露评估和风险表征。化学品的危害识别是指风险评估的初始阶段,一般采用动物实验来评估毒性。然而,自2013年以来,欧盟不允许使用动物进行化妆品成分的毒性研究,并且有动力开发用于化妆品成分动物研究的替代毒性测试方法。在本文中,我们简要回顾了可用于化妆品成分的替代测试方法,包括读取,在硅,在化学和体外方法。此外,还讨论了诸如组学和人工智能(AI)等新技术,以扩大或改进化妆品成分的知识和危害识别。化妆品成分的聚集体暴露是另一个安全问题,并对其改进方法进行了综述。长期以来,人们一直对纳米化妆品的安全性感到担忧,但纳米化妆品的风险尚不清楚。因此,本文将讨论当前化妆品风险评估的问题,并为化妆品的安全性提供专家意见。
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引用次数: 22
Vibrotactile sensitivity testing for occupational and disease-induce peripheral neuropathies. 职业性和疾病诱发的周围神经病变的振动触觉敏感性试验。
IF 7.2 2区 医学 Q1 ENVIRONMENTAL SCIENCES Pub Date : 2021-05-19 Epub Date: 2021-03-14 DOI: 10.1080/10937404.2021.1897911
Kristine Krajnak

The International Standard Organization (ISO) standard 13091-1 describes methods and procedures for performing the vibrotactile perception threshold (VPT) testing to diagnose changes in tactile sensory function associated with occupational exposures. However, the VPT test also has been used in the diagnosis of peripheral neuropathies associated with a number of disorders. This review examines the VPT test, variations in procedures that have been used, as well as disorders and diseases in which this test has been reliable for the detection of sensory changes. Mechanisms potentially underlying the changes in VPTs are also discussed along with procedural and subject/patient factors that may affect the interpretation of test results. Based upon the review of the literature, there are also suggestions for where additional research might improve the administration of this test, depending upon the subject/patient population and interpretation of data.

国际标准组织(ISO)标准13091-1描述了执行振动触觉感知阈值(VPT)测试的方法和程序,以诊断与职业暴露相关的触觉感觉功能变化。然而,VPT测试也已被用于诊断与许多疾病相关的周围神经病变。这篇综述探讨了VPT测试,已使用的程序的变化,以及该测试可靠地检测感觉变化的紊乱和疾病。本文还讨论了可能导致vpt变化的潜在机制,以及可能影响检测结果解释的程序和受试者/患者因素。基于对文献的回顾,根据受试者/患者群体和对数据的解释,也有关于在哪些方面进行进一步研究可以改进该测试的管理的建议。
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引用次数: 1
Arsenic exposure from groundwater: environmental contamination, human health effects, and sustainable solutions. 地下水砷暴露:环境污染、人类健康影响和可持续解决办法。
IF 7.2 2区 医学 Q1 ENVIRONMENTAL SCIENCES Pub Date : 2021-04-03 Epub Date: 2021-03-12 DOI: 10.1080/10937404.2021.1898504
Elida Cristina Monteiro De Oliveira, Evelyn Siqueira Caixeta, Vanessa Santana Vieira Santos, Boscolli Barbosa Pereira

Arsenic (As) occurs naturally in geologic conditions, but groundwater contamination might also be found due to the consequences of mining, agricultural and industrial processes. Human exposure to As after drinking contaminated water is commonly associated with acute toxicity outcomes and chronic effects ranging from skin lesions to cancer. Integrated actions from environmental and health authorities are needed to reduce exposure, monitoring outcomes, and promotion of actions to offer sustainable As-safe water alternatives. Considering recent research trends, the present review summarizes and discusses current issues associated with the process and effects of contamination and decontamination in an environmental health perspective. Recent findings reinforce the harmful effects of the consumption of As-contaminated water and broaden the scope of related diseases including intestinal maladies, type 2 diabetes, cancers of bladder, kidneys, lung, and liver. Among the main strategies to diminish or remove As from water, the following are highlighted (1) ion exchange system and membrane filtration (micro, ultra, and nanofiltration) as physicochemical treatment systems; (2) use of cyanobacteria and algae in bioremediation programs and (3) application of nanotechnology for water treatment.

砷在地质条件下自然存在,但由于采矿、农业和工业过程的后果,地下水也可能受到污染。人类在饮用受污染的水后暴露于砷通常与急性毒性结果和从皮肤损伤到癌症的慢性影响有关。需要环境和卫生当局采取综合行动,减少接触,监测结果,并促进行动,提供可持续的安全饮用水替代品。考虑到最近的研究趋势,本综述从环境健康的角度总结和讨论了与污染和去污的过程和影响有关的当前问题。最近的研究结果强化了饮用砷污染水的有害影响,并扩大了相关疾病的范围,包括肠道疾病、2型糖尿病、膀胱癌、肾癌、肺癌和肝癌。在减少或去除水中砷的主要策略中,强调了以下几点:(1)离子交换系统和膜过滤(微、超和纳滤)作为物理化学处理系统;(2)在生物修复计划中使用蓝藻和藻类;(3)应用纳米技术进行水处理。
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引用次数: 35
Potential protective roles of curcumin against cadmium-induced toxicity and oxidative stress. 姜黄素对镉中毒和氧化应激的潜在保护作用。
IF 7.2 2区 医学 Q1 ENVIRONMENTAL SCIENCES Pub Date : 2021-04-03 Epub Date: 2020-12-23 DOI: 10.1080/10937404.2020.1860842
Jae Hyeon Park, Byung Mu Lee, Hyung Sik Kim

Curcumin, used as a spice and traditional medicine in India, exerts beneficial effects against several diseases, owing to its antioxidant, analgesic, and anti-inflammatory properties. Evidence indicates that curcumin might protect against heavy metal-induced organ toxicity by targeting biological pathways involved in anti-oxidation, anti-inflammation, and anti-tumorigenesis. Curcumin has received considerable attention owing to its therapeutic properties, and the mechanisms underlying some of its actions have been recently investigated. Cadmium (Cd) is a heavy metal found in the environment and used extensively in industries. Chronic Cd exposure induces damage to bones, liver, kidneys, lungs, testes, and the immune and cardiovascular systems. Because of its long half-life, exposure to even low Cd levels might be harmful. Cd-induced toxicity involves the overproduction of reactive oxygen species (ROS), resulting in oxidative stress and damage to essential biomolecules. Dietary antioxidants, such as chelating agents, display the potential to reduce Cd accumulation and metal-induced toxicity. Curcumin scavenges ROS and inhibits oxidative damage, thus resulting in many therapeutic properties. This review aims to address the effectiveness of curcumin against Cd-induced organ toxicity and presents evidence supporting the use of curcumin as a protective antioxidant.

姜黄素在印度被用作香料和传统药物,由于其抗氧化、镇痛和抗炎的特性,对几种疾病有有益的作用。有证据表明,姜黄素可能通过靶向抗氧化、抗炎症和抗肿瘤发生的生物途径来预防重金属诱导的器官毒性。姜黄素由于其治疗特性而受到了相当大的关注,最近对其一些作用的机制进行了研究。镉(Cd)是一种存在于环境中的重金属,在工业中被广泛使用。慢性Cd暴露会对骨骼、肝脏、肾脏、肺、睾丸、免疫系统和心血管系统造成损害。由于它的半衰期很长,即使接触到低水平的镉也可能有害。cd诱导的毒性涉及活性氧(ROS)的过量产生,导致氧化应激和必需生物分子的损伤。膳食抗氧化剂,如螯合剂,显示出减少镉积累和金属引起的毒性的潜力。姜黄素清除活性氧并抑制氧化损伤,从而产生许多治疗特性。本综述旨在探讨姜黄素对cd诱导的器官毒性的有效性,并提供证据支持姜黄素作为保护性抗氧化剂的使用。
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引用次数: 44
Xenobiotic metabolism and transport in Caenorhabditis elegans. 秀丽隐杆线虫的外源代谢和运输。
IF 7.2 2区 医学 Q1 ENVIRONMENTAL SCIENCES Pub Date : 2021-02-17 Epub Date: 2021-02-22 DOI: 10.1080/10937404.2021.1884921
Jessica H Hartman, Samuel J Widmayer, Christina M Bergemann, Dillon E King, Katherine S Morton, Riccardo F Romersi, Laura E Jameson, Maxwell C K Leung, Erik C Andersen, Stefan Taubert, Joel N Meyer

Caenorhabditis elegans has emerged as a major model in biomedical and environmental toxicology. Numerous papers on toxicology and pharmacology in C. elegans have been published, and this species has now been adopted by investigators in academic toxicology, pharmacology, and drug discovery labs. C. elegans has also attracted the interest of governmental regulatory agencies charged with evaluating the safety of chemicals. However, a major, fundamental aspect of toxicological science remains underdeveloped in C. elegans: xenobiotic metabolism and transport processes that are critical to understanding toxicokinetics and toxicodynamics, and extrapolation to other species. The aim of this review was to initially briefly describe the history and trajectory of the use of C. elegans in toxicological and pharmacological studies. Subsequently, physical barriers to chemical uptake and the role of the worm microbiome in xenobiotic transformation were described. Then a review of what is and is not known regarding the classic Phase I, Phase II, and Phase III processes was performed. In addition, the following were discussed (1) regulation of xenobiotic metabolism; (2) review of published toxicokinetics for specific chemicals; and (3) genetic diversity of these processes in C. elegans. Finally, worm xenobiotic transport and metabolism was placed in an evolutionary context; key areas for future research highlighted; and implications for extrapolating C. elegans toxicity results to other species discussed.

秀丽隐杆线虫已成为生物医学和环境毒理学的主要模型。许多关于秀丽隐杆线虫毒理学和药理学的论文已经发表,这个物种现在已经被学术毒理学、药理学和药物发现实验室的研究人员所采用。秀丽隐杆线虫也引起了负责评估化学品安全性的政府监管机构的兴趣。然而,秀丽隐杆线虫毒理学的一个主要的、基本的方面仍然不发达:对理解毒理动力学和毒理动力学至关重要的外源代谢和运输过程,以及对其他物种的外推。本综述的目的是初步简要描述秀丽隐杆线虫在毒理学和药理学研究中的历史和发展轨迹。随后,对化学吸收的物理障碍和蠕虫微生物组在异种转化中的作用进行了描述。然后对经典的第一阶段、第二阶段和第三阶段流程的已知和未知内容进行了回顾。此外,还讨论了以下内容:(1)外源代谢的调控;(2)对已发表的特定化学物质的毒性动力学进行综述;(3)秀丽隐杆线虫这些过程的遗传多样性。最后,将蠕虫的外源转运和代谢置于进化背景下;强调未来研究的重点领域;并讨论了将秀丽隐杆线虫毒性结果外推到其他物种的意义。
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引用次数: 41
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