某玻璃纤维制造厂员工恶性与非恶性呼吸道疾病的病例对照研究。2暴露评估。

L Chiazze, D K Watkins, C Fryar, J Kozono
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引用次数: 40

摘要

在欧文斯-康宁玻璃纤维公司俄亥俄州纽瓦克工厂的员工中进行了恶性和非恶性呼吸道疾病的病例对照研究。目的是确定接触纽瓦克工厂环境中的物质、接触非工作场所因素或两者结合在多大程度上可能对工厂工人因呼吸系统疾病死亡的风险起作用。对该工厂进行了历史环境重建,以确定从1934年开始到1987年底该工厂工人的暴露概况。暴露概况提供了对可呼吸纤维、细纤维、石棉、滑石粉、甲醛、二氧化硅和沥青烟雾的累积暴露的估计。欧文斯-康宁玻璃纤维的就业历史提供了就业特征信息(就业持续时间、受雇年份、首次受雇年龄),访谈调查获得了人口统计学特征信息(出生日期、种族、教育程度、婚姻状况、父母种族背景和出生地)、终身居住地、职业和吸烟史、爱好以及个人和家族病史。使用匹配的、未调整的比值比(ORs)来评估肺癌或非恶性呼吸系统疾病与累积暴露史、人口统计学特征和就业变量之间的关系。只有吸烟变量和就业特征(受雇年份和首次受雇年龄)对肺癌有统计学意义。对于非恶性呼吸系统疾病,在单变量分析中只有吸烟变量具有统计学意义。在进入肺癌条件logistic回归模型的变量中,只有吸烟(吸烟6个月或以上v从不吸烟:or = 26.17, 95%可信区间(95% CI) 3.316-206.5)和初入职场年龄(35岁及以上v小于35:or = 0.244, 95% CI 0.083-0.717)具有统计学意义。然而,工作年份的OR值增加(1945年之前首次雇用vs 1945年之后首次雇用:OR = 1.944, 95% CI 0.850-4.445),滑石粉(累计暴露>1000纤维/毫升天vs从未暴露:OR = 1.355, 95% CI 0.407-5.515)和沥青烟雾(累计暴露>0.01 mg/m(3)天vs从未暴露:OR 1.131, 95% CI 0.468-2.730)。对于非恶性呼吸系统疾病,在条件logistic回归分析中,只有吸烟变量具有显著性(OR = 2.637, 95% CI 1.146-6.069)。对于可吸入纤维、石棉、二氧化硅和沥青烟雾等累积暴露程度较高的类别,ORs有所提高。对于二氧化硅和沥青烟雾,ORs是所有暴露类别参照组的两倍多。有限数量的受试者暴露在细纤维中。病例和对照的缺乏限制了对细纤维进行分析的程度。在这些限制范围内,在使用细纤维的患者中,肺癌的未调整、未匹配的OR为1.0 (95% CI 0.229-4.373),而非恶性呼吸系统疾病的OR为1.5 (95% CI 0.336-6.702)。暴露于细纤维的肺癌的未调整OR与所有可呼吸纤维的一致,并没有表明两者之间存在关联。对于非恶性呼吸系统疾病,细纤维的未调整OR与所有可呼吸纤维的方向相反。在现有纤维数据的限制下,没有证据表明接触细纤维会增加患肺癌的风险。非恶性呼吸系统疾病的OR增加尚无定论。在这个地点和时间,这些人群的结果表明,可呼吸纤维和作为植物环境一部分的任何被调查的物质都不是肺癌风险的统计显著因素,尽管接触滑石粉和沥青烟雾的ORs增加了。吸烟是这一人群患肺癌风险的最重要因素。非恶性呼吸道疾病的情况就不那么清楚了。与肺癌不同的是,非恶性呼吸道癌症代表了一系列的结果,而不是一个明确的终点。虽然在本分析中,吸烟是导致非恶性呼吸系统疾病的唯一统计显著因素,但可呼吸纤维、石棉、二氧化硅和沥青烟雾的ORs在最高暴露类别中大于1。虽然这些物质的ORs升高可能是随机过程的结果,但它们可能表明风险增加,需要进一步调查。
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A case-control study of malignant and non-malignant respiratory disease among employees of a fiberglass manufacturing facility. II. Exposure assessment.

A case-control study of malignant and non-malignant respiratory disease among employees of the Owens-Corning Fiberglas Corporation's Newark, Ohio plant was undertaken. The aim was to determine the extent to which exposures to substances in the Newark plant environment, to non-workplace factors, or to a combination may play a part in the risk of mortality from respiratory disease among workers in this plant. A historical environmental reconstruction of the plant was undertaken to characterise the exposure profile for workers in this plant from its beginnings in 1934 to the end of 1987. The exposure profile provided estimates of cumulative exposure to respirable fibres, fine fibres, asbestos, talc, formaldehyde, silica, and asphalt fumes. Employment histories from Owens-Corning Fiberglas provided information on employment characteristics (duration of employment, year of hire, age at first hire) and an interview survey obtained information on demographic characteristics (birthdate, race, education, marital state, parent's ethnic background, and place of birth), lifetime residence, occupational and smoking histories, hobbies, and personal and family medical history. Matched, unadjusted odds ratios (ORs) were used to assess the association between lung cancer or non-malignant respiratory disease and the cumulative exposure history, demographic characteristics, and employment variables. Only the smoking variables and employment characteristics (year of hire and age at first hire) were statistically significant for lung cancer. For non-malignant respiratory disease, only the smoking variables were statistically significant in the univariate analysis. Of the variables entered into a conditional logistic regression model for lung cancer, only smoking (smoked for six months or more v never smoked: OR = 26.17, 95% confidence interval (95% CI) 3.316-206.5) and age at first hire (35 and over v less than 35: OR = 0.244, 95% CI 0.083-0.717) were statistically significant. There were, however, increased ORs for year of employment (first hired before 1945 v first hire after 1945: OR = 1.944, 95% CI 0.850-4.445), talc (cumulative exposure >1000 fibres/ml days v never exposed: OR = 1.355, 95% CI 0.407-5.515), and asphalt fumes (cumulative exposure >0.01 mg/m(3) days v never exposed: OR 1.131, 95% CI 0.468-2.730). For non-malignant respiratory disease, only the smoking variable was significant in the conditional logistic regression analysis (OR = 2.637, 95% CI 1.146-6.069). There were raised ORs for the higher cumulative exposure categories for respirable fibres, asbestos, silica, and asphalt fumes. For both silica and asphalt fumes, ORs were more than double the reference groups for all exposure categories. A limited number of subjects were exposed to fine fibres. The scarcity of cases and controls limits the extent to which analyses for fine fibre may be carried out. Within those limitations, among those who had worked with fine fibre, the unadjusted, unmatched OR for lung cancer was (1.0 (95% CI 0.229-4.373) and for non-malignant respiratory disease, the OR was 1.5 (95% CI 0.336-6.702). The unadjusted OR for lung cancer for exposure to fine fibre was consistent with that for all respirable fibre and does not suggest an association. For non-malignant respiratory disease, the unadjusted OR for fine fibre was opposite in direction from that for all respirable fibres. Within the limitations of the available data on fibre, there is o suggestion that exposure to fine fibre has resulted in an increase in risk of lung cancer. The increased OR for non-malignant respiratory disease is inconclusive. The results of this population, in this place and time, neither respirable fibres nor any of the substances investigated as part of the plant environment are statistically significant factors for lung cancer risk although there are increased ORs for exposure to talc and asphalt fumes. Smoking is the most important factors in risk for lung cancer in this population. The situation is less clear for non-malignant respiratory disease. Unlike lung cancer, non-malignant respiratory represents a constellation of outcomes and not a single well defined end point. Although smoking was the only statistically significant factor for non-malignant respiratory disease in this analysis, the ORs for respirable fibres, asbestos, silica, and asphalt fumes were greater than unity for the highest exposure categories. Although the raised ORs for these substances may represent the results of a random process, they may be suggestive of an increased risk and require further investigation.

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