Alborz Rahmani, Guglielmo Dini, Alfredo Montecucco, Luca Priano, Marco Leonetti, Alessia Manca, Bruno Kusznir Vitturi, Paolo Durando
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Moreover, we assessed the appropriateness of applying linear mixed models to occupational health data.</p><p><strong>Material and methods: </strong>A retrospective cohort study was conducted using health surveillance data from a cohort of anesthesiologists and a cohort of unexposed physicians working at the Polyclinic Hospital San Martino of Genoa, Italy, during 2016-2022. A 2-level linear mixed model with covariance structure of first order autoregressive model (AR(1)) type at the first level and unstructured type at the second level was applied.</p><p><strong>Results: </strong>One hundred seventy subjects were included in the analysis, equally divided between exposed and unexposed. At the first and last periodic examination, liver and kidney markers were not statistically different in the 2 cohorts. The only significant change found related to estimated glomerular filtrate, which was found at the last follow-up to be greater among the exposed (M = 104.18 vs. 90.07, p = 0.007). The linear mixed model showed that anesthetic gas exposure was not associated with any of the outcomes. These results suggest the absence of increase in liver and kidney profile markers in the study population.</p><p><strong>Conclusions: </strong>Health surveillance data, aggregated and analyzed with appropriate statistical models, allow inferences to be made about potential health effects of workers due to uncontrolled exposures. To this end, the linear mixed model represents a powerful tool for longitudinal analysis of data derived from monitoring workers. Int J Occup Med Environ Health. 2024;37(5):557-68.</p>","PeriodicalId":14173,"journal":{"name":"International journal of occupational medicine and environmental health","volume":" ","pages":"557-568"},"PeriodicalIF":1.4000,"publicationDate":"2024-12-09","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC11661019/pdf/","citationCount":"0","resultStr":"{\"title\":\"Monitoring of liver and kidney profiles in anesthesiologists working in a regional reference teaching hospital in Northern Italy: analysis of health surveillance data using a linear mixed model.\",\"authors\":\"Alborz Rahmani, Guglielmo Dini, Alfredo Montecucco, Luca Priano, Marco Leonetti, Alessia Manca, Bruno Kusznir Vitturi, Paolo Durando\",\"doi\":\"10.13075/ijomeh.1896.02342\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p><strong>Objectives: </strong>Anesthesiologists represent an occupational group exposed to specific occupational hazards, including potential exposure to waste anesthetic gas released during medical procedures. In recent decades, halogenated anesthetic gases, such as desflurane and sevoflurane, have largely replaced nitrous oxide, due to better safety profiles and lower adverse health effects. However, possible long-term effects of low concentration exposures are unknown. A longitudinal analysis of health surveillance data was performed to test for possible changes over time in key markers of liver and kidney function. Moreover, we assessed the appropriateness of applying linear mixed models to occupational health data.</p><p><strong>Material and methods: </strong>A retrospective cohort study was conducted using health surveillance data from a cohort of anesthesiologists and a cohort of unexposed physicians working at the Polyclinic Hospital San Martino of Genoa, Italy, during 2016-2022. A 2-level linear mixed model with covariance structure of first order autoregressive model (AR(1)) type at the first level and unstructured type at the second level was applied.</p><p><strong>Results: </strong>One hundred seventy subjects were included in the analysis, equally divided between exposed and unexposed. At the first and last periodic examination, liver and kidney markers were not statistically different in the 2 cohorts. The only significant change found related to estimated glomerular filtrate, which was found at the last follow-up to be greater among the exposed (M = 104.18 vs. 90.07, p = 0.007). The linear mixed model showed that anesthetic gas exposure was not associated with any of the outcomes. These results suggest the absence of increase in liver and kidney profile markers in the study population.</p><p><strong>Conclusions: </strong>Health surveillance data, aggregated and analyzed with appropriate statistical models, allow inferences to be made about potential health effects of workers due to uncontrolled exposures. To this end, the linear mixed model represents a powerful tool for longitudinal analysis of data derived from monitoring workers. 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引用次数: 0
摘要
目的:麻醉医师是暴露于特定职业危害的职业群体,包括潜在暴露于医疗过程中释放的废麻醉气体。近几十年来,卤化麻醉气体,如地氟烷和七氟烷,由于安全性更好,对健康的不良影响更小,已在很大程度上取代了一氧化二氮。然而,低浓度暴露可能产生的长期影响尚不清楚。对健康监测数据进行了纵向分析,以检测肝肾功能关键指标随时间可能发生的变化。此外,我们评估了将线性混合模型应用于职业健康数据的适宜性。材料和方法:采用2016-2022年意大利热那亚圣马蒂诺综合医院麻醉师队列和未暴露医师队列的健康监测数据进行回顾性队列研究。采用一阶自回归模型(AR(1))型协方差结构,第一级采用非结构化协方差结构的2级线性混合模型。结果:170名受试者被纳入分析,平均分为暴露者和未暴露者。在第一次和最后一次定期检查时,两组患者的肝脏和肾脏指标无统计学差异。唯一发现的显著变化与肾小球滤液估计值有关,在最后一次随访中发现暴露者的肾小球滤液估计值更高(M = 104.18 vs. 90.07, p = 0.007)。线性混合模型显示,麻醉气体暴露与任何结果都无关。这些结果表明,在研究人群中,肝脏和肾脏特征标记物没有增加。结论:用适当的统计模型对健康监测数据进行汇总和分析,可以推断由于不受控制的接触对工人的潜在健康影响。为此,线性混合模型是一种强大的工具,可以对来自监测工作者的数据进行纵向分析。中华医学杂志,2014;37(5)。
Monitoring of liver and kidney profiles in anesthesiologists working in a regional reference teaching hospital in Northern Italy: analysis of health surveillance data using a linear mixed model.
Objectives: Anesthesiologists represent an occupational group exposed to specific occupational hazards, including potential exposure to waste anesthetic gas released during medical procedures. In recent decades, halogenated anesthetic gases, such as desflurane and sevoflurane, have largely replaced nitrous oxide, due to better safety profiles and lower adverse health effects. However, possible long-term effects of low concentration exposures are unknown. A longitudinal analysis of health surveillance data was performed to test for possible changes over time in key markers of liver and kidney function. Moreover, we assessed the appropriateness of applying linear mixed models to occupational health data.
Material and methods: A retrospective cohort study was conducted using health surveillance data from a cohort of anesthesiologists and a cohort of unexposed physicians working at the Polyclinic Hospital San Martino of Genoa, Italy, during 2016-2022. A 2-level linear mixed model with covariance structure of first order autoregressive model (AR(1)) type at the first level and unstructured type at the second level was applied.
Results: One hundred seventy subjects were included in the analysis, equally divided between exposed and unexposed. At the first and last periodic examination, liver and kidney markers were not statistically different in the 2 cohorts. The only significant change found related to estimated glomerular filtrate, which was found at the last follow-up to be greater among the exposed (M = 104.18 vs. 90.07, p = 0.007). The linear mixed model showed that anesthetic gas exposure was not associated with any of the outcomes. These results suggest the absence of increase in liver and kidney profile markers in the study population.
Conclusions: Health surveillance data, aggregated and analyzed with appropriate statistical models, allow inferences to be made about potential health effects of workers due to uncontrolled exposures. To this end, the linear mixed model represents a powerful tool for longitudinal analysis of data derived from monitoring workers. Int J Occup Med Environ Health. 2024;37(5):557-68.
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.