人体激光视网膜剂量反应模型

Elharith M. Ahmed, E. Early, P. Kennedy, R. Thomas
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引用次数: 1

摘要

概率风险评估是在非受控环境中进行激光危害分析的一种可接受的技术。风险是暴露的可能性和暴露造成伤害的可能性的组合。剂量反应模型量化了损伤的可能性。在本研究中,我们建立了激光诱导视网膜损伤的人体剂量反应模型。它由两个子模型组成,一个是剂量-反应概率分布的均值,另一个是标准差。该模型的平均值拟合实验数据到一个简单的三参数表达式作为波长,曝光时间和视网膜组织类型的函数。一个比例因子转换适合于人类的暴露。一种新的人类脆弱性模型,基于人类群体内相关物理特征的多样性,确定了标准偏差。由于剂量-反应模型是特定于视网膜损伤的,变量是屈光不正、眼透过率和视网膜吸收。蒙特卡罗模拟与这些变量的概率分布,基于年龄,确定标准偏差作为波长的函数。我们详细介绍了剂量反应模型及其在普通人群中的应用。概率风险评估是在非受控环境中进行激光危害分析的一种可接受的技术。风险是暴露的可能性和暴露造成伤害的可能性的组合。剂量反应模型量化了损伤的可能性。在本研究中,我们建立了激光诱导视网膜损伤的人体剂量反应模型。它由两个子模型组成,一个是剂量-反应概率分布的均值,另一个是标准差。该模型的平均值拟合实验数据到一个简单的三参数表达式作为波长,曝光时间和视网膜组织类型的函数。一个比例因子转换适合于人类的暴露。一种新的人类脆弱性模型,基于人类群体内相关物理特征的多样性,确定了标准偏差。由于剂量反应模型是特定于视网膜损伤,变量是屈光不正,眼透射…
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Human laser retinal dose-response model
Probabilistic risk assessment is an acceptable technique for laser hazard analysis in uncontrolled environments. Risk is a combination of probability of exposure and probability of an injury resulting from that exposure. A dose-response model quantifies the probability of injury. In the present study, we developed a human dose-response model for laser induced retinal injuries. It consists of two sub-models, one for the mean and the other for the standard deviation of the dose-response probability distribution. The model for the mean fits experimental data to a simple three-parameter expression as a function of wavelength, exposure duration, and retinal tissue type. A scaling factor converts the fit to be appropriate for exposure of humans. A new human vulnerability model, based on the diversity of relevant physical characteristics within the human population, determines the standard deviation. Since the dose-response model is specific to retinal injuries, the variables are refractive error, ocular transmittance, and retinal absorptance. A Monte Carlo simulation with probability distributions for these variables, based on age, determines the standard deviation as a function of wavelength. We present details of the dose-response model along with their application to common human populations.Probabilistic risk assessment is an acceptable technique for laser hazard analysis in uncontrolled environments. Risk is a combination of probability of exposure and probability of an injury resulting from that exposure. A dose-response model quantifies the probability of injury. In the present study, we developed a human dose-response model for laser induced retinal injuries. It consists of two sub-models, one for the mean and the other for the standard deviation of the dose-response probability distribution. The model for the mean fits experimental data to a simple three-parameter expression as a function of wavelength, exposure duration, and retinal tissue type. A scaling factor converts the fit to be appropriate for exposure of humans. A new human vulnerability model, based on the diversity of relevant physical characteristics within the human population, determines the standard deviation. Since the dose-response model is specific to retinal injuries, the variables are refractive error, ocular transmi...
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