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使用呼气酒精浓度估算软件程序根据经皮酒精浓度数据估算呼气酒精浓度。

Estimating BrAC from transdermal alcohol concentration data using the BrAC estimator software program.

作者信息

Luczak Susan E, Rosen I Gary

机构信息

Department of Psychology, University of Southern California, Los Angeles, California; Department of Psychiatry, University of California, San Diego, California.

出版信息

Alcohol Clin Exp Res. 2014 Aug;38(8):2243-52. doi: 10.1111/acer.12478.

Abstract

BACKGROUND

Transdermal alcohol sensor (TAS) devices have the potential to allow researchers and clinicians to unobtrusively collect naturalistic drinking data for weeks at a time, but the transdermal alcohol concentration (TAC) data these devices produce do not consistently correspond with breath alcohol concentration (BrAC) data. We present and test the BrAC Estimator software, a program designed to produce individualized estimates of BrAC from TAC data by fitting mathematical models to a specific person wearing a specific TAS device.

METHODS

Two TAS devices were worn simultaneously by 1 participant for 18 days. The trial began with a laboratory alcohol session to calibrate the model and was followed by a field trial with 10 drinking episodes. Model parameter estimates and fit indices were compared across drinking episodes to examine the calibration phase of the software. Software-generated estimates of peak BrAC, time of peak BrAC, and area under the BrAC curve were compared with breath analyzer data to examine the estimation phase of the software.

RESULTS

In this single-subject design with breath analyzer peak BrAC scores ranging from 0.013 to 0.057, the software created consistent models for the 2 TAS devices, despite differences in raw TAC data, and was able to compensate for the attenuation of peak BrAC and latency of the time of peak BrAC that are typically observed in TAC data.

CONCLUSIONS

This software program represents an important initial step for making it possible for non mathematician researchers and clinicians to obtain estimates of BrAC from TAC data in naturalistic drinking environments. Future research with more participants and greater variation in alcohol consumption levels and patterns, as well as examination of gain scheduling calibration procedures and nonlinear models of diffusion, will help to determine how precise these software models can become.

摘要

背景

经皮酒精传感器(TAS)设备有可能让研究人员和临床医生在一段时间内不引人注意地收集数周的自然饮酒数据,但这些设备产生的经皮酒精浓度(TAC)数据与呼气酒精浓度(BrAC)数据并不总是一致。我们展示并测试了BrAC估计软件,这是一个旨在通过将数学模型拟合到佩戴特定TAS设备的特定个体的TAC数据来生成BrAC个性化估计值的程序。

方法

1名参与者同时佩戴两个TAS设备,持续18天。试验开始时进行了一次实验室酒精测试以校准模型,随后进行了一次有10次饮酒事件的现场试验。比较了各饮酒事件的模型参数估计值和拟合指数,以检查软件的校准阶段。将软件生成的BrAC峰值、BrAC峰值时间和BrAC曲线下面积的估计值与呼气分析仪数据进行比较,以检查软件的估计阶段。

结果

在这个单受试者设计中,呼气分析仪的BrAC峰值分数在0.013至0.057之间,尽管原始TAC数据存在差异,但该软件为两个TAS设备创建了一致的模型,并且能够补偿TAC数据中通常观察到的BrAC峰值衰减和BrAC峰值时间延迟。

结论

该软件程序是一个重要的初步步骤,使得非数学专业的研究人员和临床医生能够在自然饮酒环境中从TAC数据获得BrAC估计值。未来对更多参与者以及更大饮酒消费水平和模式差异的研究,以及对增益调度校准程序和扩散非线性模型的研究,将有助于确定这些软件模型能够达到的精确程度。

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