TREXMO plus: an advanced self-learning model for occupational exposure assessment

被引:7
|
作者
Savic, Nenad [1 ]
Lee, Eun Gyung [2 ]
Gasic, Bojan [3 ]
Vernez, David [1 ]
机构
[1] Univ Lausanne, Ctr Primary Care & Publ Hlth Unisante, Route Corniche 2, CH-1066 Epalinges, Switzerland
[2] NIOSH, HELD, EAB, 1095 Willowdale Rd, Morgantown, WV 26505 USA
[3] Swiss State Secretariat Econ Affairs SECO, Chem & Occupat Hlth Unit, Holzikofenweg 36, CH-3003 Bern, Switzerland
关键词
Exposure assessment; REACH; Advanced REACH tool; Stoffenmanager; ECETOC TRA; TREXMO; STOFFENMANAGER; TOOL; ART; VALIDATION; REGRESSION; TRA;
D O I
10.1038/s41370-020-0203-9
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
In Europe, several occupational exposure models have been developed and are recommended for regulatory exposure assessment. Only some information on the substance of interest (e.g., vapor pressure) and the workplace conditions (e.g., ventilation rate) is required in these models to predict an exposure value that will be later used to characterize the risk. However, it has been shown that models may differ in their predictions and that usually, one of the models best fits a given set of exposure conditions. Unfortunately, there are no clear rules on how to select the best model. In this study, we developed a new modeling approach that together uses the three most popular models, Advanced REACH Tool, Stoffenmanger, and ECETOC TRAv3, to obtain a unique exposure prediction. This approach is an extension of the TREXMO tool, and is called TREXMO+. TREXMO+ applies a machine-learning technique on a set of exposure data with the measured values to split them into smaller subsets, corresponding to exposure conditions sharing similar characteristics. For each subset, TREXMO+ then establishes a regression model with the three REACH tools used as the exposure predictors. The performance of the new model was tested and a comparison was made between the results obtained by TREXMO+ and those obtained by conventional tools. TREXMO+ model was found to be less biased and more accurate than the REACH models. Its prediction differs generally from measurements by a factor of 2-3 from measurements, whereas conventional models were found to differ by a factor 2-14. However, as the available test dataset is limited, its results will need to be confirmed by larger-scale tests.
引用
收藏
页码:554 / 566
页数:13
相关论文
共 50 条
  • [31] A self-learning model for cylinder wakes using neural networks
    Balasubramanian, G
    Olinger, DJ
    Demetriou, MA
    PROCEEDINGS OF THE 5TH INTERNATIONAL SYMPOSIUM ON FLUID STRUCTURE INTERACTION, AEROELASTICITY, FLOW INDUCED VIBRATION AND NOISE, PTS A AND B, 2002, : 1313 - 1322
  • [32] A Self-Learning Information Diffusion Model for Smart Social Networks
    Xuan, Qi
    Shu, Xincheng
    Ruan, Zhongyuan
    Wang, Jinbao
    Fu, Chenbo
    Chen, Guanrong
    IEEE TRANSACTIONS ON NETWORK SCIENCE AND ENGINEERING, 2020, 7 (03): : 1466 - 1480
  • [33] Using Self-learning Representations for Objective Assessment of Patient Voice in Dysphonia
    Dang, Shaoxiang
    Matsumoto, Tetsuya
    Takeuchi, Yoshinori
    Kudo, Hiroaki
    Tsuboi, Takashi
    Tanaka, Yasuhiro
    Katsuno, Masahisa
    PROCEEDINGS OF 2022 ASIA-PACIFIC SIGNAL AND INFORMATION PROCESSING ASSOCIATION ANNUAL SUMMIT AND CONFERENCE (APSIPA ASC), 2022, : 359 - 363
  • [34] A Self-learning Sensorimotor Model based on Operant Conditioning Theory
    Zhang, Xiaoping
    Ruan, Xiaogang
    Xiao, Yao
    Huang, Jing
    Zhang, Xiaoping
    2015 IEEE ADVANCED INFORMATION TECHNOLOGY, ELECTRONIC AND AUTOMATION CONTROL CONFERENCE (IAEAC), 2015, : 572 - 576
  • [35] Self-learning Method for DDoS Detection Model in Cloud Computing
    Rukavitsyn, Andrey
    Borisenko, Konstantin
    Shorov, Andrey
    PROCEEDINGS OF THE 2017 IEEE RUSSIA SECTION YOUNG RESEARCHERS IN ELECTRICAL AND ELECTRONIC ENGINEERING CONFERENCE (2017 ELCONRUS), 2017, : 544 - 547
  • [36] Advanced quiz development for students’ self-learning in power generation, transmission and distribution
    Bogarra, Santiago
    Corbalán, Montserrat
    Plaza, Inmaculada
    International Journal of Electrical Engineering and Education, 2022, 59 (01): : 33 - 44
  • [37] Power Mobile Terminal Security Assessment Based on Weights Self-Learning
    Xi, Zesheng
    Chen, Lu
    Chen, Mu
    Dai, Zaojian
    Li, Yong
    2018 10TH INTERNATIONAL CONFERENCE ON COMMUNICATION SOFTWARE AND NETWORKS (ICCSN), 2018, : 502 - 505
  • [38] Advanced Credit-Assignment CMAC Algorithm for Robust Self-Learning and Self-Maintenance Machine
    张蕾
    曹其新
    王磊
    TsinghuaScienceandTechnology, 2004, (05) : 519 - 526
  • [39] Generative Model of Autoencoders Self-Learning on Images Represented by Count Samples
    V. E. Antsiperov
    Automation and Remote Control, 2022, 83 : 1959 - 1983
  • [40] Self-Learning pLSA Model for Abnormal Behavior Detection in Crowded Scenes
    Liu, Shuoyan
    Yang, Enze
    Fang, Kai
    IEICE TRANSACTIONS ON INFORMATION AND SYSTEMS, 2021, E104D (03): : 473 - 476