Rapid fiber-detection technique by artificial intelligence in phase-contrast microscope images of simulated atmospheric samples.

Since the manufacture, import, and use of asbestos products have been completely abolished in Japan, the main cause of asbestos emissions into the atmosphere is the demolition and removal of buildings built with asbestos-containing materials. To detect and correct asbestos emissions from inappropria...

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Publicado en:Annals of Work Exposures & Health Vol. 68; no. 4; pp. 420 - 427
Autores principales: Yamamoto, Takashi, Iwasaki, Kazuharu, Iida, Yukiko, Yuki, Ken-ichi, Nakaji, Fumihiro, Yamashiro, Hayato, Toyoguchi, Toshiyuki, Terazono, Atsushi
Formato: equations & formulas pictorial research tables/charts Journal Article
Publicado: Oxford University Press / USA May2024
Acceso en línea:Ver este registro en EBSCOhost
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      dt: May2024
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      pub: Oxford University Press / USA
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        10.1093/annweh/wxae014
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        atl: Rapid fiber-detection technique by artificial intelligence in phase-contrast microscope images of simulated atmospheric samples.
      aug:
        au:
          Yamamoto, Takashi
          Iwasaki, Kazuharu
          Iida, Yukiko
          Yuki, Ken-ichi
          Nakaji, Fumihiro
          Yamashiro, Hayato
          Toyoguchi, Toshiyuki
          Terazono, Atsushi
        affil: National Institute for Environmental Studies , 16-2 Onogawa, Tsukuba, Ibaraki 305-8506 , Japan
      sug:
        subj:
          Asbestos Analysis
          Artificial Intelligence
          Microscopy
          Simulations
          Image Processing, Computer Assisted
          Environmental Monitoring
          Human
          Environmental Exposure
          Air Pollutants
          Neural Networks (Computer)
          Precision
          Descriptive Statistics
          Construction Materials
      ab: Since the manufacture, import, and use of asbestos products have been completely abolished in Japan, the main cause of asbestos emissions into the atmosphere is the demolition and removal of buildings built with asbestos-containing materials. To detect and correct asbestos emissions from inappropriate demolition and removal operations at an early stage, a rapid method to measure atmospheric asbestos fibers is required. The current rapid measurement method is a combination of short-term atmospheric sampling and phase-contrast microscopy counting. However, visual counting takes a considerable amount of time and is not sufficiently fast. Using artificial intelligence (AI) to analyze microscope images to detect fibers may greatly reduce the time required for counting. Therefore, in this study, we investigated the use of AI image analysis for detecting fibers in phase-contrast microscope images. A series of simulated atmospheric samples prepared from standard samples of amosite and chrysotile were observed using a phase-contrast microscope. Images were captured, and training datasets were created from the counting results of expert analysts. We adopted 2 types of AI models—an instance segmentation model, namely the mask region-based convolutional neural network (Mask R-CNN), and a semantic segmentation model, namely the multi-level aggregation network (MA-Net)—that were trained to detect asbestos fibers. The accuracy of fiber detection achieved with the Mask R-CNN model was 57% for recall and 46% for precision, whereas the accuracy achieved with the MA-Net model was 95% for recall and 91% for precision. Therefore, satisfactory results were obtained with the MA-Net model. The time required for fiber detection was less than 1 s per image in both AI models, which was faster than the time required for counting by an expert analyst.
      pubtype: Academic Journal
      doctype:
        equations & formulas
        pictorial
        research
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        Journal Article
      ougenre: Article
    language: English
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