研究者業績

前田 佳孝

マエダ ヨシタカ  (Yoshitaka Maeda)

基本情報

所属
自治医科大学 メディカルシミュレーションセンター 講師
学位
博士(工学)(早稲田大学)

研究者番号
40754776
ORCID ID
 https://orcid.org/0000-0003-4895-2820
J-GLOBAL ID
201501068348483748
researchmap会員ID
7000011990

外部リンク

  • 日本人間工学会認定人間工学専門家(CPE)

受賞

 3

論文

 24
  • 前田佳孝
    ヒューマンファクターズ 29(1) 2024年8月  査読有り筆頭著者責任著者
  • Kosuke Oiwa, Satoshi Suzuki, Yoshitaka Maeda, Hikohiro Jinnai
    Renal Replacement Therapy 10(1) 2024年1月20日  査読有り
    Abstract Back ground In hemodialysis, hypotension occurs due to dehydration and solute removal. Conventional blood pressure monitoring during dialysis is intermittent and relies on staff experience and intuition to predict patient blood pressure trends based on the amount of water removed on the day and previous trends, which requires hemodialysis operations that do not lead to hypotension. Our research group has attempted to estimate blood pressure based on the spatial features of facial visible images, including information on facial color, and facial infrared images, including information on skin temperature. It is expected to realize early detection of blood pressure decrease during treatment if the blood pressure of dialysis patients can be estimated from their facial visible and infrared images measured continuously and remotely. In this study, we verified the applicability of deep learning algorithms in blood pressure estimation based on facial visible and infrared images of hemodialysis patients. Methods Measured facial visible and infrared images and mean blood pressure (MBP) of hemodialysis patients were applied to a convolutional neural network to construct an MBP estimation model based on the spatial features of the facial images. Results Average blood pressure could be estimated with an error of less than 20 mmHg based on the spatial features of the facial images, and the blood pressure estimation accuracy based on the spatial features of the facial infrared images was higher than that of the facial visible images. Conclusion We found the possibility of applying the deep learning algorithm to blood pressure estimation based on the spatial features of facial images. Trial registration This study is not subject to enrollment in a clinical trial due to the absence of both intervention and invasion. The Ethics Review Committee of Jichi Medical University has approved the same interpretation.
  • Gaku Ota, Mikio Shiozawa, Jun Watanabe, Yoshitaka Maeda, Kosuke Oiwa, Jun Mizuno, Naohiro Sata, Hiroshi Kawahira
    Cureus 16(1) e52402 2024年1月16日  査読有り
  • Gaku Ota, Yuji Kaneda, Yoshitaka Maeda, Kosuke Oiwa, Ryusuke Ae, Mikio Shiozawa, Hisanaga Horie, Naohiro Sata, Hiroshi Kawahira
    Cureus 16(1) e51900 2024年1月8日  査読有り
  • Hiroshi Kawahira, Yoshitaka Maeda, Yoshihiko Suzuki, Yuji Kaneda, Yoshikazu Asada, Yasushi Matsuyama, Alan Kawarai Lefor, Naohiro Sata
    The Asia Pacific Scholar 8(3) 65-67 2023年7月  査読有り

MISC

 7
  • 前田佳孝
    安全工学 62(6) 428-434 2023年12月  筆頭著者責任著者
  • 宮道 亮輔, 前田 佳孝, 淺田 義和, 兼田 裕司, 川平 洋
    医学教育 54(Suppl.) 136-136 2023年7月  
  • Yoshitaka Maeda
    Healthcare and Medical Devices 79 27-35 2023年7月  査読有り筆頭著者責任著者
  • 川平洋, 前田佳孝
    安全工学 62(3) 163-170 2023年6月  
  • 前田佳孝
    医療と安全 13 52-58 2021年9月  筆頭著者責任著者
  • Yoshitaka Maeda, Satoshi Suzuki, Akinori Komatsubara
    Engineering Psychology and Cognitive Ergonomics: Cognition and Design 10276 101-114 2017年  査読有り筆頭著者責任著者
    With the aim of designing an interface that supports troubleshooting of a dialysis machine, a medical-engineer (ME) cognitive task analysis was conducted in this study, with the error messages currently provided by a hemodialysis machine also being analyzed and evaluated. First, we developed the “error-message mechanism diagram” for the given problem, indicating the relationship between the error message and the notifying conditions of this message (corresponding to the candidate for the cause of the problem). Next, we developed the “cognitive task flow diagram,” which shows the cause candidates generated by the ME until the source of the problem was detected. This diagram also clarifies the manner in which the ME verifies the cause candidates and the information or knowledge employed by the ME. Then, for the given problem, we compared the cognitive task flow diagram of an ME who successfully detected the problem cause and corresponding error-message mechanism diagram to evaluate the efficacy of the error messages currently provided by the device.
  • 鈴木 聡, 前田 佳孝, 青木 洋貴, 石森 勇, 木全 直樹, 土谷 健, 峰島 三千男, 新田 孝作
    日本透析医学会雑誌 49(10) 637-644 2016年  
    アイトラッキングに用いるアイマークレコーダー(EMR)というデバイスを利用して、血液透析のスタッフ作業を対象とする研究に取り組んできた。それらを以下の項目に分けて紹介した。1)作業者の認知プロセスと情報処理、2)臨床で人間工学を利用するために、3)EMRの利用と問題点、4)人工心肺操作における熟達者と初学者の注意領域(透析以外の例)、5)血液回路の準備における習熟特性、6)治療における不具合判断プロセス評価、7)今後の研究展開とレジリエンスなスタッフ育成、として述べた。

書籍等出版物

 4

講演・口頭発表等

 93

共同研究・競争的資金等の研究課題

 7

産業財産権

 1

社会貢献活動

 2