理学療法教育にAIを導入(AI in PT: How One Professor Is Leading the Charge)

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2025-10-27 タフツ大学

タフツ大学医学部のベンジャミン・スターン助教は、AIを理学療法(PT)教育に統合し、学生個別の学習支援と評価を自動化する革新的システムを構築した。AIエージェント群が講義内容から試験問題を生成・難易度を調整し、学生ごとの強みと弱点を解析してフィードバックを作成。授業準備時間を大幅に削減し、学習の質を向上させた。また、ASUとの共同研究で不完全データから予測モデルを構築するAI手法を開発し、医療教育と研究の両面でAIの実用性を示した。彼の活動はAIを活用した教育の民主化と医療人材育成の効率化を目指す先駆的試みとして注目されている。

<関連情報>

スパース観測からのトランスフォーマーベースの機械学習推論による既知と未知のダイナミクスの橋渡し Bridging known and unknown dynamics by transformer-based machine-learning inference from sparse observations

Zheng-Meng Zhai,Benjamin D. Stern & Ying-Cheng Lai
Nature Communications  Published:28 August 2025
DOI:https://doi.org/10.1038/s41467-025-63019-8

理学療法教育にAIを導入(AI in PT: How One Professor Is Leading the Charge)

Abstract

In applications, an anticipated issue is where the system of interest has never been encountered before and sparse observations can be made only once. Can the dynamics be faithfully reconstructed? We address this challenge by developing a hybrid transformer and reservoir-computing scheme. The transformer is trained without using data from the target system, but with essentially unlimited synthetic data from known chaotic systems. The trained transformer is then tested with the sparse data from the target system, and its output is further fed into a reservoir computer for predicting its long-term dynamics or the attractor. The proposed hybrid machine-learning framework is tested using various prototypical nonlinear systems, demonstrating that the dynamics can be faithfully reconstructed from reasonably sparse data. The framework provides a paradigm of reconstructing complex and nonlinear dynamics in the situation where training data do not exist and the observations are random and sparse.

 

非線形システムとしての傷害予測 Injury prediction as a non-linear system

Benjamin D. Stern, Eric J. Hegedus, Ying-Cheng Lai
Physical Therapy in Sport  Available online: 8 November 2019
DOI:https://doi.org/10.1016/j.ptsp.2019.10.010

Section snippets

Background- The injury prediction debate

The purpose of screening in sports is to examine large populations of asymptomatic individuals aiming to predict who is at greatest risk of sustaining an injury. Ideally, once at-risk athletes are identified, scientists, clinicians, and coaches would address variables associated with risk by using behavior modification, changing training regime, or improving movement strategies (mitigate risk). This approach is logical and would be of great benefit to active individuals everywhere, but sports

Athletes, like hurricanes are nonlinear, dynamic systems

Hurricanes and athletes are both nonlinear dynamic systems. The web of determinants for a hurricane includes wind speed, wind direction, humidity, and sea surface temperature, among others (Brennan & Majumdar, 2011). Because of the continuous-time nature of the system, it is necessary to collect data as frequently as possible. In fact, existing data-based methods to analyze nonlinear dynamical systems all require continuously sampled time series data to enable the intrinsic properties of the

Is there any evidence resistance to injury is a dynamic system?

There is some support for viewing the athlete’s resistance to injury as a dynamic system. Strength, power, and markers of muscle damage can vary dramatically throughout a season (Kraemer, Looney, Martin, & etal, 2013; McMaster, Gill, Cronin, & McGuigan, 2013). Physiological components of human performance can vary over the course of a single day (Ammar, Chtourou, & Souissi, 2017; Atkinson & Reilly, 1996; Kafkas, Taskiran, Sahin Kafkas, & etal, 2016). There is inherent uncertainty of the

Suggested changes in injury risk assessment

Studies examining the predictive value of various tests and measures on injury risk generally collect data from the screen just prior to the start of the sports season and injury data is then collated and analyzed at some point after the season (Hegedus, McDonough, & Bleakley, 2016; van Dyk, Bahr, Whiteley, & etal, 2016; Warren, Smith, & Chimera, 2015). Upon analyzing the data, positive or negative associations between injuries and the screening results are assumed. However, the time interval

Key points
  • Athletes and resistance to injury, like hurricanes, represent a dynamic system.
  • Prediction of injury methodology must improve if we are to capture meaningful relationships among variables and between variables and injury in a non-linear system, that evolves continuously over time.
  • More frequent and a broader sampling of the athlete’s web of injury determinants is required if we are to predict and modify injury risk.
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