Real-time remote stress monitoring based on specific stress modelling considering load characteristics of different military forces

A. Almer, A. Weber, Florian Haid, L. Paletta, M. Schneeberger, Stefan Ladstätter, D. Wallner, Paul Glanz, Philip Klöckl, Dominik Eder, T. Hölzl
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Abstract

An ongoing challenge for the Military Task Forces is the management of personnel to optimise and maintain performance, whilst also ensuring ongoing health and wellbeing. In the course of intensive training and exercises as well as in real operational scenarios, soldiers often suffer physiological and psychological borderline stresses and also injuries during physical and combat-related training, with overuse injuries often occurring here. Innovative developments and research projects for the physiological monitoring of soldiers arise, based on innovative developments in the field of biosensor technology. Soldiers are at the center of deployed sociotechnical systems despite major innovations in the field of autonomous systems and artificial intelligence (Swiss, 2020). These are aspects and development approaches that are of great interest to military as well as civilian task forces. Motivation and Requirements: Military training and exercise missions as well as real deployment scenarios are often associated with a high degree of physical stress and responsibility and require a high level of mental performance and concentration. Reduced concentration and reaction cause delayed or possibly even wrong decisions, which can have fatal consequences. The research project VitalMonitor therefore focuses on the development of a (i) real-time monitoring system, which analyses changes in physiological parameters from heart rate, heart rate variability, skin conductance, core body temperature, etc., (ii) decision support tool for mission commanders to determine optimal work-rest-cycles preventing physical overstraining in trainings and missions (iii) personalized physical fitness training for soldiers to control their individual stress situation in a targeted manner avoiding poor performance. Methods and Results: In order to be able to make concrete statements about a current, individual stress situation for the soldiers of different task forces, it is necessary to characterize the work stress and to develop specific load and stress models. Basically, here is a relevant difference in the stress models if we compare e.g. CBRN group, light infantry forces and special military forces in the operational loads. In a first step, an attempt was made to create a so-called expert model for the load characteristics on the basis of extensive expert knowledge and measured values collected in the context of various stress tests with various military task forces. The focus was initially on the CBRN task force and further extensive tests were carried out as part of the VitalMonitor project.The basis for the creation of a specific stress model is the comprehensive analysis of the scenario-related work conditions, the psychological and cognitive stress as well as the physiological stress and the interrelationships that occur. The use of an available innovative bio-sensor technology must enable the remote measurement of vital values of the soldiers in the different deployment scenarios. Conclusion and Outlook: Soldiers are at the center of deployed sociotechnical military systems, while requirements in the physiological and cognitive field have increased significantly. Therefore, optimized capability and performance development for soldiers is a key focus for military organizations. Innovative biosensor technology, which is currently available on the commercial market, enables the monitoring of physiological parameters during physical strain and thus basically also during different military deployment scenarios. A targeted use for military tasks, which provides soldiers, executives and medical personnel with meaningful, real-time situation-relevant information, requires an intelligent analysis of the sensor data. These analysis methods take into account, on the one hand, the load characteristics of the operational scenarios and, on the other hand, the individual fitness and stress situation of the persons.
考虑不同部队载荷特性的基于特定应力模型的实时远程应力监测
军事工作队面临的一项持续挑战是管理人员,以优化和保持业绩,同时确保持续的健康和福利。在高强度的训练和演习过程中,以及在实际作战场景中,士兵经常遭受生理和心理的边缘压力,也会在身体和战斗相关的训练中受到伤害,这里经常发生过度使用伤害。基于生物传感器技术领域的创新发展,出现了士兵生理监测的创新发展和研究项目。尽管自主系统和人工智能领域出现了重大创新,但士兵仍处于部署的社会技术系统的中心(瑞士,2020年)。这些方面和发展方法是军事和文职工作队非常感兴趣的。动机和要求:军事训练和演习任务以及实际部署场景通常与高度的身体压力和责任有关,需要高水平的精神表现和注意力。注意力和反应的减少会导致决策的延迟,甚至可能是错误的,这可能会带来致命的后果。因此,研究项目VitalMonitor专注于开发一种实时监测系统,该系统可以分析心率、心率变异性、皮肤电导、核心体温等生理参数的变化。(二)为任务指挥官提供决策支持工具,以确定最佳的工作-休息周期,防止训练和任务中的身体过度紧张;(三)为士兵提供个性化的体能训练,以有针对性地控制他们的个人压力情况,避免表现不佳。方法与结果:为了能够对不同特遣部队士兵当前的个体压力情况做出具体的陈述,有必要对工作压力进行表征,并开发特定的负荷和压力模型。基本上,如果我们比较例如CBRN组,轻步兵部队和特种军事部队的作战载荷,这里是应力模型的相关差异。在第一步中,试图根据广泛的专家知识和在各军事工作队进行的各种压力测试中收集的测量值,为载荷特性创建所谓的专家模型。最初的重点是CBRN工作队,并作为VitalMonitor项目的一部分进行了进一步的广泛测试。创建特定压力模型的基础是对与场景相关的工作条件、心理和认知压力以及生理压力及其相互关系进行综合分析。使用现有的创新生物传感器技术,必须能够在不同的部署场景中远程测量士兵的重要价值。结论与展望:士兵是部署的社会技术军事系统的中心,而生理和认知领域的需求显著增加。因此,优化士兵的能力和绩效发展是军事组织关注的重点。创新的生物传感器技术,目前在商业市场上可用,可以在物理应变期间监测生理参数,因此基本上也可以在不同的军事部署场景中监测。有针对性地用于军事任务,为士兵、管理人员和医务人员提供有意义的实时情况相关信息,需要对传感器数据进行智能分析。这些分析方法一方面考虑了操作场景的载荷特性,另一方面考虑了人员的个体适应度和应激情况。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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