Next-generation healthcare infrastructure based on cross-layer optimization of biosignal sensing and communication

Impact Pub Date : 2024-01-22 DOI:10.21820/23987073.2024.1.25
Dairoku Muramatsu
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Abstract

The human body already uses electric signals to transmit information to and from the brain and the rest of the body but is there potential to harness the complex interactions between living organisms and electromagnetic waves to advance scientific disciplines? Associate Professor Dairoku Muramatsu is the head of the Muramatsu Laboratory. He leads the Bioelectromagnetics Research Group, Graduate School of Information Science and Engineering Mechanical and Intelligent Systems, University of Electro-Communications, Japan. He is a specialist in bioelectromagnetic engineering that spans engineering and medicine interested in the interactions between living organisms and electromagnetic waves and how improved understanding of these interactions could lead to practical, real-world impacts. A key principle behind Muramatsuâ–™s research is that by passing a weak electric current through the human body and using the body itself as a path for electric signals, it is possible to exchange information between people and objects that come into contact with them. He is working to create innovative and highly usable technology by making full use of simulation and manufacturing. As research on human body communication, which is wireless communication that uses the human body itself as a transmission path for high-frequency signals, findings will play a key role in the spread of wearable devices. Muramatsu has already proposed bioelectromagnetic models that serve as a tool for a wide range of bioelectronics and sensor designs, including non-invasive blood glucose monitoring using bioelectromagnetic response as an evaluation criterion.
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基于生物信号传感和通信跨层优化的下一代医疗保健基础设施
人体已经利用电信号在大脑和身体其他部位之间传递信息,但是否有可能利用生物有机体与电磁波之间复杂的相互作用来推动科学学科的发展呢?村松大六副教授是村松实验室的负责人。他领导着日本电气通信大学信息科学与工程机械和智能系统研究生院的生物电磁学研究小组。他是生物电磁工程方面的专家,研究领域横跨工程和医学,对生物体与电磁波之间的相互作用以及如何提高对这些相互作用的认识从而产生实际的、现实世界的影响非常感兴趣。Muramatsu™ 研究背后的一个关键原理是,通过微弱的电流通过人体,并利用人体本身作为电信号的路径,就有可能在人和与其接触的物体之间交换信息。他正致力于通过充分利用模拟和制造技术,创造出创新且实用性强的技术。人体通信是一种利用人体本身作为高频信号传输路径的无线通信,其研究成果将对可穿戴设备的普及起到关键作用。村松已经提出了生物电磁模型,作为各种生物电子学和传感器设计的工具,包括使用生物电磁响应作为评估标准的无创血糖监测。
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