著者
MOCHIMARU Masaaki
出版者
脳機能とリハビリテーション研究会
雑誌
Journal of Rehabilitation Neurosciences (ISSN:24342629)
巻号頁・発行日
vol.20, no.JPN, pp.24-30, 2020 (Released:2020-10-09)

Rehabilitation is a co-creative medical service that strongly requires patient involvement. Encouraging patients to continue rehabilitation is an important role of medical services, and evaluation technology is also important from that perspective. The evaluation technology for rehabilitation was developed from the physical structure evaluation using medical images to the physical function evaluation using motion capture, ground reaction force and digital human models. Also, the idea that what should be restored is not only physical function but also daily-living function has been advocated, and standard description and evaluation of daily-living functioning have been promoted since the latter half of the 1990s. Furthermore, since 2000, research to evaluate functional recovery of the cranial nervous system, which controls motor function recovery, has made rapid progress in the field of neuro-rehabilitation. The rehabilitation evaluation has been integrated by the evaluation of the physical function, daily-living functioning, and the functional recovery of the cranial nervous system. In the future, these three functional evaluation technologies will be implemented in cooperation with advanced medical equipment that can be used in hospitals and wearable equipment and nursing robots that can be used in daily life. We believe that each person will be able to continue their daily rehabilitation with motivation while confirming to what extent the effects of rehabilitation are exerted on their cranial nerves, motor functions, and daily-living functions.
著者
MOCHIMARU Masaaki
出版者
脳機能とリハビリテーション研究会
雑誌
Journal of Rehabilitation Neurosciences (ISSN:24342629)
巻号頁・発行日
pp.200622, (Released:2020-06-24)

Rehabilitation is a co-creative medical service that strongly requires patient involvement. Encouraging patients to continue rehabilitation is an important role of medical services, and evaluation technology is also important from that perspective. The evaluation technology for rehabilitation was developed from the physical structure evaluation using medical images to the physical function evaluation using motion capture, ground reaction force and digital human models. Also, the idea that what should be restored is not only physical function but also daily-living function has been advocated, and standard description and evaluation of daily-living functioning have been promoted since the latter half of the 1990s. Furthermore, since 2000, research to evaluate functional recovery of the cranial nervous system, which controls motor function recovery, has made rapid progress in the field of neuro-rehabilitation. The rehabilitation evaluation has been integrated by the evaluation of the physical function, daily-living functioning, and the functional recovery of the cranial nervous system. In the future, these three functional evaluation technologies will be implemented in cooperation with advanced medical equipment that can be used in hospitals and wearable equipment and nursing robots that can be used in daily life. We believe that each person will be able to continue their daily rehabilitation with motivation while confirming to what extent the effects of rehabilitation are exerted on their cranial nerves, motor functions, and daily-living functions.
著者
Inami Masahiko Iwata Hiroyasu Kukita Minao Kurita Yuichi Minamizawa Kouta Mochimaru Masaaki Narumi Takuji Rekimoto Junichi Suzuki Kenji
出版者
富士技術出版株式会社
雑誌
Journal of Robotics and Mechatronics (ISSN:09153942)
巻号頁・発行日
vol.33, no.5, pp.985-986, 2021

<p>Information technologies, such as IoT, artificial intelligence (AI), and virtual reality (VR), have seen so much development that there is now a wide variety of digital equipment incorporated into the infrastructure of daily life. From the agrarian society (Society 1.0) through the information society (Society 4.0), humankind has created farmlands and cities by structuring natural environments physically and has built information environments by structuring them informationally. However, despite the rapid development of information environments, it may be fair to say that the perspectives of the human body have not changed at all since the industrial revolution.</p><p>In the context of these recent technological developments, greater attention is being paid to human augmentation studies. These studies aim for a new embodiment of "human-computer integration," one which can physically and informationally compensate or augment our innate sensory functions, motor functions, and intellectual processing functions by using digital equipment and information systems at will, as if they were our hands and feet. It has also been proposed that the technical systems that enable us to freely do what we want by utilizing human augmentations be called "JIZAI" (freedomization) as opposed to "automation."</p><p>The term "JIZAI body" used in these studies represents the new body image of humans who will utilize engineering and informatics technologies to act at will in the upcoming "super smart society" or "Society 5.0." In these studies, human augmentation technologies are an important component of JIZAI, but JIZAI is not the same as human augmentation. JIZAI is different in scope from human augmentation, as it aims to enable humans to move freely among the five new human body images: "strengthened sense" (augmented perception), "strengthened physical body" (body augmentation), "separately-designed mind and body" (out of body transform), "shadow cloning," and "assembling." In the society of the future where JIZAI bodies widely prevail, we will use technologies that enable us to do what we have failed at or given up due to limitations of our physical bodies. We believe that a future society, one in which aging does not reduce our capabilities but instead increased options give us hope, can be realized. This special issue, consisting of two review papers and twelve research papers, deals with diverse and wide-ranging areas, including human augmentation, robotics, virtual reality, and others. We would like to express our sincere appreciation to all the authors and reviewers of the papers contributed to this special issue and to the editorial committee of the Journal of Robotics and Mechatronics for their gracious cooperation.</p>