Author :
Zecca, Massimiliano ; Endo, Nobutsuna ; Itoh, Kazuko ; Imanishi, Kazutaka ; Saito, Minoru ; Nanba, Nobuhiro ; Takanobu, Hideaki ; Takanishi, Atsuo
Abstract :
Personal Robots and Robot Technology (RT)-based assistive devices are expected to play a major role in Japan´s elderly-dominated society, both for joint activities with their human partners and for participation in community life. These new devices should be capable of smooth and natural adaptation and interaction with their human partners and the environment, should be able to communicate naturally with humans, and should never have a negative effect on their human partners, neither physical nor emotional. To achieve this smooth and natural integration between humans and robots, we need first to investigate and clarify how these interactions are carried out. Therefore, we developed the portable Bioinstrumentation System WB-1R (Waseda Bioinstrumentation system no.l Refined), which can measure the movements of the head, the arms, the hands (position, velocity, and acceleration), as well as several physiological parameters (electrocardiogram, respiration, perspiration, pulse wave, and so on), to objectively measure and understand the physical and physiological effects of the interaction between robots and humans. In this paper we present our development of the head and hands motion capture systems as additional modules for the Waseda Bioinstrumentation system No.1 (WB-1). The preliminary experimental results, given the inexpensiveness of the systems, are good for our purposes.
Keywords :
biomedical measurement; electrocardiography; geriatrics; handicapped aids; human computer interaction; intelligent sensors; man-machine systems; medical robotics; motion measurement; pneumodynamics; Japan elderly-dominated society; WB-1R bioinstrumentation system; Waseda Bioinstrumentation system no.1 Refined; acceleration measurement; arm movement measurement; electrocardiogram; hand motion capture; hand movement measurement; head motion capture; head movement measurement; human-robot integration; human-robot interaction evaluation; personal robots; perspiration measurement; physiological parameters; position measurement; pulse wave measurement; respiration measurement; smart sensors; tobot technology-based assistive devices; velocity measurement; Biomedical engineering; Biomedical measurements; Head; Human robot interaction; Humanoid robots; Mechanical engineering; Medical robotics; Position measurement; Pulse measurements; Velocity measurement; Bioinstrumentation; Human-machine interaction; sensor systems and smart sensors;