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2023-01-19T15:18:39+0000
Vol.19 (2007)
No.6
(Dec)
Special Issue on Robotics for Gerontechnology
Special Issue on Robotics for Gerontechnology
Editorial: | p. 603 | |
Robotics for Gerontechnology |
| |
Yasuhisa Hasegawa | ||
Gerontechnology, an interdisciplinary field combining gerontology and technology, deals with the QoL (Quality of Life) and technological environments in an aging society. This new technology is closely related to assistive technology for compensation, assistance, and care support and to universal design ensuring that products provide a comfortable and safe living environment for people of the widely ranging age. Assistive robotics also contributes to independent living and social participation by people of all ages and all capabilities based on physical and information support. Robots provide solutions that reduce the cost of care in later life and that sustain an aging society by extending the working age in society, consequently. This special issue focuses on robotics contributing to gerontechnology, presenting 14 papers and one note on the latest achievements in this exiting research area. Five papers propose assistive technologies for human motion. One presents a home robot system for setting and clearing the table. Four propose monitoring of activities of daily living (ADL). Two introduce caring systems for people with dementia based on robot therapy and a cooperative game. Two present requisite technologies for gerontechnology, i.e., motion analysis for motion synthesis, and aging effect of hand pointing action. The final article introduces reminiscence therapy using photographs and a PC for people with dementia. I thank the authors for their invaluable contributions and the reviewers for their time and effort in making this special issue possible. I also thank the JRM Editorial Board for the opportunity to take part in this work. |
Paper: | pp. 604-611 | ||
Rehabilitation Walker with Standing-Assistance Device |
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Daisuke Chugo, Wataru Matsuoka, Songmin Jia, and Kunikatsu Takase |
Paper: | pp. 612-618 | ||
Portable Pneumatic Actuator System Using MH Alloys, Employed as Assistive Devices |
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Mitsuru Sato, Shuichi Ino, Naoki Yoshida, Takashi Izumi, and Tohru Ifukube |
Paper: | pp. 619-628 | ||
Wearable Power Assist Device for Standing Up Motion Using Pneumatic Rubber Artificial Muscles |
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Toshiro Noritsugu, Daisuke Sasaki, Masafumi Kameda, Atsushi Fukunaga, and Masahiro Takaiwa |
Paper: | pp. 629-636 | ||
A Case Study Approach: Walking Assist Scheme Exploiting Somatic Reflex of a Leg-Paralysis Patient |
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Kojiro Matsushita, Akihiro Yamakawa, Hiroshi Yokoi, and Tamio Arai |
Paper: | pp. 637-645 | ||
Evaluation and Development of Assistive Cart for Matching to User Walking |
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Kazuto Miyawaki, Takehiro Iwami, Yuuji Ogasawara, Goro Obinata, and Yoichi Shimada |
Paper: | pp. 646-655 | ||
Development of a Mobile Home Robot System Based on RECS Concept and its Application to Setting and Clearing the Table |
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Seiji Aoyagi, Takahiro Yamaguchi, Kazuo Tsunemine, Hiroshi Kinomoto, and Masaharu Takano |
Paper: | pp. 656-666 | ||
Evaluation of a Wearable Sensor System Monitoring Posture Changes and Activities for Use in Rehabilitation |
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Kosuke Motoi, Shinobu Tanaka, Yutaka Kuwae, Tadahiko Yuji, Yuji Higashi, Toshiro Fujimoto, and Ken-ichi Yamakoshi |
Paper: | pp. 667-675 | ||
An Ultrasonic 3D Tag System for Evidence-Based Nursing Care Support |
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Toshio Hori and Yoshifumi Nishida |
Paper: | pp. 676-682 | ||
Safety Confirmation System Using Mat-Sensor and Power Line Communications for Elderly Person |
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Kanya Tanaka, Kazuo Haruyama, and Yo Yamada |
Paper: | pp. 683-690 | ||
Development of a Television-Use Telemonitoring System for Elderly Daycare-Recipients Living Alone |
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Kazuki Nakajima, Akinori Kamiya, Hiroyuki Matsui, Daisuke Oikawa, Kentaro Fujita, Yuji Higashi, Toshiyo Tamura, Toshiro Fujimoto, and Kazuo Sasaki |
Paper: | pp. 691-697 | ||
Robot Therapy for Prevention of Dementia at Home – Results of Preliminary Experiment |
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Kazuyoshi Wada, Takanori Shibata, Takashi Asada, and Toshimitsu Musha |
Paper: | pp. 698-704 | ||
VR Applied Asobi-Litation System for Dementia Elderly in Group Homes |
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Mieko Ohsuga, Yumiko Inoue, Wataru Hashimoto, and Fumitaka Nakaizumi |
Paper: | pp. 705-714 | ||
Motion Analysis by Independent Component Analysis with Phase Difference Information Among Joints |
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Kiyoshi Hoshino and Tomoko Sato |
Paper: | pp. 715-723 | ||
A Study of Human Pointing Features on Touch-Screens -Age Effect, Difference by Gender, and Difference in Direction- |
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Masanobu Komazaki and Masanori Idesawa |
Paper: | pp. 724-727 | ||
Reminiscence – A Comparison of Conventional Therapeutic and Computer-Based Interactive Methods |
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Toshiyo Tamura, Mariko Ohsumi, Daisuke Oikawa, Yuji Higashi, Toshiro Fujimoto, Takatoshi Suenaga, and Noriaki Kuwahara |
No.5
(Oct)
Special Issue on System Cell Engineering by Multiscale Manipulation
Special Issue on System Cell Engineering by Multiscale Manipulation
Editorial: | p. 499 | |
System Cell Engineering by Multiscale Manipulation |
| |
Toshio Fukuda and Kenji Inoue | ||
Recent advancements in micro/nano robotics and mechatronics technology have contributed to the discovery of new scientific knowledge in bioscience and the development of new treatments and examinations in medical fields. To promote interdisciplinary research among the engineering, biological, and medical fields and to promote further progress in these fields, Scientific Research on Priority Areas, “System Cell Engineering by Multiscale Manipulation (Head Investigator: Toshio Fukuda),” was begun in 2005. In this research area, we study system cell engineering seeking an understanding of communication and control principles of bare and integration functions of cells. We focus on manipulation technology for work from nano- to macro-scale, i.e., multiscale manipulation. By controlling the local environment around a single cell, we actively induce chemical and physical interaction inside and outside the cell and measure changes. We then work to clarify the mechanism behind the cell system and to realize an artificial cell model based on gene expression control and regenerate tissue by function control. Using innovative engineering technology, we obtain new scientific knowledge in the life sciences and develop medical engineering, ultimately contributing to the good of society. This special issue presents 2 reviews and 13 papers on the latest achievements in this research area. The reviews introduce challenging work in medical and biological fields, presenting suggestions on robotics and mechatronics engineers. Eight of the papers propose novel sensors, actuators, and other devices useful in bioscience and cell engineering. Two papers present methods of manipulating micro/nano-scale objects based on laser manipulation, and 2 concern the teleoperations of micro-hands and micro-manipulators for micromanipulation. The final paper discusses the interaction between living neuronal networks and the outer world. We thank the authors for their invaluable contributions to this issue and the reviewers for their precious time and effort. We also thank the Editorial Board of JRM for making this issue possible. |
Review: | pp. 500-505 | ||
Grand Espoir: Robotics in Regenerative Medicine |
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Masayuki Yamato, Ryo Takagi, Makoto Kondo, Daisuke Murakami, Takeshi Ohki, Hidekazu Sekine, Tatsuya Shimizu, Jun Kobayashi, Yoshikatsu Akiyama, Hideo Namiki, Masakazu Yamamoto, and Teruo Okano |
Review: | pp. 506-511 | ||
Tooth Regenerative Therapy, Approached from Organogenesis |
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Kazuhisa Nakao and Takashi Tsuji |
Paper: | pp. 512-518 | ||
Fabrication of FIB-CVD Nanotemperature Sensor Probe for Local Temperature Sensing in Water Environments |
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Haitham ElShimy, Masahiro Nakajima, Yoshiaki Imaizumi, Fumihito Arai, and Toshio Fukuda |
Paper: | pp. 519-523 | ||
Multiscale 2D-SPR Biosensing for Cell Chips |
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Masayasu Suzuki, Toyohiro Ohshima, Shintaro Hane, Yasunori Iribe, and Tatsuya Tobita |
Paper: | pp. 524-527 | ||
Liquid Crystal Actuator Using Nematic π-Cell |
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Yoshitaka Mieda and Katsushi Furutani |
Paper: | pp. 528-534 | ||
Development of Novel Nanopipette with a Lipid Nanotube as Nanochannel |
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Kousuke Nogawa, Yusuke Tagawa, Masahiro Nakajima, Fumihito Arai, Toshimi Shimizu, Shoko Kamiya, and Toshio Fukuda |
Paper: | pp. 535-543 | ||
Fabrication of Cell-Adhesion Surface and Arteriole Model by Photolithography |
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Fumihito Arai, Takuma Nakano, Mika Tada, Yu-Ching Lin, Seiichi Ikeda, Tomoyuki Uchida, Hiroyuki Oura, Toshio Fukuda, Takehisa Matsuda, and Makoto Negoro |
Paper: | pp. 544-549 | ||
Development of a Multi-Compartment Micro-Cell Culture Device as a Future On-Chip Human: Fabrication of a Three-Compartment Device and Immobilization of Mature Rat Adipocytes for the Evaluation of Chemical Distributions |
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Hidenari Nakayama, Hiroshi Kimura, Kikuo Komori, Teruo Fujii, and Yasuyuki Sakai |
Paper: | pp. 550-556 | ||
Microfluidic Perfusion Culture of Human Hepatocytes |
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Hiroshi Kimura, Masaki Nishikawa, Takatoki Yamamoto, Yasuyuki Sakai, and Teruo Fujii |
Paper: | pp. 557-564 | ||
Effect of Mechanical Environment of Focal Adhesions on Remodeling of Endothelial Cells Subjected to Cyclic Stretching Using Microsubstrates |
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Naoya Sakamoto, Yoshimasa Yamazaki, Toshiro Ohashi, and Masaaki Sato |
Paper: | pp. 565-568 | ||
Optically Driven Micromanipulators with Rotating Arms |
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Shoji Maruo and Yojiro Hiratsuka |
Paper: | pp. 569-576 | ||
In-Situ Formation of a Gel Microbead for Laser Micromanipulation of Microorganisms, DNA, and Viruses |
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Akihiko Ichikawa, Ayae Honda, Miho Ejima, Tamio Tanikawa, Fumihito Arai, and Toshio Fukuda |
Paper: | pp. 577-584 | ||
Performance Evaluation of Teleoperation for Manipulating Micro Objects Using Two-Fingered Micro Hand |
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Kenji Inoue, Daisuke Nishi, Tomohito Takubo, Tamio Tanikawa, and Tatsuo Arai |
Paper: | pp. 585-591 | ||
Versatile Robotic Biomanipulation with Haptic Interface |
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Gilgueng Hwang, Preeda Chantanakajornfung, and Hideki Hashimoto |
Paper: | pp. 592-600 | ||
Biomodeling System – Interaction Between Living Neuronal Networks and the Outer World |
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Suguru N. Kudoh, Chie Hosokawa, Ai Kiyohara, Takahisa Taguchi, and Isao Hayashi |
No.4
(Aug)
Special Issue on Mobiligence: Emergence of Adaptive Motor Function Through Interaction Among the Body, Brain and Environment
Special Issue on Mobiligence: Emergence of Adaptive Motor Function Through Interaction Among the Body, Brain and Environment
Editorial: | p. 363 | |
Mobiligence: Emergence of Adaptive Motor Function Through Interaction Among the Body, Brain and Environment |
| |
Hajime Asama and Jun Ota | ||
Animals behave adaptively in diverse environments. Adaptive behavior, which is one of intelligent sensory-motor functions, is disturbed in patients with neurological disorders. Mechanisms for the generation of intelligent adaptive behaviors are not well understood. Such an adaptive function is considered to emerge from the interaction of the body, brain, and environment, which requires that a subject acts or moves. Intelligence for generating adaptive motor functions is thus called mobiligence. This special issue features papers dealing with mobiligence. The 18 papers were selected after a thorough peer review. The scope of these papers extends from analytical studies close to biology to synthetic studies close to engineering. Subjects are diverse – insects, monkeys, human beings, robots, networks. All papers play a part in mobiligence studies. We thank the Editorial Board of Journal of Robotics and Mechatronics for giving us the opportunity for publishing this special issue. We also thank the authors for their perseverance and expertise, and deeply appreciate the timely and helpful comments of the reviewers. |
Paper: | pp. 364-368 | ||
Analysis of Multineuron Activity Using the Kernel Method |
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Masaki Nomura, Yoshio Sakurai, and Toshio Aoyagi |
Paper: | pp. 369-373 | ||
Reorganization of the Central Nervous Systems in Response to Changes in Social Environment Among Insects |
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Ken Sasaki and Takashi Nagao |
Paper: | pp. 374-380 | ||
Mechanical Dynamics That Enables Stable Passive Dynamic Bipedal Running – Enhancing Self-Stability by Exploiting Nonlinearity in the Leg Elasticity – |
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Dai Owaki and Akio Ishiguro |
Paper: | pp. 381-387 | ||
A Prosthetic Hand Control Based on Nonstationary EMG at the Start of Movement |
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Masakatsu Tsukamoto, Toshiyuki Kondo, and Koji Ito |
Paper: | pp. 388-394 | ||
A Neuromodulation Model for Adaptive Behavior Selection by the Cricket – Nitric Oxide (NO)/Cyclic Guanosine MonoPhosphate (cGMP) Cascade Model – |
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Kuniaki Kawabata, Tomohisa Fujiki, Yusuke Ikemoto, Hitoshi Aonuma, and Hajime Asama |
Paper: | pp. 395-401 | ||
An Environment Cognition and Motor Adaptation Model Eliciting Sensorimotor Constraints Based on Time-Series Observations |
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Toshiyuki Kondo and Koji Ito |
Paper: | pp. 402-408 | ||
Design of the Passive Dynamic Walking Robot by Applying its Dynamic Properties |
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Masatsugu Iribe and Koichi Osuka |
Paper: | pp. 409-415 | ||
Synchrony-Induced Attractor Transition in Cortical Neural Networks Organized by Spike-Timing Dependent Plasticity |
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Takaaki Aoki and Toshio Aoyagi |
Paper: | pp. 416-422 | ||
Linear Discrimination Analysis of Monkey Behavior in an Alternative Free Choice Task |
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Kazuhito Takenaka, Yasuo Nagasaka, Sayaka Hihara, Hiroyuki Nakahara, Atsushi Iriki, Yasuo Kuniyoshi, and Naotaka Fujii |
Paper: | pp. 423-428 | ||
Terrain Negotiation of a Compliant Biped Robot Driven by Antagonistic Artificial Muscles |
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Takashi Takuma and Koh Hosoda |
Paper: | pp. 429-435 | ||
Mathematical Model of Proportion Control and Fluctuation Characteristic in Termite Caste Differentiation |
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Yusuke Ikemoto, Kuniaki Kawabata, Toru Miura, and Hajime Asama |
Paper: | pp. 436-443 | ||
Insect-Controlled Robot – Evaluation of Adaptation Ability – |
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Shuhei Emoto, Noriyasu Ando, Hirokazu Takahashi, and Ryohei Kanzaki |
Paper: | pp. 444-447 | ||
Hidden Markov Modeling of Human Pivoting |
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Yusuke Maeda and Tatsuya Ushioda |
Paper: | pp. 448-458 | ||
Autonomous Control of Reaching Movement by ‘Mobility’ Measure |
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Yuki Yoshihara, Nozomi Tomita, Yoshinari Makino, and Masafumi Yano |
Paper: | pp. 459-465 | ||
Emergence of a Small-World Like Communication Network Through Local Ad Hoc Negotiation |
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Daisuke Kurabayashi, Tomohiro Inoue, Akira Yajima, and Tetsuro Funato |
Paper: | pp. 466-473 | ||
Foraging Task of Multiple Mobile Robots in a Dynamic Environment Using Adaptive Behavior in Crickets |
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Masatoshi Ashikaga, Mika Kikuchi, Tetsutaro Hiraguchi, Midori Sakura, Hitoshi Aonuma, and Jun Ota |
Paper: | pp. 474-481 | ||
Feed-Forward Adaptation to a Varying Dynamic Environment During Reaching Movements |
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Koji Ito, Makoto Doi, and Toshiyuki Kondo |
Paper: | pp. 482-488 | ||
Experimental Analysis of the Attribution of Own Actions to the Intention of Self or Others by the Multiple Forward Models |
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Mihoko Otake, Kohei Arai, Motoichiro Kato, Takaki Maeda, Yusuke Ikemoto, Kuniaki Kawabata, Toshihisa Takagi, and Hajime Asama |
Development Report: | pp. 489-496 | ||
Navigation of Autonomous Mobile Cleaning Robot SuiPPi |
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Tatsuo Sakai, Daisuke Nishimura, Hiroyuki Uematsu, Ryosuke Murai, Koichi Mitani, Tomoharu Nakahara, and Yukihiko Kitano |
No.3
(Jun)
Special Issue on Selected Papers from ROBOMEC'06 (Part 2)
Special Issue on Selected Papers from ROBOMEC'06 (Part 2)
Editorial: | p. 251 | |
Selected Papers from ROBOMEC’06 (Part 2) |
| |
Kiyoshi Komoriya and Shigeki Sugano | ||
The 2006 JSME Conference on Robotics and Mechatronics (ROBOMEC’06) was held at Waseda University and Shinjuku Cosmic Center, Tokyo, Japan, on May 26-28, 2006, sponsored by the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers. Prof. Fujie of Waseda University served as general chair and Prof. Sugano of Waseda University as program chair. The conference, whose theme was “Robot Technology Integration for Improved Quality of Life,” was to help establish new life style in coming aged society using advanced robotics and mechatronics technologies. Organized sessions numbered 63 and papers 883, again a record for the conference. This special issue presents 12 papers from the conference culled from 90 outstanding presentations – some 10% of the total – which were further narrowed to 37 before final selection for Part 2 (Vol.19, No.3). Thirteen papers have already been published in Vol.19 No.2. We thank the authors for their invaluable contributions to this issue and the reviewers for their time and effort. We also thank the former Editor-in-Chief Prof. Makoto Kaneko of Osaka University for organizing this special issue. |
Paper: | pp. 252-257 | ||
Development of a Transformable Mobile Robot with a Variable Wheel Diameter |
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Keiji Nagatani, Mitsuhiro Kuze, and Kazuya Yoshida |
Paper: | pp. 258-263 | ||
Wheel-Based Stair Climbing Robot with Hopping Mechanism – Fast Stair Climbing and Soft Landing Using Vibration of 2-DOF System – |
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Keisuke Sakaguchi, Takayuki Sudo, Naoki Bushida, Yasuhiro Chiba, Yuji Asai, and Koki Kikuchi |
Paper: | pp. 264-271 | ||
Omnidirectional and Holonomic Mobile Platform with Four-Wheel-Drive Mechanism for Wheelchairs |
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Masayoshi Wada |
Paper: | pp. 272-280 | ||
Experimental Stiffness Measurement of WL-16RII Biped Walking Vehicle During Walking Operation |
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Yusuke Sugahara, Giuseppe Carbone, Kenji Hashimoto, Marco Ceccarelli, Hun-Ok Lim, and Atsuo Takanishi |
Paper: | pp. 281-289 | ||
Sound Localization and Separation for Mobile Robot Tele-Operation by Tri-Concentric Microphone Array |
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Yoko Sasaki, Saori Masunaga, Simon Thompson, Satoshi Kagami, and Hiroshi Mizoguchi |
Paper: | pp. 290-297 | ||
Development of Obstacle Recognition System of Humanoids Using Relative Disparity Maps from Small Range Image Sensors |
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Naotaka Hikosaka, Kei Watanabe, and Kazunori Umeda |
Paper: | pp. 298-307 | ||
Decision Making for a Mobile Robot Using Potential Function |
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Kazumi Oikawa, Hidenori Takauji, Takanori Emaru, Takeshi Tsuchiya, and Shigenori Okubo |
Paper: | pp. 308-314 | ||
Development of an Articulated Mechanical Hand with Enveloping Grasp Capability |
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Nobuaki Imamura, Yuya Nakamura, Seiichi Yamaoka, Hidenori Shirasawa, and Hiroyuki Nakamoto |
Paper: | pp. 315-323 | ||
Mapping Facial Expression to Internal States Based on Intuitive Parenting |
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Ayako Watanabe, Masaki Ogino, and Minoru Asada |
Paper: | pp. 324-330 | ||
Development of a Face Robot Imitating Human Muscle Structures |
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Minoru Hashimoto, Chisaki Yokogawa, Tsugutake Sadoyama, and Toru Sugahara |
Paper: | pp. 331-338 | ||
A Study on Catheter Drives for Automatic Aspiration Working with Ventilator |
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Yuzo Yamaguchi, Takumi Yoshimizu, Yoshihiro Muta, and Mitsuo Tashiro |
Paper: | pp. 339-352 | ||
Development of an Intraoperative Information Integration System and Implementation for Neurosurgery |
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Eisuke Aoki, Masafumi Noguchi, Jae-Sung Hong, Etsuko Kobayashi, Ryoichi Nakamura, Takashi Maruyama, Yoshihiro Muragaki, Hiroshi Iseki, and Ichiro Sakuma |
Paper: | pp. 353-360 | ||
Control of Smooth Biped Walking by Means of Heel-Off Motion |
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Masahiro Doi, Yasuhisa Hasegawa, and Toshio Fukuda |
No.2
(Apr)
Special Issue on Selected Papers from ROBOMEC'06 (Part 1)
Special Issue on Selected Papers from ROBOMEC'06 (Part 1)
Editorial: | p. 133 | |
Selected Papers from ROBOMEC’06 (Part 1) |
| |
Kiyoshi Komoriya and Shigeki Sugano | ||
The 2006 JSME Conference on Robotics and Mechatronics (ROBOMEC’06) was held at Waseda University and Shinjuku Cosmic Center, Tokyo, Japan, on May 26-28, 2006, sponsored by the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers. Prof. Fujie of Waseda University served as general chair and Prof. Sugano of Waseda University as program chair. The conference, whose theme was “Robot Technology Integration for Improved Quality of Life,” was to help establish new life style in coming aged society using advanced robotics and mechatronics technologies. Organized sessions numbered 63 and papers 883, again a record for the conference. This special issue presents 13 papers from the conference culled from 90 outstanding presentations – some 14% of the total – which were further narrowed to 37 before final selection for Part 1 (Vol.19, No.2). We thank the authors for their invaluable contributions to this issue and the reviewers for their time and effort. We also thank the former Editor-in-Chief Prof. Makoto Kaneko of Osaka University for organizing this special issue. |
Paper: | pp. 134-140 | ||
Grasping Operation Based on Functional Cooperation of Fingers |
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Kazuyuki Nagata, Fuminori Saito, Yujin Wakita, and Takashi Suehiro |
Paper: | pp. 141-147 | ||
Integrated Multi-Step Design Method for Practical and Sophisticated Compliant Mechanisms Combining Topology and Shape Optimizations |
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Masakazu Kobayashi, Shinji Nishiwaki, and Hiroshi Yamakawa |
Paper: | pp. 148-159 | ||
Development of Four Kinds of Mobile Robot with Preliminary-Announcement and Indication Function of Upcoming Operation |
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Takafumi Matsumaru |
Paper: | pp. 160-165 | ||
Light Weight Quadruped with Nine Actuators |
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Kan Yoneda |
Paper: | pp. 166-173 | ||
Three-Dimensional Obstacle Avoidance of Blimp-Type Unmanned Aerial Vehicle Flying in Unknown and Non-Uniform Wind Disturbance |
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Hiroshi Kawano |
Paper: | pp. 174-180 | ||
A Mobile Mapping System for Precise Road Line Localization Using a Single Camera and 3D Road Model |
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Kiichiro Ishikawa, Yoshiharu Amano, Takumi Hashizume, Jun-ichi Takiguchi, and Naoyuki Kajiwara |
Paper: | pp. 181-189 | ||
Improvement of Ride Quality of a Wheelchair When it Passes over Small Steps |
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Masaru Higuchi, Tomonori Shinagawa, Hirohiko Ito, Yukio Takeda, and Koichi Sugimoto |
Paper: | pp. 190-197 | ||
Trajectory Planning of Motile Cell for Microrobotic Applications |
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Naoko Ogawa, Hiromasa Oku, Koichi Hashimoto, and Masatoshi Ishikawa |
Paper: | pp. 198-204 | ||
3D Manipulation of Lipid Nanotubes with Functional Gel Microbeads |
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Fumihito Arai, Toshiaki Endo, Ryuji Yamauchi, Toshio Fukuda, Toshimi Shimizu, and Shoko Kamiya |
Paper: | pp. 205-211 | ||
Modeling and Feedforward Flow Rate Control of Automatic Pouring System with Real Ladle |
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Yoshiyuki Noda and Kazuhiko Terashima |
Paper: | pp. 212-222 | ||
Plastic-Bottle-Based Robots in Educational Robotics Courses – Understanding Embodied Artificial Intelligence – |
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Kojiro Matsushita, Hiroshi Yokoi, and Tamio Arai |
Development Report: | pp. 223-231 | ||
Development of a Portable Multipurpose Controller for Mechatronics Education |
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Kazuhito Hyodo, Hirokazu Noborisaka, Keijiro Yamamoto, and Takashi Yada |
Development Report: | pp. 232-242 | ||
Development of Network Plug-in Actuator |
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Takuya Izuchi, Munetoshi Hotta, Takeo Oomichi, Shigeo Seki, and Junji Koyama |
No.1
(Feb)
Regular papers
Regular Papers
Paper: | pp. 3-12 | ||
Self-Stabilizing Dynamics for a Quadruped Robot and Extension Toward Running on Rough Terrain |
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Zu Guang Zhang, Hiroshi Kimura, and Yasuhiro Fukuoka |
Paper: | pp. 13-26 | ||
Development of a Quadruped Walking Robot TITAN XI for Steep Slope Operation – Step Over Gait to Avoid Concrete Frames on Steep Slopes – |
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Ryuichi Hodoshima, Takahiro Doi, Yasushi Fukuda, Shigeo Hirose, Toshihito Okamoto, and Junichi Mori |
Paper: | pp. 27-33 | ||
Development of a Real-Time Tunable Spring – Toward Independent Control of Position and Stiffness of Joints – |
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Takuya Umedachi, Yasutake Yamada, and Akio Ishiguro |
Paper: | pp. 34-41 | ||
Mobile Robot with Floor Tracking Device for Localization and Control |
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Isaku Nagai and Yutaka Tanaka |
Paper: | pp. 42-51 | ||
Detecting Feature of Haptic Interaction Based on Distributed Tactile Sensor Network on Whole Body |
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Tomoyuki Noda, Takahiro Miyashita, Hiroshi Ishiguro, Kiyoshi Kogure, and Norihiro Hagita |
Paper: | pp. 52-59 | ||
Configuration-Based Wheel Control for Step-Climbing Vehicle |
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Daisuke Chugo, Kuniaki Kawabata, Hayato Kaetsu, Hajime Asama, and Taketoshi Mishima |
Paper: | pp. 60-67 | ||
Master-Slave Control for Construction Robot Teleoperation – Application of a Velocity Control with a Force Feedback Model – |
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Hironao Yamada, Gong Ming-de, and Zhao Dingxuan |
Paper: | pp. 68-76 | ||
Learning from Approximate Human Decisions by a Robot |
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Chandimal Jayawardena, Keigo Watanabe, and Kiyotaka Izumi |
Paper: | pp. 77-84 | ||
Range Measurement Using a Digital Camera Flash |
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Naoya Ogawa and Kazunori Umeda |
Paper: | pp. 85-96 | ||
Classification of Prism Object Shapes Utilizing Tactile Spatiotemporal Differential Information Obtained from Grasping by Single-Finger Robot Hand with Soft Tactile Sensor Array |
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Kenshi Watanabe, Kenichi Ohkubo, Sumiaki Ichikawa, and Fumio Hara |
Paper: | pp. 97-105 | ||
Optimal Velocity Function Minimizing Dissipated Energy Considering All Friction in a Position Control System |
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Yiting Zhu, Xuejun Zhu, Teruyuki Izumi, and Masashi Kanesaka |
Paper: | pp. 106-113 | ||
Simultaneous Learning of Robot Impedance Parameters Using Neural Networks |
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Mutsuhiro Terauchi, Yoshiyuki Tanaka, Seishiro Sakaguchi, Nan Bu, and Toshio Tsuji |
Paper: | pp. 114-123 | ||
Memory Efficient Real-Time Motion Planning by Dual-Resolution Heuristic Search |
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Ralf Gomm and Sabri Cetinkunt |
Vol.18 (2006)
No.6
(Dec)
Special Issue on Optomechatronics
Special Issue on Optomechatronics
Editorial: | p. 683 | |
Optomechatronics |
| |
Shun'ichi Kaneko, Hyungsuck Cho, Kazunori Umeda, and Takayuki Tanaka | ||
Many researchers in optomechatronics face the globalization of technologies they developed and implemented on production lines such as optical lithography, fiber optics, optical sensors and communication, micro/nano-optical engineering, intelligent and smart technologies, machine vision, optics-based control, visual servoing, vision-based control, microrobotics, and optics-based navigation and sensing. Optomechatronics is an active research field in which many types of optical technologies are combined with mechatronics, including mechanisms, electronics, and information technologies. Optomechatronics thus develops new technical, smart, embedded functions and systems for very broad applications. We have organized several international conferences for optomechatronics and optomechatronic systems sponsored by SPIE during this decade. At Sapporo in 2005, the SPIE international symposium on optomechatronic systems, ISOT2005, was held as a joint symposium of five conferences: actuators and manipulation, sensors and instrumentation, micro/nano-devices and components, machine vision, and systems control. The organization attracted 174 papers from around the world, and provided a fruitful forum for discussions on the status and future issues in optomechatronics. This special issue was planned partly to include many of the qualified papers presented at the symposium and to promote other researchers in peripheral fields of optomechatronics to submit their research to encourage researchers interested in it to develop systems and technologies more skilled, smarter, and more robust in the real-world environment. We thank the authors for their invaluable contributions and the reviewers for their valuable time and effort. |
Paper: | pp. 684-691 | ||
Actuators Based on Photomechanical Polymer |
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||
LaQuieta Huey, Sergey S. Sarkisov, Michael J. Curley, and Grigory Adamovsky |
Paper: | pp. 692-697 | ||
Optical 3D Manipulation and Observation in Real-Time |
|
||
Jesper Glückstad, Peter John Rodrigo, and Ivan Perch-Nielsen |
Paper: | pp. 698-704 | ||
Development of a Multi-Ball-Cantilever AFM for Measuring Resist Surface |
|
||
Shujie Liu, Shuichi Nagasawa, Satoru Takahashi, and Kiyoshi Takamasu |
Paper: | pp. 705-713 | ||
Particle Detection for 100-nm Patterned Wafers by Evanescent Light Illumination – Analysis of Evanescent Light Scattering Using Finite-Difference Time-Domain Method – |
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||
Toshie Yoshioka, Takashi Miyoshi, and Yasuhiro Takaya |
Paper: | pp. 714-721 | ||
Dual-LED Imaging System for Secure and Robust Fingerprint Detection |
|
||
Ichiro Fujieda, Katsuki Tai, Etsuji Matsuyama, and Masashi Kurita |
Paper: | pp. 722-727 | ||
Shape Measurement of Solder Bumps by Shape-from-Focus Using Varifocal Mirror |
|
||
Jun Mitsudo and Akira Ishii |
Paper: | pp. 728-737 | ||
Development of DMD Reflection-Type CCD Camera for Phase Analysis and Shape Measurement |
|
||
Shien Ri, Yasuhiro Matsunaga, Motoharu Fujigaki, Toru Matui, and Yoshiharu Morimoto |
Paper: | pp. 738-743 | ||
Object Modeling Using Gaussian Mixture Model for Infrared Image and its Application to Vehicle Detection |
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||
Makito Seki, Haruhisa Okuda, Manabu Hashimoto, and Nami Hirata |
Paper: | pp. 744-750 | ||
An Object Detection Method Based on Independent Local Features |
|
||
Ryouta Nakano, Kazuhiro Hotta, and Haruhisa Takahashi |
Paper: | pp. 751-759 | ||
Gestures Recognition Based on the Fusion of Hand Positioning and Arm Gestures |
|
||
Didier Coquin, Eric Benoit, Hideyuki Sawada, and Bogdan Ionescu |
Paper: | pp. 760-764 | ||
Human and Object Detection in Smoke-Filled Space Using Millimeter-Wave Radar Based Measurement |
|
||
Yoshimitsu Aoki and Masaki Sakai |
Paper: | pp. 765-771 | ||
HM-ICP: Fast 3-D Registration Algorithm with Hierarchical and Region Selection Approach of M-ICP |
|
||
Haruhisa Okuda, Yasuo Kitaaki, Manabu Hashimoto, and Shun’ichi Kaneko |
Paper: | pp. 772-778 | ||
Violent Action Detection for Elevator |
|
||
Kentaro Hayashi, Makito Seki, Takahide Hirai, Koichi Takeuchi, and Koichi Sasakawa |
Paper: | pp. 779-786 | ||
A Dual Imaging System for Flip-Chip Alignment Using Visual Servoing |
|
||
Daljae Lee, Xiaodong Tao, Hyungsuck Cho, and Youngjun Cho |
Paper: | pp. 787-794 | ||
Visually Guided Microassembly with Active Zooming |
|
||
Xiaodong Tao, Hyungsuck Cho, and Youngjun Cho |
Paper: | pp. 795-802 | ||
Visual Feedback Tracking with Laser to Moving Crane Hook |
|
||
Shunsuke Nara and Satoru Takahashi |
Paper: | pp. 803-807 | ||
Design of a Precision Linear-Rotary Positioning Actuator |
|
||
Wei Gao, Shinji Sato, Yasumasa Sakurai, and Satoshi Kiyono |
Paper: | pp. 808-815 | ||
Improvement in a Surface Motor-Driven Planar Motion Stage |
|
||
Wei Gao, Katsutoshi Horie, Songyi Dian, Kei Katakura, and Satoshi Kiyono |
Paper: | pp. 816-823 | ||
Lithography Using a Microelectronic Mask |
|
||
Manseung Seo, Haeryung Kim, and Masahiko Onosato |
Letter: | pp. 824-826 | ||
Rotational Speed Control by Optical PWM Operation for Single Cells |
|
||
Makoto Yoshida, Ichirou Ishimaru, Katsumi Ishizaki, Toshiki Yasokawa, and Yusuke Inoue |
Letter: | pp. 827-830 | ||
Novel Computed Tomography for Reconstructing Three-Dimensional Phase Contrast Images of Single Living Cells |
|
||
Yusuke Inoue, Ichirou Ishimaru, Toshiki Yasokawa, Katsumi Ishizaki, and Makoto Yoshida |
No.5
(Oct)
Mini-Special Issue on Robot Control
Mini-Special Issue on Robot Control
Paper: | pp. 521-528 | ||
Locomotion of 3D Snake-Like Robots – Shifting and Rolling Control of Active Cord Mechanism ACM-R3 – |
|
||
Makoto Mori and Shigeo Hirose |
Paper: | pp. 529-538 | ||
Neural Adaptive Approach-Application to Robot Force Control in an Unknown Environment |
|
||
Yacine Amirat, Karim Djouani, Mohamed Kirad, and Nadia Saadia |
Paper: | pp. 539-544 | ||
New Portable Pointer for Positional Data Acquisition |
|
||
Kiyoshi Ioi, Yasushi Sato, and Shinya Miyoshi |
Paper: | pp. 545-555 | ||
Development of Novel Linear Motion Mechanism with Load Sensitive Transmission |
|
||
Jianjun Yuan and Shigeo Hirose |
Paper: | pp. 556-563 | ||
Quasi-Static Analysis of a Novel Crawler-Driven Robot Motion |
|
||
Guangping Lan and Shugen Ma |
Paper: | pp. 564-571 | ||
Tracing Manipulation in Clothes Spreading by Robot Arms |
|
||
Khairul Salleh, Hiroaki Seki, Yoshitsugu Kamiya, and Masatoshi Hikizu |
Paper: | pp. 572-579 | ||
Program Development Environment for Multiple Robot-Multiple Application System |
|
||
Tsukasa Kyousou and Yasumichi Aiyama |
Paper: | pp. 580-588 | ||
Decentralized Adaptive Coordinated Control of Multiple Robot Arms for Constrained Tasks |
|
||
Haruhisa Kawasaki, Rizauddin Bin Ramli, and Satoshi Ueki |
Paper: | pp. 589-597 | ||
Gain Scheduling Controller Design for Two-Rotor Hovering System and its Experimental Verification |
|
||
Makoto Yamashita, Masami Saeki, Nobutaka Wada, and Izumi Masubuchi |
Paper: | pp. 598-607 | ||
Motion Control of Ultra-High-Speed Manipulator with a Flexible Link Based on Dynamically Coupled Driving |
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||
Tomoari Maruyama, Chunquan Xu, Aiguo Ming, and Makoto Shimojo |
Paper: | pp. 608-617 | ||
Impedance Control of Free-Flying Space Robot for Orbital Servicing |
|
||
Hiroki Nakanishi and Kazuya Yoshida |
Paper: | pp. 618-625 | ||
Clothes Folding Task by Tool-Using Robot |
|
||
Fumiaki Osawa, Hiroaki Seki, and Yoshitsugu Kamiya |
Paper: | pp. 626-633 | ||
Novel Human Interface for Game Control Using Voluntarily Generated Biological Signals |
|
||
Keisuke Shima, Masaru Okamoto, Nan Bu, and Toshio Tsuji |
Paper: | pp. 634-642 | ||
Soft Tissue Pushing Operation Using a Haptic Interface for Simulation of Brain Tumor Resection |
|
||
Daisuke Sato, Ryosuke Kobayashi, Akira Kobayashi, Shohei Fujino, and Masaru Uchiyama |
Development Report: | pp. 643-649 | ||
Development of a Needle-Insertion Robot for MRI-Guided Stereotactic Surgery |
|
||
Yuji Wakasa, Masato Oka, Kanya Tanaka, Masami Fujii, Syuichi Yamauchi, and Kazuyuki Minami |
Paper: | pp. 651-660 | ||
Natural Resolution of Ill-Posed Inverse Kinematics for Redundant Robots: A Challenge to Bernstein’s Degrees-of-Freedom Problem |
|
||
Suguru Arimoto and Masahiro Sekimoto |
Paper: | pp. 661-671 | ||
Estimation of Bounded Model Uncertainties |
|
||
Olivier Adrot, Jean-Marie Flaus, and José Ragot |
Paper: | pp. 672-679 | ||
Time-Series Forecasting Using Fuzzy-Neural System with Evolutionary Rule Base |
|
||
Arit Thammano and Sirinda Palahan |
No.4
(Aug)
Special Issue on Haptics: Interfaces, Applications, and Perception
Special Issue on Haptics: Interfaces, Applications, and Perception
Editorial: | p. 367 | |
Haptics: Interfaces, Applications, and Perception |
| |
Haruhisa Kawasaki and Osama Halabi | ||
The last decade has seen significant advances in research on haptics and haptic interfaces. Device performance has improved, and the many commercial devices now available at reasonable prices indicate how haptic research will grow and new applications involving haptics will touch all aspects of daily life. Sophisticated systems require research beyond physical devices, such as modeling the physical properties of virtual objects, human physiology, and haptic evaluation. This special issue focuses on state-of-the-art design and development of haptic interfaces and explores potential applications of this technology and related issues such as tactile display, haptic rendering, physiology, and evaluation methodologies. The 15 papers were selected after a rigorous peer review from around the world and include diverse topics such as haptic device design and technology, tactile display and tactile sensing, collaborative multiuser haptic environments, haptic cognition, haptic rendering, tele-existence and multimodal interaction, and medical and rehabilitation applications. We thank the Editorial Board of JRM Journal for making this special issue possible. We also thank the authors for contributing their fine work and revising their papers for this issue, and extend our thanks and appreciation to the reviewers for their constructive comments and suggestions. |
Paper: | pp. 368-374 | ||
Haptic-Assisted SMMS Telemicromanipulation Using Virtual Fixture |
|
||
Gilgueng Hwang and Hideki Hashimoto |
Paper: | pp. 375-380 | ||
Transparent Tactile Switch for Touch Screen Interface |
|
||
Fumihito Arai, Naoya Iwata, and Toshio Fukuda |
Paper: | pp. 381-391 | ||
Vibro-Tactile Interface for Enhancing Piloting Abilities During Long Term Flight |
|
||
Sylvain Cardin, Frédéric Vexo, and Daniel Thalmann |
Paper: | pp. 392-400 | ||
Development of 2-DOF Haptic Device Driven Directly by Shaft Motors |
|
||
Hironori Ogawa and Makoto Shimojo |
Paper: | pp. 401-408 | ||
Development of Directional Display Using Forearm Twisting and Human Navigation Experiments |
|
||
Masamichi Sakaguchi, Utako Kanuka, Shigeyuki Shimachi, and Akira Hashimoto |
Paper: | pp. 409-417 | ||
Future Haptic Science Encyclopedia: Realistic Stable Haptic Interaction with Highly Deformable Objects Using HIRO-II |
|
||
Osama Halabi, Vytautas Daniulaitis, Haruhisa Kawasaki, Tetsuya Mouri, and Yoshio Ohtuka |
Paper: | pp. 418-425 | ||
Rigidity Distribution Rendering for a Tool-Handling Type Haptic Interface |
|
||
Hiroaki Yano, Masaki Nudejima, Masaki Tomiyoshi, and Hiroo Iwata |
Paper: | pp. 426-432 | ||
Basic Study on Grasping of Soft Object by Finite Element Method Considering Gravity |
|
||
Tetsuya Yokoyama, Hideki Tanahashi, and Haruhisa Kawasaki |
Paper: | pp. 433-441 | ||
Analysis and Synthesis of Facial Color for Facial Image Synthesis in a Virtual Arm Wrestling System |
|
||
Takashi Yamada and Tomio Watanabe |
Paper: | pp. 442-449 | ||
Multiaxis Capacitive Force Sensor and its Measurement Principle Using Neural Networks |
|
||
Seiji Aoyagi, Masaru Kawanishi, and Daiichiro Yoshikawa |
Paper: | pp. 450-457 | ||
Cross-Modality Between Haptic and Auditory Roughness with a Force Feedback Device |
|
||
Emi Kitamura, Katsuya Miyashita, Kenji Ozawa, Masaki Omata, and Atsumi Imamiya |
Paper: | pp. 458-466 | ||
Predictability of Rest-to-Rest Movements in Haptic Environments with 3D Constraints |
|
||
Igor Goncharenko, Mikhail Svinin, Yutaka Kanou, and Shigeyuki Hosoe |
Paper: | pp. 467-475 | ||
A Study of Perceptual Performance in Haptic Virtual Environments |
|
||
Marcia K. O’Malley and Gina Upperman |
Paper: | pp. 476-488 | ||
Verification of Haptic Illusions Using a Haptic Interface and Consideration on its Mechanism |
|
||
Masayuki Hara, Takahiro Higuchi, Ayaka Ohtake, Jian Huang, and Tetsuro Yabuta |
Paper: | pp. 489-498 | ||
Haptic Length Display Based on Cutaneous-Proprioceptive Integration |
|
||
Kazunori Terada, Akinori Kumazaki, Daisuke Miyata, and Akira Ito |
Paper: | pp. 499-503 | ||
Epoxy-Based Multichannel Microelectrode for Insect Biopotential Recording |
|
||
Yoshihiko Kuwana |
Paper: | pp. 504-510 | ||
Robotic Facial Expression Using a Curved Surface Display |
|
||
Minoru Hashimoto and Daisuke Morooka |
Paper: | pp. 511-518 | ||
Loose Guide for Passive Omnidirectional Mobility Aid |
|
||
Naemeh Nejatbakhsh and Kazuhiro Kosuge |
No.3
(Jun)
Special Issue on Selected Papers from ROBOMEC'05 (Part 2)
Special Issue on Selected Papers from ROBOMEC'05 (Part 2)
Editorial: | p. 225 | |
Selected Papers from ROBOMEC’05 (Part 2) |
| |
Kiyoshi Komoriya, and Takashi Tsubouchi | ||
The 2005 JSME Conference on Robotics and Mechatronics (ROBOMEC’05) was held at Kobe International Exhibition Hall, Kobe, Japan, on June 9-11, 2005, sponsored by the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers. Prof. Tadokoro of Kobe University at that time served as general chair and Prof. Tsubouchi of Tsukuba University as program chair. The conference, whose theme was “Mega-Integration in Robotics and Mechatronics to Assist Our Daily Lives,” was to help establish new industries using advanced robotics and mechatronics technologies. Organized sessions numbered 64 and papers 880, again a record for the conference. This special issue presents 14 papers from the conference culled from 110 outstanding presentations – some 12% of the total – which were further narrowed to 47 before final selection for Part 2 (Vol.18, No.3). 13 papers have already been published in Vol.18, No.2. We thank the authors for their invaluable contributions to this issue and the reviewers for their time and effort. We also thank Editor-in-Chief Prof. Makoto Kaneko of Hiroshima University for organizing this special issue. |
Paper: | pp. 226-234 | ||
Thermal Tactile Presentation Based on Prediction of Contact Temperature |
|
||
Akio Yamamoto, Hiroaki Yamamoto, Benjamin Cros, Hironori Hashimoto, and Toshiro Higuchi |
Paper: | pp. 235-241 | ||
Electromechanical Conversion Mechanism of a Tactile Sensor Using Carbon Micro Coil Inside an Elastic Material |
|
||
Masato Homma, Hiroshi Morita, Takashi Maeno, Masashi Konyo, and Seiji Motojima |
Paper: | pp. 242-248 | ||
Modeling and Stability Analysis of Dynamic Control Through a Soft Interface |
|
||
Mizuho Shibata, and Shinichi Hirai |
Paper: | pp. 249-256 | ||
Development of Robotic Forceps for Laparoscopic Surgery |
|
||
Makoto Jinno, Takamitsu Sunaoshi, Toyomi Miyagawa, Takehiro Hato, Nobuto Matsuhira, Yasuhide Morikawa, Soji Ozawa, and Masaki Kitajima |
Paper: | pp. 257-263 | ||
Micro Manipulator and Forceps Navigation for Endoscopic Fetal Surgery |
|
||
Kanako Harada, Kentaro Iwase, Kota Tsubouchi, Kousuke Kishi, Tetsuya Nakamura, Toshio Chiba, and Masakatsu G. Fujie |
Paper: | pp. 264-270 | ||
On-Chip Microparticle Manipulation Using Disposable Magnetically Driven Microdevices |
|
||
Hisataka Maruyama, Fumihito Arai, and Toshio Fukuda |
Paper: | pp. 271-277 | ||
New Biped Foot System Adaptable to Uneven Terrain |
|
||
Kenji Hashimoto, Yusuke Sugahara, Hun-ok Lim, and Atsuo Takanishi |
Paper: | pp. 278-285 | ||
Water-Rescue Robot Vehicle with Variably Configured Segmented Wheels |
|
||
Hironao Okada, Taro Iwamoto, and Koji Shibuya |
Paper: | pp. 286-298 | ||
Design and Implementation of the Reconfiguration Mechanism for a Modular Humanoid Robot |
|
||
Tetsuya Taira, and Nobuyuki Yamasaki |
Paper: | pp. 299-304 | ||
Development of a Peristaltic Crawling Robot Based on Earthworm Locomotion |
|
||
Taro Nakamura, Takashi Kato, Tomohide Iwanaga, and Yoichi Muranaka |
Paper: | pp. 305-311 | ||
Development of Practical 3-Dimensional Active Cord Mechanism ACM-R4 |
|
||
Hiroya Yamada, and Shigeo Hirose |
Paper: | pp. 312-317 | ||
Development of Rockfall Prevention Net Climbing Robot Using a Quadric Chain |
|
||
Hidekazu Kajiwara, Makoto Arai, Takafumi Noguchi, and Takashi Nakamura |
Paper: | pp. 318-324 | ||
Development of Quadruped Walking Robot TITAN XI for Steep Slopes – Slope Map Generation and Map Information Application – |
|
||
Takahiro Doi, Ryuichi Hodoshima, Yasushi Fukuda, Shigeo Hirose, Toshihito Okamoto, and Junichi Mori |
Paper: | pp. 325-332 | ||
Robot Platform Architecture for Information Sharing and Collaboration Among Multiple Networked Robots |
|
||
Hirohisa Tezuka, Norifumi Katafuchi, Yukihiro Nakamura, Tamotsu Machino, Yoshito Nanjo, Satoshi Iwaki, and Ken-ichiro Shimokura |
Paper: | pp. 333-339 | ||
Non-Dimensional Analysis Based Design on Tracing Type Legged Robots |
|
||
Mitsuru Higashimori, Idaku Ishii, and Makoto Kaneko |
Paper: | pp. 340-346 | ||
A Finite Element Scheme for Impact Force Prediction of Robotic Mechanisms |
|
||
Daigoro Isobe, and Yoshiaki Moriya |
Paper: | pp. 347-355 | ||
Three-Dimensional Movement in Water of the Dolphin Robot – Control Between Two Positions by Roll and Pitch Combination – |
|
||
Motomu Nakashima, Takahiro Tsubaki, and Kyosuke Ono |
Paper: | pp. 356-364 | ||
Reconfigurable Cellular Satellites Maintained by Space Robots |
|
||
Hideyuki Tanaka, Noritaka Yamamoto, Takehisa Yairi, and Kazuo Machida |
No.2
(Apr)
Special Issue on Selected Papers from ROBOMEC’05 (Part 1)
Special Issue on Selected Papers from ROBOMEC’05 (Part 1)
Editorial: | p. 113 | |
Selected Papers from ROBOMEC’05 (Part 1) |
| |
Kiyoshi Komoriya, and Takashi Tsubouchi | ||
The 2005 JSME Conference on Robotics and Mechatronics (ROBOMEC’05) was held at Kobe International Exhibition Hall, Kobe, Japan, on June 9-11, 2005, sponsored by the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers. Prof. Tadokoro of Kobe University at that time served as general chair and Prof. Tsubouchi of Tsukuba University as program chair. The conference, whose theme was “Mega-Integration in Robotics and Mechatronics to Assist Our Daily Lives,” was to help establish new industries using advanced robotics and mechatronics technologies. Organized sessions numbered 64 and papers 880, again a record for the conference. This special issue presents 13 papers from the conference culled from 110 outstanding presentations – some 12% of the total – which were further narrowed to 47 before final selection for Part 1 (Vol.18, No.2). We thank the authors for their invaluable contributions to this issue and the reviewers for their time and effort. We also thank Editor-in-Chief Prof. Makoto Kaneko of Hiroshima University for organizing this special issue. |
Paper: | pp. 114-120 | ||
Concept of a Micro Gyroscope Using Electro-Conjugate Fluid (ECF) and Development of an ECF Micro Gyro-Motor |
|
||
Shinichi Yokota, Ryuta Nishizawa, Kenjiro Takemura, and Kazuya Edamura |
Paper: | pp. 121-130 | ||
Optical Torque Sensors for Local Impedance Control Realization of an Anthropomorphic Robot Arm |
|
||
Dzmitry Tsetserukou, Riichiro Tadakuma, Hiroyuki Kajimoto, and Susumu Tachi |
Paper: | pp. 131-138 | ||
Self-Localization Method Utilizing Environment-Embedded Information and Range Sensory Information |
|
||
Kuniaki Kawabata, Daisuke Itoh, Yasushi Hada, Daisuke Chugo, Hayato Kaetsu, and Hajime Asama |
Paper: | pp. 139-145 | ||
Development of a Tendon-Driven System Using a Pneumatic Balloon |
|
||
Norihiko Saga, Jun-ya Nagase, and Yasumasa Kondo |
Paper: | pp. 146-152 | ||
Atomization and Stirring of Droplets Using Surface Acoustic Wave for Integrated Droplet Manipulation |
|
||
Akio Yamamoto, Masahiro Nishimura, Yutaka Ooishi, Nobuhiro Tsukada, and Toshiro Higuchi |
Paper: | pp. 153-159 | ||
3D 6DOF Manipulation of Microbead by Laser Tweezers |
|
||
Fumihito Arai, Toshiaki Endo, Ryuji Yamauchi, and Toshio Fukuda |
Paper: | pp. 160-166 | ||
Development of 6-Axis Material Tester for Measuring Mechanical Spine Properties |
|
||
Motoyoshi Fujiwara, Takanori Masuda, Tadashi Inaba, Takaya Katoh, Yuichi Kasai, and Satoru Ito |
Paper: | pp. 167-176 | ||
Position Control of Needle Tip Based on Physical Properties of Liver and Force Sensor |
|
||
Yo Kobayashi, Jun Okamoto, and Masakatsu G. Fujie |
Paper: | pp. 177-185 | ||
Virtual Driving Simulator for Measuring Dynamic Properties of Human Arm Movements |
|
||
Yoshiyuki Tanaka, Ryoma Kanda, Naoki Yamada, Hitoshi Fukuba, Ichiro Masamori, and Toshio Tsuji |
Paper: | pp. 186-194 | ||
Agent System for Operating Web-Based Sensor Nodes via the Internet |
|
||
Tokihiro Fukatsu, Masayuki Hirafuji, and Takuji Kiura |
Paper: | pp. 195-202 | ||
Development of Human-Symbiotic Robot “EMIEW” – Design Concept and System Construction – |
|
||
Yuji Hosoda, Saku Egawa, Junichi Tamamoto, Kenjiro Yamamoto, Ryousuke Nakamura, and Masahito Togami |
Paper: | pp. 203-214 | ||
Integrated Limb Mechanism Robot ASTERISK |
|
||
Tomohito Takubo, Tatsuo Arai, Kenji Inoue, Hikaru Ochi, Takeshi Konishi, Taisuke Tsurutani, Yasuo Hayashibara, and Eiji Koyanagi |
Review: | pp. 215-221 | ||
A Progressively Advancing Curriculum for Robotics Education – The Case of Toin University of Yokohama – |
|
||
Yasuo Hayashibara, Takeshi Agui, Takahiro Ito, Motoyoshi Ohaba, Eiji Koyanagi, Toshiharu Sekine, Masaaki Takeuchi, and Seishi Kudo |
No.1
(Feb)
Regular papers
Regular Papers
Paper: | pp. 4-10 | ||
Basic Study on Self-Transfer Aid Robotics |
|
||
Yoshihiko Takahashi, Go Manabe, Katsumi Takahashi, and Takuro Hatakeyama |
Paper: | pp. 11-17 | ||
Modeling and Fabrication of a Mobile Inspection Microrobot Driven by a Pneumatic Bellows Actuator for Long Pipes |
|
||
Manabu Ono, Toshiaki Hamano, and Shigeo Kato |
Paper: | pp. 18-25 | ||
User-Friendly Acceleration/Deceleration Control of Electric-Powered Wheelchair |
|
||
Toru Oshima, and Noboru Momose |
Paper: | pp. 26-35 | ||
Characteristics of Frictional Sliding Motion in Releasing Manipulation |
|
||
Chi Zhu, Yasumichi Aiyama, Tamio Arai, and Atsuo Kawamura |
Paper: | pp. 36-43 | ||
Reliable Robot Communication on Web Services |
|
||
Masahiko Narita, Makiko Shimamura, and Makoto Oya |
Paper: | pp. 44-50 | ||
A Stable Approach for Modular Learning and its Application to Autonomous Aero-Robot |
|
||
Mai Bando, and Hiroaki Nakanishi |
Paper: | pp. 51-58 | ||
Omnidirectional Static Walking of a Quadruped Robot on a Slope |
|
||
Lei Zhang, Shugen Ma, Yoshinori Honda, and Kousuke Inoue |
Paper: | pp. 59-66 | ||
Identification and State Evaluation Based on Frontal Views of Walkers |
|
||
Akio Nozawa, Tota Mizuno, Masafumi Uchida, Hisaya Tanaka, and Hideto Ide |
Paper: | pp. 67-75 | ||
Development of Space Environment Preservation System Using Robot |
|
||
Kazuo Machida, and Toshiaki Iwata |
Paper: | pp. 76-82 | ||
Feed Rate Control Using Fuzzy Reasoning for a Mold Polishing Robot |
|
||
Fusaomi Nagata, and Keigo Watanabe |
Paper: | pp. 83-88 | ||
A Sensitivity Variable Tactile Sensor with Self-Tuner |
|
||
Susumu Kouno |
Paper: | pp. 89-96 | ||
Tail-Actuator Propulsion Device for Aquatic Robot |
|
||
Andrea Manuello Bertetto, and Maurizio Ruggiu |
Paper: | pp. 97-102 | ||
PSD Sensor Decomposing Multiple Light Spots |
|
||
Susumu Kouno |
Development Report: | pp. 103-110 | ||
Evolutionary Learning Acquisition of Optimal Joint Angle Trajectories of Flexible Robot Arm |
|
||
Hiroyuki Kojima, and Takahiro Hiruma |
Vol.17 (2005)
No.6
(Dec)
Special Issue on Human Modeling in Robotics
Special Issue on Human Modeling in Robotics
Editorial: | p. 607 | |
Human Modeling in Robotics |
| |
Taketoshi Mori | ||
Human modeling is becoming an essential key technology for robotics and mechatronics systems that aid and expand human activities. Human modeling is indispensable in designing systems that conduct tasks difficult or even impossible for human beings to accomplish. Such systems include humanoid robots, power assistance suits, communication robots, intelligent support rooms, and user interface devices. This special issue focuses on the latest state-of-the-art human modeling research, especially in robotics, presenting a wide variety of human modeling areas. To support human beings in real-world environments, human behavior model is considerably important. Adaptation to personal characteristics may be the core function of next-generation system mechanisms, and human social modeling is the principal focus of interfacing for interaction systems. Cognitive and psychological models of human beings have always been an important domain in human-machine systems. Probabilistic and static methods have attracted attention in this research field. Not only mechanical but physiological human modeling may soon become ‘vital’ for all kind of robotic systems. This special issue is the kernel node for cultivating these rapidly advancing areas. I thank the authors of the articles in this issue for their invaluable effort and contributions. I also thank the members of the Editorial board, without whose work this special issue would not have been possible. |
Paper: | pp. 608-616 | ||
Design of a Human Circulation Modeling System for Fitness Training |
|
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Kenichi Asami |
Paper: | pp. 617-627 | ||
Spinal Information Processing and its Application to Motor Learning Support |
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Mihoko Otake, and Yoshihiko Nakamura |
Paper: | pp. 628-635 | ||
Motion Analysis of Human Lifting Works with Heavy Objects |
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||
Nobutomo Matsunaga, and Shigeyasu Kawaji |
Paper: | pp. 636-644 | ||
Off-Policy Natural Policy Gradient Method for a Biped Walking Using a CPG Controller |
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Yutaka Nakamura, Takeshi Mori, Yoichi Tokita, Tomohiro Shibata, and Shin Ishii |
Paper: | pp. 645-654 | ||
Classification of Motion Constraints by Explorative Manipulation by a Compliant Multi-Fingered Hand |
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Ryo Fukano, Yasuo Kuniyoshi, Takuya Otani, Takumi Kobayashi, and Nobuyuki Otsu |
Paper: | pp. 655-663 | ||
Pinching at Fingertips for Humanoid Robot Hand |
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Kiyoshi Hoshino, and Ichiro Kawabuchi |
Paper: | pp. 664-671 | ||
Human Posture Probability Density Estimation Based on Actual Motion Measurement and Eigenpostures |
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||
Tatsuya Harada, Taketoshi Mori, and Tomomasa Sato |
Paper: | pp. 672-680 | ||
Human-Like Daily Action Recognition Model |
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||
Taketoshi Mori, and Kousuke Tsujioka |
Paper: | pp. 681-688 | ||
Extracting Multimodal Dynamics of Objects Using RNNPB |
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||
Tetsuya Ogata, Hayato Ohba, Jun Tani, Kazunori Komatani, and Hiroshi G. Okuno |
Paper: | pp. 689-696 | ||
Probabilistic Human Modeling Based on Personal Construct Theory |
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||
Yoichi Motomura, and Takeo Kanade |
Paper: | pp. 697-704 | ||
A Dialogue Control Model Based on Ambiguity Evaluation of Users’ Instructions and Stochastic Representation of Experiences |
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Tetsunari Inamura, Masayuki Inaba, and Hirochika Inoue |
Paper: | pp. 705-716 | ||
Development of Infant Behavior Simulator: Modeling Grasping Achievement Based on Developmental Behavior Model and Environmental Interest Induction Model |
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Koji Kitamura, Yoshifumi Nishida, Naoaki Matsumoto, Yoichi Motomura, Tatsuhiro Yamanaka, and Hiroshi Mizoguchi |
Paper: | pp. 717-724 | ||
Sequential Human Behavior Recognition for Cooking-Support Robots |
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Tsukasa Fukuda, Yasushi Nakauchi, Katsunori Noguchi, and Takashi Matsubara |
No.5
(Oct)
Special Issue on Selected Papers from ICAM'04
Special Issue on Selected Papers from ICAM'04
Editorial: | p. 499 | |
Selected Papers from ICAM’04 |
| |
Makoto Kaneko, and Masashi Furukawa | ||
This special issue on the International Conference on Advanced Mechatronics (ICAM’04) held at Asahikawa, Hokkaido, October 3 to 5, 2004, sponsored by the Japan Society of Mechanical Engineers, covers three major areas focused on by the Conference: mechatronics, robotics, and information technology (IT). Among the 110-plus excellent papers accepted for the conference, guest editors chose roughly 40%, recommending that authors submit papers for this journal. This special issue features 13 papers that passed final tough reviews, making the acceptance ratio 60%. We believe you will find this issue both interesting and informative in providing the latest information on mechatronics. We thank all who submitted articles to this special issue and the anonymous reviewers who took so much time from their busy schedules to review manuscripts and respond with constructive suggestions and comments. The high-quality reviews and timely completion of revised manuscripts have certainly helped make this special issue successful. We are sure the news in this issue will be of great help to researchers in the mechatronics community. |
Paper: | pp. 500-508 | ||
Motion Design for Indoor Blimp Robot with PID Controller |
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Hidenori Kawamura, Hisao Kadota, Masahito Yamamoto, Toshihiko Takaya, and Azuma Ohuchi |
Paper: | pp. 509-516 | ||
Basic Design Guide Proposal on Nanometer Flying-Height Slider for Small Magnetic Disk Drives |
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Yoshinori Takeuchi, and Katsuyuki Tanaka |
Paper: | pp. 517-522 | ||
Development of Nanometer Flying-Height Slider for Small Magnetic Disk Drives |
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||
Yoshinori Takeuchi, and Katsuyuki Tanaka |
Paper: | pp. 523-528 | ||
Development of a Forging Type Rapid Prototyping System; Automation of a Free Forging and Metal Hammering Working |
|
||
Hidetake Tanaka, Naoki Asakawa, and Masatoshi Hirao |
Paper: | pp. 529-536 | ||
Development of Wearable Pneumatic Actuator and Multiport Pressure Control Valve |
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||
Tetsuya Akagi, and Shujiro Dohta |
Paper: | pp. 537-545 | ||
Motion Planning for Rolling-Based Locomotion |
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||
Kodai Suzuki, Mikhail Svinin, and Shigeyuki Hosoe |
Paper: | pp. 546-552 | ||
Damping and Transfer Control of Liquid in a Cylindrical Container Using a Wheeled Mobile Robot |
|
||
Masafumi Hamaguchi, and Takao Taniguchi |
Paper: | pp. 553-559 | ||
Vertical Planar Underactuated Manipulation Using a Gravity Compensation Mechanism |
|
||
Yoshiki Ono, and Toshio Morita |
Paper: | pp. 560-567 | ||
Local Clustering Organization (LCO) Solving a Large-Scale TSP |
|
||
Masashi Furukawa, Michiko Watanabe, and Yusuke Matsumura |
Paper: | pp. 568-574 | ||
Development of Pneumatic Power Assist Splint “ASSIST” Operated by Human Intention |
|
||
Daisuke Sasaki, Toshiro Noritsugu, and Masahiro Takaiwa |
Paper: | pp. 575-583 | ||
Stand-Alone Wearable Power Assist Suit –Development and Availability– |
|
||
Mineo Ishii, Keijiro Yamamoto, and Kazuhito Hyodo |
Paper: | pp. 584-595 | ||
Artificial Whiskers: Structural Characterization and Implications for Adaptive Robots |
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||
Hiroshi Yokoi, Max Lungarella, Miriam Fend, and Rolf Pfeifer |
Paper: | pp. 596-604 | ||
Autonomous Role Assignment in a Homogeneous Multi-Robot System |
|
||
Toshiyuki Yasuda, and Kazuhiro Ohkura |
No.4
(Aug)
Special Issue on VLSI Computing for Real-World Intelligent Systems
Special Issue on VLSI Computing for Real-World Intelligent Systems
Editorial: | p. 371 | |
VLSI Computing for Real-World Intelligent Systems |
| |
Masanori Hariyama | ||
Recently, intelligent systems are desired to support human in real world such as advanced safe vehicles, home service robots, wearable computing devices, and intelligent home security systems. Such intelligent systems require extremely high computational power that exceeds that of state-of-the-art microprocessors. They also require
Special-purpose processors called “system LSIs” play an essential role in meeting these requirements. This special issue focuses on the latest advances in system LSIs for real-world intelligent systems. One of their most important tasks is sensing environmental information such as visual information. Image and angle sensors, for example, are implemented in system LSIs. Image processing is the most time-consuming in real-world intelligent systems due to the extremely large amount of data. To overcome this problem, novel parallel architectures are presented. Electrical wires between processing modules must be minimized to make intelligent systems compact. High-speed serial data transfer is one most effective way to minimize the electrical wires. An architecture that handles processing order based on task priorities is a key to low latency. Processing of human interfaces such as face detection and speech recognition are also important factors in making intelligent systems user-friendly. I thank the authors of the articles in this issue for their effort and contributions, and the members of the Editorial Board for their cooperation. |
Paper: | pp. 372-377 | ||
A Digital Vision Chip for Early Feature Extraction with Rotated Template-Matching CA |
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||
Masayuki Ikebe, and Tetsuya Asai |
Paper: | pp. 378-386 | ||
A Cellular-Automaton-Type Region Extraction Algorithm and its FPGA Implementation |
|
||
Teppei Nakano, Takashi Morie, Makoto Nagata, and Atsushi Iwata |
Paper: | pp. 387-394 | ||
A Pixel-Parallel Algorithm for Detecting and Tracking Fast-Moving Modulated Light Signals |
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||
Shingo Kagami, Masatsugu Shinmeimae, Takashi Komuro, Yoshihiro Watanabe, and Masatoshi Ishikawa |
Paper: | pp. 395-400 | ||
A 3.7×3.7mm² 310.9mW 105.2msec 512×512-Pixel Phase-Only Correlation Processor |
|
||
Naoto Miyamoto, Koji Kotani, and Tadahiro Ohmi |
Paper: | pp. 401-409 | ||
Realtime FPGA-Based Vision System |
|
||
Shinichi Hirai, Masakazu Zakoji, Akihiro Masubuchi, and Tatsuhiko Tsuboi |
Paper: | pp. 410-419 | ||
Real-Time Shape Recognition Using a Pixel-Parallel Processor |
|
||
Takashi Komuro, Yoshiki Senjo, Kiyohiro Sogen, Shingo Kagami, and Masatoshi Ishikawa |
Paper: | pp. 420-427 | ||
Parallel Extraction Architecture for Information of Numerous Particles in Real-Time Image Measurement |
|
||
Yoshihiro Watanabe, Takashi Komuro, Shingo Kagami, and Masatoshi Ishikawa |
Paper: | pp. 428-436 | ||
Implementation of Face Recognition Processing Using an Embedded Processor |
|
||
Hiroyuki Kondo, Masami Nakajima, Miroslaw Bober, Krzysztof Kucharski, Osamu Yamamoto, and Toru Shimizu |
Paper: | pp. 437-446 | ||
Development of Image Recognition Processor Based on Configurable Processor |
|
||
Takashi Miyamori, Jun Tanabe, Yasuhiro Taniguchi, Kenji Furukawa, Tatsuo Kozakaya, Hiroaki Nakai, Yukimasa Miyamoto, Ken-ichi Maeda, and Masataka Matsui |
Paper: | pp. 447-455 | ||
VLSI Architecture for Robust Speech Recognition Systems and its Implementation on a Verification Platform |
|
||
Shingo Yoshizawa, Noboru Hayasaka, Naoya Wada, and Yoshikazu Miyanaga |
Paper: | pp. 456-462 | ||
Design and Implementation of the Multimedia Operation Mechanism for Responsive Multithreaded Processor |
|
||
Tsutomu Itou, and Nobuyuki Yamasaki |
Paper: | pp. 463-468 | ||
A 2.7 Gcps and 7-Multiplexing CDMA Serial Communication Chip for Real-Time Robot Control with Multiprocessors |
|
||
Mitsuru Shiozaki, Toru Mukai, Masahiro Ono, Mamoru Sasaki, and Atsushi Iwata |
Paper: | pp. 469-474 | ||
Angle Detection Methods for a CMOS Smart Rotary Encoder |
|
||
Kazuhiro Nakano, Toru Takahashi, and Shoji Kawahito |
Paper: | pp. 475-482 | ||
Field Emission of Individual Carbon Nanotubes and its Improvement by Decoration with Ruthenium Dioxide Super-Nanoparticles |
|
||
Pou Liu, Fumihito Arai, Lixin Dong, Toshio Fukuda, Tsuneyuki Noguchi, and Katsuyoshi Tatenuma |
Paper: | pp. 483-495 | ||
Polynomial Linear Quadratic Gaussian and Sliding Mode Observer for a Quadrotor Unmanned Aerial Vehicle |
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||
Abdellah Mokhtari, Abdelaziz Benallegue, and Abdelkader Belaidi |
No.3
(Jun)
Special Issue on Selected Papers from ROBOMEC'04 (Part 2)
Special Issue on Selected Papers from ROBOMEC'04 (Part 2)
Editorial: | p. 235 | |
Selected Papers from ROBOMEC’04 (Part 2) |
| |
Kiyoshi Komoriya, and Akihito Sano | ||
The 2004 JSME Conference on Robotics and Mechatronics (ROBOMEC’04) was held at Meijo University in Nagoya, Japan, on June 18-20, 2004, sponsored by the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers. Prof. Takeo Oomichi of Meijo University served as general chair and Prof. Sano of the Nagoya Institute of Technology as program chair. The conference, whose theme was “Super Fabrication for a Safe, Secure Environment,” was to help establish new industries using advanced robotics and mechatronics technologies. Organized sessions numbered 67 and papers 813 – a record for the conference. The program committee selected 91 outstanding presentations – some 10% of the total – for the special issues. Out of submitted 43 papers Part 2 (Vol.17, No.3) presents 16 papers through the regular review process. Two papers have already been published in Vol.17, No.1, and 15 papers in Vol.17, No.2. We thank the authors for their invaluable contributions to this issue and the reviewers for their time and effort. We also thank Editor-in-Chief Makoto Kaneko of Hiroshima University for organizing this special issue. |
Paper: | pp. 236-247 | ||
Development of Modular Humanoid Robot Based on Functionally Distributed Modular Robot Architecture |
|
||
Tetsuya Taira, and Nobuyuki Yamasaki |
Paper: | pp. 248-254 | ||
Design and Development of a Small Stereovision Sensor Module for Small Self-Contained Autonomous Robots |
|
||
Kei Okada, Takeshi Morishita, Marika Hayashi, Masayuki Inaba, and Hirochika Inoue |
Paper: | pp. 255-261 | ||
A Study of an In-Pipe Microrobot Having Bulging Friction Brakes |
|
||
Manabu Ono, Manabu Otsuki, and Shigeo Kato |
Paper: | pp. 262-268 | ||
Navigation Using Local Landmarks in a Corridor Environment |
|
||
Kazumi Oikawa, Hidenori Takauji, Takanori Emaru, Shigenori Okubo, and Takeshi Tsuchiya |
Paper: | pp. 269-276 | ||
Detection of Wet-Road Conditions from Images Captured by a Vehicle-Mounted Camera |
|
||
Muneo Yamada, Koji Ueda, Isao Horiba, Shin Yamamoto, and Sadayuki Tsugawa |
Paper: | pp. 277-284 | ||
Displaying Partial Slippage for Virtual Grasping |
|
||
Masayuki Mori, Takashi Maeno, and Yoji Yamada |
Paper: | pp. 285-292 | ||
Dual-Armed Surgical Master-Slave Manipulator System with MR Compatibility |
|
||
Kousuke Kishi, Kazutoshi Kan, Masakatsu G. Fujie, Kenichi Sudo, Shinichi Takamoto, and Takeyoshi Dohi |
Paper: | pp. 293-301 | ||
Development of Active Links for Physical Man-Machine Interaction |
|
||
Jumpei Ochi, Koichi Suzumori, Junichi Tanaka, and Takefumi Kanda |
Paper: | pp. 302-309 | ||
Development of Integrated Visual Haptic Display Using Translucent Flexible Sheet |
|
||
Kenji Inoue, Reiko Uesugi, Ryouhei Sasama, Tatsuo Arai, and Yasushi Mae |
Paper: | pp. 310-317 | ||
Expression of Existence Supporting Sharing Interspatial Distance-“Maai”: Development of Roving Object Integrating Partner’s Shadow and Video Image |
|
||
Chikara Ishibiki, Yoshiaki Nakajima, Daisuke Matsumoto, and Yoshiyuki Miwa |
Paper: | pp. 318-326 | ||
A Dynamic Body Model of the Nematode C. elegans with Neural Oscillators |
|
||
Michiyo Suzuki, Takeshi Goto, Toshio Tsuji, and Hisao Ohtake |
Paper: | pp. 327-334 | ||
An In Vitro Patient-Specific Biological Model of the Cerebral Artery Reproduced with a Membranous Configuration for Simulating Endovascular Intervention |
|
||
Seiichi Ikeda, Fumihito Arai, Toshio Fukuda, Makoto Negoro, and Keiko Irie |
Paper: | pp. 335-341 | ||
Microfabrication and Laser Manipulation of Functional Microtool Using In-Situ Photofabrication |
|
||
Hisataka Maruyama, Fumihito Arai, and Toshio Fukuda |
Paper: | pp. 342-351 | ||
Development of a Simple Search Device Driven by a Human-Powered Generator |
|
||
Tomoharu Doi, Tatsuki Sasahara, Tadahiro Kaneda, Toshitaka Umemoto, and Yasumasa Yoshitani |
Paper: | pp. 352-358 | ||
Development of a Piezoelectric Screwdriver for Recessless Screws |
|
||
Hiroshi Kawano, and Hideyuki Ando |
Paper: | pp. 359-366 | ||
Structural Analysis of Directional Deflection Beams |
|
||
Koyu Abe, Yusuke Tanida, and Masaru Uchiyama |
No.2
(Apr)
Special Issue on Selected Papers from ROBOMEC'04 (Part 1)
Special Issue on Selected Papers from ROBOMEC'04 (Part 1)
Editorial: | p. 109 | |
Selected Papers from ROBOMEC’04 (Part 1) |
| |
Kiyoshi Komoriya, and Akihito Sano | ||
The 2004 JSME Conference on Robotics and Mechatronics (ROBOMEC’04) was held at Meijo University in Nagoya, Japan, on June 18-20, 2004, sponsored by the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers. Prof. Takeo Oomichi of Meijo University served as general chair and Prof. Sano of the Nagoya Institute of Technology as program chair. The conference, whose theme was “Super Fabrication for a Safe, Secure Environment,” was to help establish new industries using advanced robotics and mechatronics technologies. Organized sessions numbered 67 and papers 813 – a record for the conference. The program committee selected 91 outstanding presentations – some 10% of the total – for the special issues. Out of submitted 43 papers Part 1 (Vol.17, No.2) presents 15 papers through the regular review process. Two papers have already been published in Vol.17, No.1. We thank the authors for their invaluable contributions to this issue and the reviewers for their time and effort. We also thank Editor-in-Chief Makoto Kaneko of Hiroshima University for organizing this special issue. |
Paper: | pp. 110-115 | ||
Development of a 3D Vision Range Sensor Using Equiphase Light Section Method |
|
||
Masaaki Kumagai |
Paper: | pp. 116-120 | ||
Design and Realization of 2-Dimensional Optical Range Sensor for Environment Recognition in Mobile Robots |
|
||
Hirohiko Kawata, Toshihiro Mori, and Shin’ichi Yuta |
Paper: | pp. 121-129 | ||
Multi-Target Tracking Using a Vision Chip and its Applications to Real-Time Visual Measurement |
|
||
Yoshihiro Watanabe, Takashi Komuro, Shingo Kagami, and Masatoshi Ishikawa |
Paper: | pp. 130-141 | ||
Responsive Multithreaded Processor for Distributed Real-Time Systems |
|
||
Nobuyuki Yamasaki |
Paper: | pp. 142-148 | ||
High-Integration Micromotor Using Electro-Conjugate Fluid (ECF) |
|
||
Shinichi Yokota, Kiyomi Kawamura, Kenjiro Takemura, and Kazuya Edamura |
Paper: | pp. 149-157 | ||
Development of a Hydraulically-Driven Flexible Manipulator for Neurosurgery |
|
||
Haruna Okayasu, Jun Okamoto, Hiroshi Iseki, and Masakatsu G. Fujie |
Paper: | pp. 158-163 | ||
Fabrication of a Microfluidic Device for Axonal Guidance |
|
||
Yuta Nakashima, and Takashi Yasuda |
Paper: | pp. 164-172 | ||
Field Monitoring Using Sensor-Nodes with a Web Server |
|
||
Tokihiro Fukatsu, and Masayuki Hirafuji |
Paper: | pp. 173-180 | ||
A Wearable Pointing Device Using EMG Signals |
|
||
Hirotaka Ogino, Jun Arita, and Toshio Tsuji |
Paper: | pp. 181-188 | ||
Tele-Existence Vision System with Image Stabilization for Rescue Robots |
|
||
Koichiro Hayashi, Yasuyoshi Yokokohji, and Tsuneo Yoshikawa |
Paper: | pp. 189-197 | ||
Development of a Power Assist System of a Walking Chair (Proposition of the Speed-Torque Combination Power Assist System) |
|
||
Yunfeng Wu, Masaru Higuchi, Yukio Takeda, and Koichi Sugimoto |
Paper: | pp. 198-207 | ||
Mechanical Design of VmaxCarrier2: Omnidirectional Mobile Robot with Function of Step-Climbing |
|
||
Kenjiro Tadakuma, Riichiro Tadakuma, and Shigeo Hirose |
Paper: | pp. 208-217 | ||
Development of Optical Communication Marks for Mobile Robots to Recognize Their Environment and to Handle Objects |
|
||
Keiji Nagatani, Hiroyasu Sato, Hidenori Tasaka, Akio Gofuku, and Yutaka Tanaka |
Paper: | pp. 218-225 | ||
Autonomous Mobile Surveillance Based on RTK-GPS in Urban Canyons |
|
||
Jun-ichi Meguro, Rui Hirokawa, Jun-ichi Takiguchi, and Takumi Hashizume |
Development Report: | pp. 226-231 | ||
Simple Humanoid Biped Robot with PIC Microcomputer for University Education |
|
||
Yoshihiko Takahashi, and Masayoshi Kohda |
No.1
(Feb)
Regular papers
Regular Papers
Paper: | pp. 3-10 | ||
sMML – A Smart MetaModeling Language for Flexible Modeling |
|
||
Makoto Oya |
Paper: | pp. 11-16 | ||
A Middleware Framework for Loose Robot Communication over the Internet |
|
||
Makoto Oya, and Taku Okuno |
Paper: | pp. 17-21 | ||
Modulated Vibrations Used to Display Tactile Sense |
|
||
Hideto Ide, and Yoshinori Ide |
Paper: | pp. 22-26 | ||
Quantitative Evaluating Reactions to Gustatory Stimuli |
|
||
Hideto Ide, and Yoshinori Ide |
Paper: | pp. 27-35 | ||
Development of Cellular Manufacturing System Based on Movable Cells |
|
||
Yoshiki Shimomura, Fabio Noriyuki Takada, and Tetsuo Tomiyama |
Paper: | pp. 36-43 | ||
Fusion of Multiple Ultrasonic Sensor Data and Image Data for Measuring an Object’s Motion |
|
||
Kazunori Umeda, Jun Ota, and Hisayuki Kimura |
Paper: | pp. 44-51 | ||
Zero Carrier: A Novel Eight Leg-Wheels Hybrid Stair Climbing Mobile Vehicle |
|
||
Jianjun Yuan, and Shigeo Hirose |
Paper: | pp. 52-58 | ||
A Study on Autonomous Mobile Robot Behavior Adjustment Using a Cytokine Reaction Model |
|
||
Yosuke Shigeta, and Yukinori Kakazu |
Paper: | pp. 59-68 | ||
Development of Position-Orientation Decoupled Spatial In-Parallel Actuated Mechanisms with Six Degrees of Freedom |
|
||
Yukio Takeda, Kouji Kamiyama, Yoshihisa Maki, Masaru Higuchi, and Koichi Sugimoto |
Paper: | pp. 69-76 | ||
Behavior and Personal Adaptation of Robotic Lamp |
|
||
Tomomasa Sato, Mehrab Hosseinbor, Takeru Kuroiwa, Rui Fukui, Jun Tamura, and Taketoshi Mori |
Development Report: | pp. 77-88 | ||
Cooperative Obstacle-Avoidance Pushing Transportation of a Planar Object with One Leader and Two Follower Mobile Robots |
|
||
Yanqun Le, Hiroyuki Kojima, and Kazuhiko Matsuda |
Development Report: | pp. 89-100 | ||
Experiments on Motion Control of Two-Joint Articulated Hopping Robot with Stopper Mechanisms |
|
||
Gustavo Kato, Hiroyuki Kojima, Mamoru Yoshida, and Yusuke Wakabayashi |
Development Report: | pp. 101-105 | ||
Mine Remote Sensing Using a Working Robot |
|
||
Nobuhiro Shimoi, and Yoshihiro Takita |
Vol.16 (2004)
No.6
(Dec)
Special Issue on Hyper Performance Robotics and Mechatronics
Special Issue on Hyper Performance Robotics and Mechatronics
Editorial: | p. 555 | |
Hyper Performance Robotics and Mechatronics |
| |
Hideaki Takanobu, and Toshio Morita | ||
This special issue presents important research results in the field of robotics and mechatronics under the key concept of Hyper Performance – performance in which special techniques lead to performance that surpasses the conventional ones. Originality is indispensable to research. Generally, originality in robotics and mechatronics lies both in the research focus and in the quality of specifications and functions such as size, velocity, and power. In this line, this special issue views studies demonstrating excellent performance in terms of specifications and functions. This issue includes outlines of hyper performance robotics and mechatronics, and research on under-actuated system and medical applications. Each contribution has been highly evaluated on its own individual merits and provides insights on hyper performance. We feel certain that readers will find these articles both interesting and informative in defining hyper performance in specifications and functions. We thank Editor-in-Chief Prof. Makoto Kaneko of Hiroshima University, the members of the editing committee, and the secretariat of the Journal of Robotics and Mechatronics for their invaluable efforts in editing this issue. We also thank the reviewers who took time out of their busy schedules to provide insightful comments. Without the support of all these people, this special issue would not have been possible. |
Review: | pp. 556-558 | ||
Hyper Performance of Robotics and Mechatronics |
|
||
Hideaki Takanobu |
Review: | pp. 559-562 | ||
Prospects for Hyper Performance Robots and Mechatronics |
|
||
Toshio Morita |
Paper: | pp. 563-569 | ||
An Underactuated Manipulation Method Using a Mechanical Gravity Canceller |
|
||
Yoshiki Ono, and Toshio Morita |
Paper: | pp. 570-578 | ||
Stiffness Analysis and Experimental Validation for the 6-Dof Jaw Opening-Closing Training Parallel Robot WY-5 (Waseda Yamanashi 5) |
|
||
Giuseppe Carbone, Hideaki Takanobu, Marco Ceccarelli, Atsuo Takanishi, Kayoko Ohtsuki, Masatoshi Ohnishi, and Akihisa Okino |
Paper: | pp. 579-586 | ||
A Clinical Jaw Movement Training Robot for Mouth Opening/Closing and Lateral Movement Training |
|
||
Akihisa Okino, Hideaki Takanobu, Atsuo Takanishi, Kayoko Ohtsuki, Masatoshi Ohnishi, and Masayuki Yoshida |
Paper: | pp. 587-596 | ||
Resolving Crosstalk of Sonar by Applying Nonlinear Filter Based on the Sliding Mode |
|
||
Takanori Emaru, Kazuo Tanaka, and Takeshi Tsuchiya |
Paper: | pp. 597-603 | ||
Field Emission Properties of Individual Carbon Nanotubes in Nanorobotic Manipulation and Electron-Beam-Induced Deposition |
|
||
Fumihito Arai, Pou Liu, Lixin Dong, and Toshio Fukuda |
Paper: | pp. 604-612 | ||
A Novel Fluidic Bellows Manipulator |
|
||
Andrea Manuello Bertetto, and Maurizio Ruggiu |
Paper: | pp. 613-621 | ||
Insertion of Long Peg into Tandem Shallow Hole Using Search Trajectory Generation |
|
||
Takayuki Matsuno, Toshio Fukuda, and Yasuhisa Hasegawa |
Paper: | pp. 622-625 | ||
Discrimination Threshold of Tactility to ERP-Modulated Vibration |
|
||
Hideto Ide, and Yoshinori Ide |
Paper: | pp. 626-634 | ||
Loose Robot Communication over the Internet |
|
||
Makoto Oya, Keitaro Naruse, Masahiko Narita, Taku Okuno, Masahiro Kinoshita, and Yukinori Kakazu |
Paper: | pp. 635-642 | ||
Measurement of Human Hand Impedance in Dual Arm Configurations |
|
||
Yusaku Takeda, Yoshiyuki Tanaka, and Toshio Tsuji |
Paper: | pp. 643-648 | ||
Effects of the Lower Leg Bi-Articular Muscle in Jumping |
|
||
Toru Oshima, Kiyoshi Toriumi, Tomohiko Fujikawa, and Noboru Momose |
No.5
(Oct)
Special Issue on Wearable Robot
Special Issue on Wearable Robot
Editorial: | p. 445 | |
Wearable Robot |
| |
Kazuo Kiguchi | ||
Progress in robotics and miniaturization of computer systems has resulted in such advances as wearable robot systems that portend a new relationship between users and robots. Such wearable robots are especially important in medical and welfare use such as power assist robots that enable users to move in ways they otherwise could not. Such developments, however, bring with them new problems that require new considerations. This special issue features current advances in wearable robot systems, including papers on power assist systems, exoskeletons, wearable medical systems, and robot partners. These articles will provide invaluable references for students and researchers in wearable robots. In closing, I would like to thank the authors, contributors, and reviewers who made this special issue possible. I also would like to thank Editor-in-Chief Prof. Makoto Kaneko of Hiroshima University, for his expertise and advice in editing this issue. |
Paper: | pp. 446-455 | ||
Stiffness Teaching and Motion Assist System Using Functional Electrical Stimulation and Electromyogram Signals |
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Masaaki Uechi, Yutaka Naito, Duk Shin, Makoto Sato, and Yasuharu Koike |
Paper: | pp. 456-463 | ||
Development of Straight Style Transfer Equipment for Lower Limbs Disabled: Verification of Basic Motion |
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Yoshikazu Mori, Kazuhiro Takayama, Takeshi Zengo, and Tatsuya Nakamura |
Paper: | pp. 464-472 | ||
Self-Assisted Care System for Human Mobility |
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Teruhisa Onishi, Tatsuo Arai, Kenji Inoue, and Yasushi Mae |
Paper: | pp. 473-481 | ||
Force Analysis of Exoskeletal Robotic Orthoses for Judgment on Mechanical Safety and Possibility of Assistance |
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Kiyoshi Nagai, and Isao Nakanishi |
Paper: | pp. 482-488 | ||
An EMG-Controlled Hand Exoskeleton for Natural Pinching |
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Lenny Lucas, Matthew DiCicco, and Yoky Matsuoka |
Paper: | pp. 489-496 | ||
Design of Wearable Power-Assist Device for Lower Back Support |
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Keitaro Naruse, Satoshi Kawai, Hiroshi Yokoi, and Yukinori Kakazu |
Paper: | pp. 497-503 | ||
Development of Active Support Splint Driven by Pneumatic Soft Actuator (ASSIST) |
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Daisuke Sasaki, Toshiro Noritsugu, and Masahiro Takaiwa |
Paper: | pp. 504-512 | ||
Realization of All 7 Motions for the Upper Limb by a Muscle Suit |
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Hiroshi Kobayashi, Taichi Shiiba, and Yujiro Ishida |
Paper: | pp. 513-519 | ||
Body-Supported Medical Robots: A Survey |
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Peter Berkelman, Jocelyne Troccaz, and Philippe Cinquin |
Paper: | pp. 520-525 | ||
Wearable Heart Rate Counter |
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Hideaki Takanobu, Satoshi Saito, Hideki Tsuboi, Hirofumi Miura, and Kiyoshi Naemura |
Paper: | pp. 526-534 | ||
Communication Interface for Human-Robot Partnership |
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Naoyuki Kubota, and Yosuke Urushizaki |
Paper: | pp. 535-544 | ||
Development of Portable Color Discrimination for the Visually Impaired and Color Blindness |
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Mitsuyoshi Maekawa, Shinya Hashizume, Yasunori Touma, Yukiko Imai, Hiroaki Seki, and Yoshikatsu Hifumi |
Paper: | pp. 545-551 | ||
Human Intention Detection and Activity Support System for Ubiquitous Sensor Room |
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Yasushi Nakauchi, Katsunori Noguchi, Pongsak Somwong, and Takashi Matsubara |
No.4
(Aug)
Special Issue on Motion Control and its Applications in Robot Technology (RT)
Special Issue on Motion Control and its Applications in Robot Technology (RT)
Editorial: | p. 345 | |
Motion Control and its Applications in Robot Technology (RT) |
| |
Shigeyasu Kawaji and Junji Oaki | ||
Robot Technology (RT) now surpasses information technology (IT) in strategic importance. With robot applications leading to expansion beyond manufacturing into the bioindustrial, medical/welfare, and lifesciences fields, conversion from an industrial to a solutions business is critical. This requires that we define new robot concepts that push the envelope beyond conventional consideration into intellectualization that functions throughout the real world through robotic technologies. This further emphasizes the importance of motion control as a major robotic innovation. Advances in high-function hardware, flexible information processing, and real-time image processing are expected to launch new trends in addition to the above. This special issue presents papers and technical reports featuring a wide academic and industrial repertoire. Topics cover aspects of motion viewed through RT. We thank Prof. Kazuhiro Kosuge of Tohoku University, the contributors, and the reviewers who made this special issue possible. Thanks also go the editor-in-chief of the Journal of Robotics and Mechatronics, Prof. Makoto Kaneko of Hiroshima University, who provided the opportunity for editing this special issue. |
Paper: | pp. 346-347 | ||
Applications of Motion Control Originated from Robot Technology |
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Kazuhiro Kosuge |
Paper: | pp. 348-354 | ||
Synchronous Positioning Control in Pressure Control Among Multi-AC Servomotors in Injection Molding Machine |
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Noriyuki Akasaka |
Paper: | pp. 355-361 | ||
Torque Planning of a New Golf-Swing Robot to Emulate Skillful Golfers |
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Soichiro Suzuki |
Paper: | pp. 362-373 | ||
Genetic-Algorithm-Based Fixed-Structure Robust H∞ Loop-Shaping Control of a Pneumatic Servosystem |
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Somyot Kaitwanidvilai, and Manukid Parnichkun |
Paper: | pp. 374-380 | ||
Adaptive Modular Vector Field Control for Robot Contact Tasks in Uncertain Environments |
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Yohei Saitoh, Zhiwei Luo, and Keiji Watanabe |
Paper: | pp. 381-387 | ||
Control of a Handwriting Robot with DOF Redundancy Based on Feedback in Task Coordinates |
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Hiroe Hashiguchi, Suguru Arimoto, and Ryuta Ozawa |
Paper: | pp. 388-396 | ||
Torque Control in Harmonic Drives with Nonlinear Dynamic Friction Compensation |
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Rached Dhaouadi |
Paper: | pp. 397-403 | ||
Biologically-Inspired Locomotion Controller for a Quadruped Walking Robot: Analog IC Implementation of a CPG-Based Controller |
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Kazuki Nakada, Tetsuya Asai, and Yoshihito Amemiya |
Paper: | pp. 404-410 | ||
Tracking Control of Omni-Directional Vehicles Using Two Wheels Caster Type Odometer |
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Nobuhiro Ushimi, Motoji Yamamoto, and Akira Mohri |
Paper: | pp. 411-419 | ||
Acquisition of Adaptive Behavior for the SMA-Net Robot Using Chaotic Neural Networks |
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Ikuo Suzuki, Masaru Fujii, Keitaro Naruse, Hiroshi Yokoi, and Yukinori Kakazu |
Paper: | pp. 420-425 | ||
Input of Japanese Characters by Recognizing the Number of Fingers |
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Takashi Yamagishi, and Kazunori Umeda |
Paper: | pp. 426-433 | ||
Robust Vibration Control of a Flexible Robot Arm Carrying an Uncertain Load That Causes Bending/Torsional Coupling |
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Toru Watanabe, Kohsuke Yamamoto, Kohei Takamura, and Kazuto Seto |
Paper: | pp. 434-442 | ||
The Evaluation of Agreement Between Dynamics of Electric Wheelchair and Human Behavior |
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Shigenobu Shimada, Kosei Ishimura, and Mitsuo Wada |
No.3
(Jun)
Special Issue on Selected Papers from ROBOMEC'03 (Part 2)
Special Issue on Selected Papers from ROBOMEC'03 (Part 2)
Editorial: | p. 227 | |
Selected Papers from ROBOMEC’03 (Part 2) |
| |
Kazuhito Yokoi, and Masashi Furukawa | ||
This special issue commemorates the designation of the Journal of Robotics and Mechatronics as the International Journal of the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers from 1999. The 2003 JSME Conference on Robotics and Mechatronics (ROBOMEC’03) was held in Hakodate May 23-25, 2003, sponsored by the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers. The general chair was Prof. Mikami and the program chair was Prof. Furukawa. The purpose of the conference was to aid in the establishment of new industries using advanced robotics and mechatronics technologies. Technical sessions featured 70 organized sessions and 770 papers enjoyed by some 1,000 participants. This special issue presents a wide range of ROBOMEC’03 papers to disseminate informative and innovative results. The program committee selected 95 outstanding papers, or about 10%. Of the 36 submitted and reviewed by the Journal’s referees, 28 were selected for publication. Special Issue Part 2 on Selected Papers from ROBOMEC’03 (Vol.16, No.3) presents 14, with others having already been presented in Part 1 (Vol.16, No.2). We thank the authors featured in this special issue for their time and effort. We also thank Editor-in-Chief Prof. Makoto Kaneko of Hiroshima University for his invaluable effort in organizing this special issue and the editors for selecting the papers. |
Paper: | pp. 228-236 | ||
Sequential Identification Technique of Jacobian Matrix for a Power-Assisted Lifter Using Wire-Driven Parallel Mechanism |
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Daisuke Yamaguchi, Yasutaka Tagawa, Masaki Hayatsu, and Manabu Yamada |
Paper: | pp. 237-244 | ||
An Analysis of Human Motion for Control of a Wearable Power Assist System |
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Satoshi Kawai, Keitaro Naruse, Hiroshi Yokoi, and Yukinori Kakazu |
Paper: | pp. 245-255 | ||
Controller Adjustment of an Exoskeleton Robot for Shoulder Motion Assistance |
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Kazuo Kiguchi, Koya Iwami, Keigo Watanabe, and Toshio Fukuda |
Paper: | pp. 256-263 | ||
Development of Wearable Chair Using Pneumatic Passive Elements |
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Takashi Mitsuda, Masato Wakabayashi, and Sadao Kawamura |
Paper: | pp. 264-270 | ||
Book Extraction for Remote Book Browsing Robot |
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Tetsuo Tomizawa, Akihisa Ohya, and Shin’ichi Yuta |
Paper: | pp. 271-277 | ||
Adaptive Shape Reconfiguration of a Decentralized Motile System Exploiting Molecular Dynamics and Stokesian Dynamics Methods |
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Masahiro Shimizu, Akio Ishiguro, Masayasu Takahashi, Toshihiro Kawakatsu, Yuichi Masubuchi, and Masao Doi |
Paper: | pp. 278-285 | ||
Emergent Behaviors of a Linear Cluster Robot System: Enclosing and Molding by CA Method |
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Sumiaki Ichikawa, Kentaro Suzuki, and Fumio Hara |
Paper: | pp. 286-292 | ||
Development of Slime Robot Using Bridle Bellows |
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Takeshi Aoki, and Shigeo Hirose |
Paper: | pp. 293-303 | ||
Development of Genbu: Active-Wheel Passive-Joint Snake-Like Mobile Robot |
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Hitoshi Kimura, Keisuke Shimizu, and Shigeo Hirose |
Paper: | pp. 304-311 | ||
Design of the Leg Mechanism of a Water Surface Runner |
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Masaru Higuchi, Hideo Tanaka, Shingo Tsutsumi, Yukio Takeda, and Hiroaki Funabashi |
Paper: | pp. 312-318 | ||
Firm Standing for Legged Mobile Manipulators |
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Takashi Tagawa, Yasumichi Aiyama, and Hisashi Osumi |
Paper: | pp. 319-326 | ||
Four-Wheeled Hopping Robot with Attitude Control |
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Shingo Shimoda, Takashi Kubota, and Ichiro Nakatani |
Paper: | pp. 327-332 | ||
Development of Electromagnetic Nutation Motor (Electromagnetic Investigation) |
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Koichi Suzumori, Takashi Nagata, Takefumi Kanda, Kazuo Uzuka, and Isao Enomoto |
Paper: | pp. 333-341 | ||
A Study on Propagation Characteristics of Spread Spectrum Sound Waves Using a Band-Limited Ultrasonic Transducer |
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Akio Yamane, Taketoshi Iyota, Yongwoon Choi, Yuzuru Kubota, and Kazuhiro Watanabe |
No.2
(Apr)
Special Issue on Selected Papers from ROBOMEC'03 (Part 1)
Special Issue on Selected Papers from ROBOMEC'03 (Part 1)
Editorial: | p. 115 | |
Selected Papers from ROBOMEC’03 (Part 1) |
| |
Kazuhito Yokoi, and Masashi Furukawa | ||
This special issue commemorates the designation of the Journal of Robotics and Mechatronics as the International Journal of the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers from 1999. The 2003 JSME Conference on Robotics and Mechatronics (ROBOMEC’03) was held in Hakodate May 23-25, 2003, sponsored by the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers. The general chair was Prof. Mikami and the program chair was Prof. Furukawa. The purpose of the conference was to aid in the establishment of new industries using advanced Robotics and Mechatronics technologies. Technical sessions featured 70 organized sessions and 770 papers enjoyed by some 1,000 participants. This special issue presents a wide range of ROBOMEC’03 papers to disseminate the informative and innovative results. The program committee selected 95 outstanding papers, or about 10%. Of the 36 submitted and reviewed by the Journal’s referees, 28 were selected for publication. Special Issue Part 1 on Selected Papers from ROBOMEC’03 (Vol. 16, No. 2) presents 14, and others are presented in Part 2 (Vol. 16, No. 3). We thank the authors featured in this special issue for their time and effort. We also thank Editor-in-Chief Prof. Makoto Kaneko of Hiroshima University for his indispensable effort in organizing this special issue and the editors for selecting the papers. |
Paper: | pp. 116-121 | ||
Development of Interference-Free Wire-Driven Joint Mechanism for Surgical Manipulator Systems |
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Kouji Nishizawa, and Kousuke Kishi |
Paper: | pp. 122-128 | ||
Robotic Laser Surgery with λ=2.8μm Microlaser in Neurosurgery |
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Shigeru Omori, Yoshihiro Muragaki, Ichiro Sakuma, and Hiroshi Iseki |
Paper: | pp. 129-137 | ||
Development of Wide-Angle-View Laparoscope Using Wedge Prisms |
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Takemasa Hashimoto, Etsuko Kobayashi, Ichiro Sakuma, Kazuhiko Shinohara, Makoto Hashizume, and Takeyoshi Dohi |
Paper: | pp. 138-145 | ||
Discrimination of Vascular Conditions Using a Probabilistic Neural Network |
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Akira Sakane, Toshio Tsuji, Noboru Saeki, and Masashi Kawamoto |
Paper: | pp. 146-154 | ||
Dynamic Switching of a Controller Based on Diagnostic Tasks in Remote Ultrasound Diagnostics |
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Norihiro Koizumi, Shin’ichi Warisawa, Hiroyuki Hashizume, and Mamoru Mitsuishi |
Paper: | pp. 155-162 | ||
Calibration of Carbon Nanotube Probes for Pico-Newton Order Force Measurement Inside a Scanning Electron Microscope |
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Masahiro Nakajima, Fumihito Arai, Lixin Dong, and Toshio Fukuda |
Paper: | pp. 163-170 | ||
Conveyor for Pneumatic Two-Dimensional Manipulation Realized by Arrayed MEMS and its Control |
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Yamato Fukuta, Masashi Yanada, Atsushi Ino, Yoshio Mita, Yves-André Chapuis, Satoshi Konishi, and Hiroyuki Fujita |
Paper: | pp. 171-177 | ||
A Study on High-Output Resonance-Driven Piezoelectric Micropumps Using Active Check Valves |
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Jung-Ho Park, Kazuhiro Yoshida, Chikara Ishikawa, Shinichi Yokota, Takeshi Seto, and Kunihiko Takagi |
Paper: | pp. 178-185 | ||
Configuration and Robustness in Visual Servo |
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Graziano Chesi, and Koichi Hashimoto |
Paper: | pp. 186-193 | ||
Development of Crane Vision for Positioning Container |
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Satoshi Kunimitsu, Hajime Asama, Kuniaki Kawabata, and Taketoshi Mishima |
Paper: | pp. 194-199 | ||
Design Concept of Responsive Multithreaded Processor for Distributed Real-Time Control |
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Nobuyuki Yamasaki |
Paper: | pp. 200-207 | ||
Development of a Universal Interface Board and its Application to Robot Controllers and Signal Processors |
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Masaaki Kumagai, and Takashi Emura |
Paper: | pp. 208-216 | ||
Device Distributed Approach to Expandable Robot System Using Intelligent Device with Super-Microprocessor |
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Kei Okada, Akira Fuyuno, Takeshi Morishita, Takashi Ogura, Yasumoto Ohkubo, Yasuyuki Kino, Masayuki Inaba, and Hirochika Inoue |
Paper: | pp. 217-224 | ||
Functionally Distributed Control Architecture for Autonomous Mobile Robots |
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Tetsuya Taira, and Nobuyuki Yamasaki |
No.1
(Feb)
Regular papers
Regular Papers
Paper: | pp. 1-7 | ||
Dynamic Control of Curve-Constrained Hyper-Redundant Manipulators |
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Shugen Ma, and Mitsuru Watanabe |
Paper: | pp. 8-16 | ||
Development of Robot Using Pneumatic Artificial Rubber Muscles to Operate Construction Machinery |
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Kenji Kawashima, Takahiro Sasaki, Toshiyuki Miyata, Naohiro Nakamura, Masato Sekiguchi, and Toshiharu Kagawa |
Paper: | pp. 17-22 | ||
Study on Recognition of Hand Waving |
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Kazue Nishihara, Noriyuki Kawarazaki, Tadashi Yoshidome, and Qiang Gao |
Paper: | pp. 23-30 | ||
Study on Ankle Mechanisms for Walking Robots -Fundamental Considerations on its Functions and Morphology- |
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Masaru Ogata, and Shigeo Hirose |
Paper: | pp. 31-38 | ||
Flexible Rope Manipulation Using Elastic Deformation Modeling by Dual Manipulator System with Vision Sensor |
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Takayuki Matsuno, Toshio Fukuda, Fumihito Arai, and Yasuhisa Hasegawa |
Paper: | pp. 39-43 | ||
Transmission of Human Intention by Impulsive Sound |
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Kazue Nishihara, Noriyuki Kawarazaki, and Tadashi Yoshidame |
Paper: | pp. 44-53 | ||
Fast, Accurate Sonar-Ring System |
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Teruko Yata, Akihisa Ohya, Jun’ichi Iijima, and Shin’ichi Yuta |
Paper: | pp. 54-60 | ||
Expert Skill-Based Gain Tuning in Discrete-Time Adaptive Control for Robots |
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Haruhisa Kawasaki, and Geng Li |
Paper: | pp. 61-70 | ||
Study on In-Pipe Corrosion Diagnosis System -Estimation of Corrosion on Screw Parts Using a Surface SH Probe- |
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Shintaro Sakamoto, Toshio Fukuda, Hironori Yui, Yasuhiro Abe, Yasuhisa Hasegawa, Futoshi Kobayashi, and Fumihito Arai |
Paper: | pp. 71-79 | ||
Study on In-Pipe Corrosion Diagnosis System -Corrosion Estimation Using Wavelet Transform and Two-dimensional Information- |
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Shintaro Sakamoto, Toshio Fukuda, Hironori Yui, Yasunori Abe, Yasuhisa Hasegawa, Futoshi Kobayashi, and Fumihito Arai |
Paper: | pp. 80-89 | ||
Navigation of an Omnidirectional Mobile Robot by Teaching a Few Omnidirectional Images |
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Akihiro Matsumoto, Shoji Tsukuda, and Gosuke Yoshita |
Paper: | pp. 90-96 | ||
Neural Networks for Redundant Robot Manipulators Control with Obstacles Avoidance |
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B. Daachi, A. Benallegue, T. Madani, and M. E. Daachi |
Paper: | pp. 97-103 | ||
Automatic 3D-Laser Scattering Measurement for Ultra-Finished Surface with Nanowatt Sensitivity |
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Taeho Ha, Keiichi Kimura, Takashi Miyoshi, and Yasuhiro Takaya |
Paper: | pp. 104-112 | ||
Development of Horse-Type Quadruped Robot (Report2, Experiments of Trot Gait by Quadruped Robot PONY) |
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Shinobu Makita, Daisuke Nishimura, and Junji Furusho |
Vol.15 (2003)
No.6
(Dec)
Special Issue on Microrobots
Special Issue on Microrobots
Editorial: | p. 581 | |
Microrobots |
| |
Hidenori Ishihara | ||
Micromechatronics has become a key issue in engineering. Robotics and mechatronics are a global concern. Micromechatronics contributes especially to the development of electrical and mechanical systems through miniaturization and advanced functions. Micromechatronics was defined by Prof. Fukuda, Prof. Fujita et. al in the 1980’s. In 1980’s, Microelectromechanical Systems (MEMS) was developed in the USA and then expanded to Japan and Germany. In the same time frame, devices based on precious machining technology were miniaturized in Japan and Switzerland as Michromachine. MEMS combines electronics and mechatronics and promotes new-conceptual devices such as intellectual sensors, e.g., pressure and acceleration sensors. Precious machining has improved manufacturing and achieved the find control. Thorough these development, Micromechatronics was born as an integrated technology. This special issue introduces basic technologies and applications of micromechatronics, which includes such vital technologies as mechanical, electric, and electrical engineering, machining, and MEMS. This issue, which features several topics on micromechatronics, will give readers a welcome chance to acquaint themselves with state-of-the-art information on micromechatronics. This issue contains nine technical papers on micro robots, intelligent microsensors, and their applications, together with related letters. It opens with a paper on microsensors by Fujiyoshi et al. and the application of miniaturized motors to a robotic hand by Nishibori et al. Included also are articles on micro robots by Aoyama, Torii, Wakimoto and Guo, work on unique micromanipulation systems by Nakamura et al., and the application of micro units to robotic systems by Yamada et al. Letters discuss objectives and achievements of micro robot contests held in Japan that serve to popularize and disseminate unique mechanisms and new concepts in this exciting field. I am certain this issue will provide readers with information that is both interesting and informative. In closing, I would like to thank the authors, members of the editorial board, and the publisher, without whose hard work and careful consideration this issue would not have been possible. |
Paper: | pp. 582-587 | ||
Analysis and Design of A New Micro Jerk Sensor with Viscous Coupling |
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Motohiro Fujiyoshi, Yutaka Nonomura, Fumihito Arai, and Toshio Fukuda |
Paper: | pp. 588-595 | ||
Robot Hand with Fingers Using Vibration-Type Ultrasonic Motors (Driving Characteristics) |
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Kenji Nishibori, Setsuya Kondo, Hirohisa Obata, and Shigeru Okuma |
Paper: | pp. 596-601 | ||
Automatic Insemination and Incubation by Male and Female Micro Robots |
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Hisayuki Aoyama and Hideharu Takubo |
Paper: | pp. 602-608 | ||
Motion of a Miniature Robot Using Three Piezoelectric Elements Controlled by Rectangular Voltage |
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Akihiro Torii, Yoshiyuki Fukaya, Kae Doki, and Akiteru Ueda |
Paper: | pp. 609-615 | ||
In-Pipe Inspection Micro Robot Adaptable to Changes in Pipe Diameter |
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Shuichi Wakimoto, Koichi Suzumori, Masanori Takata, and Jun Nakajima |
Paper: | pp. 616-623 | ||
A Novel Mobile Microrobot Fin for In-Pipe Inspection |
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Shuxiang Guo, Yasuhiro Sasaki, and Toshio Fukuda |
Paper: | pp. 624-631 | ||
Magnetic Linear Motion Mechanism of a 2-Parallel-Finger Hand for Force Operation |
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Tatsuya Nakamura and Zhiqi Liu |
Paper: | pp. 632-638 | ||
Reconfigurable Parts Feeding System Using Array of Vibrators |
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Yasuhiro Yamada, Nobutaka Torii, and Yoshiaki Komura |
Paper: | pp. 639-645 | ||
Miniaturized Mobile Robot Kit for Robotics Seminars for Young People |
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Hidenori Ishihara, Kimihito Yukawa, Toshio Fukuda, Fumihito Arai, and Yasuhisa Hasegawa |
Paper: | pp. 646-648 | ||
Micromechanisms and Their Applications |
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Mikio Horie, Shinya Sasayama, Fumikazu Ohira, Ken'ichi Hiratsuka, Yuichi Nakazato, Yasuo Hayashibara, Takahiro Ito, Hidetsugu Terada, Ryusuke Tokui, and Teru Hayashi |
Paper: | pp. 649-651 | ||
The Challenge of Micro Robot Creation at the Nippon Institute of Technology |
|
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Yuichi Nakazato |
Paper: | pp. 652-654 | ||
Micromachines Designed and Fabricated for Micromechanism Contest |
|
||
Hiroshi Endo |
Paper: | pp. 655-657 | ||
Current and Future Arts of International Micro Robot Maze Contest |
|
||
Hidenori Ishihara |
No.5
(Oct)
Special Issue on Rescue Robots
Special Issue on Rescue Robots
Editorial: | p. 473 | |
Rescue Robots |
| |
Koichi Osuka and Satoshi Tadokoro | ||
This special issue brings together the many achievements on rescue robots development beginning after the Hanshin-Awaji Great Earthquake in Kobe. The earthquake that laid waste to most of Kobe, Seattle’s sister city, early on the morning of January 17, 1995, was a wakeup warning to robotics researchers who realized that the potential of their studies had not been realized in its greatest and most challenging arena – a disastrous earthquake where robots and similar strategies could have rescued people in situations where no other help or support was possible. Japanese robotics researchers set up academic working groups to study and promote such R&D. The national project involving key next-generation urban disaster prevention technologies includes the subtheme of rescue robots, with robotics researchers introducing concrete achievements. A Japanese national project had never used the term of rescue robots before then. Rescue robots range from simple instruments powered by human operators to intelligent machines able to operate virtually on their own. Some advanced rescue robots have built-in prime motive power and others use the latest in artificial intelligence. This special issue brings to readers a dozen articles introducing the many and varied achievements by Japanese robotics researchers covering a wide range of rescue robots. With this field poised to enter the main stream, these robots are close to practical application, and knowledge of their capabilities is essential to those able to utilize this latest technology in their current and future re search. This issue is a must to all who are interested in exploring the new world of robot rescue. |
Paper: | pp. 474-481 | ||
Development of Small Diameter Active Hose-II for Search and Life-prolongation of Victims under Debris |
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Ato Kitagawa, Hideyuki Tsukagoshi, and Masaki Igarashi |
Paper: | pp. 482-490 | ||
Development of Jumping & Rolling Inspector to Improve the Debris-traverse Ability |
|
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Hideyuki Tsukagoshi, Yotaro Mori, Masashi Sasaki, Takahiro Tanaka, and Ato Kitagawa |
Paper: | pp. 491-500 | ||
Autonomous Flight Control System for Intelligent Aero-robot for Disaster Prevention |
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Hiroaki Nakanishi, Hiroyuki Hashimoto, Naomi Hosokawa, Koichi Inoue, and Akira Sato |
Paper: | pp. 501-507 | ||
Development of Detachable Teleoperation Gripper for a Walking Robot |
|
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Shinichi Suganuma, Masaru Ogata, Kensuke Takita, and Shigeo Hirose |
Paper: | pp. 508-515 | ||
HELIOS VII: a New Tracked Arm-Equipped Vehicle |
|
||
Michele Guarnieri, Paulo Debenest, Takao Inoh, and Shigeo Hirose |
Paper: | pp. 516-520 | ||
A Consideration on Rescue Robot Contest from Viewpoint of Technology Education |
|
||
Toru Yamamoto, Takako Ichikawa, and Shoichiro Fujisawa |
Paper: | pp. 521-527 | ||
Information Assistance for Search-and-Rescue by Intelligent Data Carriers and a Data Retrieval Blimp |
|
||
Daisuke Kurabayashi, Kenichi Noda, Hajime Asama, Kuniaki Kawabata, Hayato Kaetsu, and Hiroshi Hashimoto |
Paper: | pp. 528-536 | ||
Development of Simple Search Device by Person’s Power |
|
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Tomoharu Doi, Hisanobu Tamari, Tadashiro Kaneda, Toshitaka Umemoto, and Yasumasa Yoshitani |
Paper: | pp. 537-545 | ||
Autonomous Flight Control of Unmanned Small Hobby-Class Helicopter Report 1: Hardware Development and Verification Experiments of Autonomous Flight Control System |
|
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Daigo Fujiwara, Jinok Shin, Kensaku Hazawa, Kazuhiro Igarashi, Dilshan Fernando, and Kenzo Nonami |
Paper: | pp. 546-554 | ||
Autonomous Flight Control of Unmanned Small Hobby-Class Helicopter Report 2: Modeling Based on Experimental Identification and Autonomous Flight Control Experiments |
|
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Kensaku Hazawa, Jinok Shin, Daigo Fujiwara, Kazuhiro Igarashi, Dilshan Fernando, and Kenzo Nonami |
Paper: | pp. 555-560 | ||
Development of Joints for Power Microrobot for Searching inside Debris |
|
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Koichi Suzumori, Masanori Takata, and Shuichi Wakimoto |
Paper: | pp. 561-570 | ||
Development of Four-Crawler Multilink Mobile Robot MOIRA for Searching Debris |
|
||
Koichi Osuka, and Hiroshi Kitajima |
Paper: | pp. 571-578 | ||
Kinematic Identification Method for Cable-Driven Rescue Robots in Unstructured Environments |
|
||
Satoshi Tadokoro, Richard Verhoeven, Ulrike Zwiers, Manfred Hiller, and Fumiaki Takemura |
No.4
(Aug)
Regular papers
Regular Papers
Paper: | pp. 361-368 | ||
Control Method for Realistic Motion in a Construction Tele-robotic System with a 3-DOF Parallel Mechanism |
|
||
Dingxuan Zhao, Yupeng Xia, Hironao Yamada, and Takayoshi Muto |
Paper: | pp. 369-376 | ||
An Electronic Nose Using Neural Networks with Effective Training Data Selection |
|
||
Bancha Charumporn, Michifumi Yoshioka, Toru Fujinaka, and Sigeru Omatu |
Paper: | pp. 377-383 | ||
Bistable Fluidic Laminar Amplifiers for Optopneumatic Interfaces |
|
||
G. Belforte, G. Eula, M. Martinelli, T. Raparelli, and V. Viktorov |
Paper: | pp. 384-390 | ||
Voice-supported Active Touch Panel Using Micro Touch Sensor with PZT Thin Film |
|
||
Gui Ryong Kwon, Fumihito Arai, Toshio Fukuda, Koichi Itoigawa, and Yasunori Tsukahara |
Paper: | pp. 391-397 | ||
Development of a Hydraulic Parallel Link Force Display -Improvement of Manipulability Using a Disturbance Observer and its Application to a Master-slave System- |
|
||
Shigeki Kudomi, Hironao Yamada, and Takayoshi Muto |
Paper: | pp. 398-405 | ||
Compensation of Stick-Slip Phenomenon in an Electrical Actuator |
|
||
R. Merzouki, J. C. Cadiou, and N. K. M'Sirdi |
Paper: | pp. 406-415 | ||
Study on Handling Clothes (Task Planning of Deformation for Unfolding Laundry) |
|
||
Manabu Kaneko and Masayoshi Kakikura |
Paper: | pp. 416-423 | ||
A Study of Active Cord Mechanisms -Basic Design of Pneumatically Driven Active Cord Mechanism- |
|
||
Hidetaka Ohno and Shigeru Hirose |
Paper: | pp. 424-431 | ||
A Study of Active Cord Mechanisms -Biomechanical Consideration on its 3D Gaits- |
|
||
Hidetaka Ohno and Shigeo Hirose |
Paper: | pp. 432-441 | ||
Development of Output Coupling Mechanisms for Mechanical Systems |
|
||
Rintaro Haraguchi, Koichi Osuka, and Toshiharu Sugie |
Paper: | pp. 442-450 | ||
Development of Horse-type Quadruped Robot -Report 1, Development of Mechanism and Control System of Quadruped Robot PONY- |
|
||
Shinobu Makita, and Junji Furusho |
Paper: | pp. 451-457 | ||
Study of Individual Feature Extraction from Range Data of Human Nose |
|
||
Akio Nozawa, and Hideto Ide |
Paper: | pp. 458-468 | ||
Track Following Control for Large Capacity Flexible Disk Drives -Disturbance Observer Design using Two Position Sensors- |
|
||
Jun Ueda, Akihiko Imagi, Hitoshi Tamayama, and Tsuneo Yoshikawa |
No.3
(Jun)
Special Issue on Robot Vision
Special Issue on Robot Vision
Editorial: | p. 253 | |
Robot Vision |
| |
Kazunori Umeda | ||
Robot vision is an essential key technology in robotics and mechatronics. The number of studies on robot vision is wide-ranging, and this topic remains a hot vital target. This special issue reviews recent advances in this exciting field, following up two special issues, Vol. 11 No. 2, and Vol. 13 No. 6, which attracted more papers than expected. This indicates the high degree of research activity in this field. I am most pleased to report that this issue presents 12 excellent papers covering robot vision, including basic algorithms based on precise optical models, pattern and gesture recognition, and active vision. Several papers treat range imaging and others interesting applications to agriculture and quadruped robots and new devices. This issue also presents two news briefs, one on a practical range sensor suited to mobile robots and the other on vision devices that are the improved ones of famous IP-5000 series. I am convinced that this special issue helps research on robot vision more exciting. I would like to close by thanking all of the researchers who submitted their studies, and to give special thanks to the reviewers and editors, especially Prof. M. Kaneko, Dr. K. Yokoi, and Prof. Y. Nakauchi. |
Paper: | pp. 254-262 | ||
High-Resolution Image Synthesis from Video Sequence by Light Field |
|
||
Kenkichi Kobayashi, and Hideo Saito |
Paper: | pp. 263-270 | ||
Virtual Object Overlay onto Uncalibrated Camera Image Sequence Enabling Tracking of Natural Features |
|
||
Shunsuke Harasaki and Hideo Saito |
Paper: | pp. 271-277 | ||
HMM-based Temporal Difference Learning with State Transition Updating for Tracking Human Communicational Behaviors |
|
||
Minh Anh T. Ho, Yoji Yamada, and Yoji Umetani |
Paper: | pp. 278-285 | ||
Pattern Recognition by Hierarchical Feature Extraction |
|
||
Daigo Misaki, Shigeru Aomura, and Noriyuki Aoyama |
Paper: | pp. 286-292 | ||
Hand Shape Recognition using Higher Order Local Autocorrelation Features in Log Polar Coordinate Space |
|
||
Satoru Odo, and Kiyoshi Hoshino |
Paper: | pp. 293-303 | ||
Position and Pose Estimation of Camera-Head with Foveated Wide Angle Lens |
|
||
Haiquan Yang, Nobuyuki Kita, and Yasuyo Kita |
Paper: | pp. 304-313 | ||
Camera Calibration and 3-D Measurement with an Active Stereo Vision System for Handling Moving Objects |
|
||
Atsushi Yamashita, Toru Kaneko, Shinya Matsushita, Kenjiro T. Miura, and Suekichi Isogai |
Paper: | pp. 314-321 | ||
Fast Distance Measurement Method by Parallel-Shift Arrangement Stereoscopic Camera |
|
||
Taro Iwamoto, Koji Ohara, and Koji Shibuya |
Paper: | pp. 322-330 | ||
A Range Finder System with Electronically Maskable Photo Detecting Device Array |
|
||
Jun Masaki, Nobuhiro Okada, and Eiji Kondo |
Paper: | pp. 331-340 | ||
A Confocal Surface Measurement System Having Improved Measurement Accuracy for Rough Surfaces and Measurement Speed |
|
||
Mitsuhiro Ishihara |
Paper: | pp. 341-348 | ||
Robotic Vision for Bioproduction Systems |
|
||
Mitsuji Monta, Naoshi Kondo, Seiichi Arima, and Kazuhiko Namba |
Paper: | pp. 349-355 | ||
3D Visual Information Processing and Gait Control of a Quadruped Robot – for operation on a steep slope protected by a free frame – |
|
||
Takahiro Doi, Hideyuki Tsukagoshi, and Shigeo Hirose |
News: | pp. 356-357 | ||
2-D distance image sensor |
|
||
Toshihiro Mori |
No.2
(Apr)
Selected Papers from ROBOMEC'02
Selected Papers from ROBOMEC'02
Editorial: | p. 113 | |
Selected Papers from ROBOMEC’02 |
| |
Kazuhito Yokoi and Tetsuo Yabuta | ||
This special issue has been proposed in honor of the Journal of Robotics and Mechatronics authorized to be the International Journal of the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers from 1999. The 2002 JSME Conference on Robotics and Mechatronics (ROBOMEC’02) was held in Matsue on June 7-9, 2002, sponsored by the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers and attended by 861 participants. The purpose of the conference was to aid future establishment of new industries by using advanced technologies of Robotics and Mechatronics. Technical sessions included 70 organized sessions in which 684 papers were presented. This special issue was organized by editing papers presented at ROBOMEC’02 to ensure that conference results reached the widest possible audience. The Conference Program Committee selected 40 papers -less than 6% of the total. We have included the 17 papers accepting an invitation for inclusion that were reviewed by journal referees and selected for publication in the Journal of Robotics and Mechatronics Special Issue on Selected Papers from ROBOMEC’02 (Vol. 15, No. 2). We thank the authors who have contributed their updated papers, Editor-in-Chief Prof. Makoto Kaneko of Hiroshima University whose work has been indispensable in organizing this special issue, and the editors for selecting the papers. |
Paper: | pp. 114-120 | ||
Method for Controlling Multi-DOF Ultrasonic Motor Using Neural Network |
|
||
Kenjiro Takentura and Takashi Maeno |
Paper: | pp. 121-127 | ||
Development of Haptic Device Using Flexible Sheet |
|
||
Kenji Inoue, Reiko Uesugi, Tatsuo Arai, and Yasushi Mae |
Paper: | pp. 128-135 | ||
Development of High-Power Micropump Using Inertia Effect of Fluid for Small-Sized Fluid Actuators |
|
||
Takeshi Seto, Kunihiko Takagi, Kazuhiro Yoshida, Jung-Ho Park, and Shinichi Yokota |
Paper: | pp. 136-142 | ||
An FPGA Implementation of Finite Physical Quantity Neural Network |
|
||
Takashi Sotohebo, Minoru Watanabe, and Funtinori Kobayashi |
Paper: | pp. 143-152 | ||
Behavior System Design and Implementation in Spined Musle-Tendon Humanoid “Kenta” |
|
||
Tomoaki Yoshikai, Ikuo Mizuuchi, Daisuke Sato, Shigenori Yoshida, Masayuki Inaba, and Hirochika Inoue |
Paper: | pp. 153-163 | ||
Measurement of Mechanical Characteristics of a Fingerpad Surface in the Design of a Tactile Display |
|
||
Takeshi Homma, Shuichi Ino, Takashi Izumi, Hayato Kuroki, and Tohru Ifukube |
Paper: | pp. 164-171 | ||
Development of Pneumatic Soft Robot Hand for Human Friendly Robot |
|
||
Daisuke Sasaki, Toshiro Noritsugu, and Masahiro Takaiwa |
Paper: | pp. 172-177 | ||
Fibrous Optical Actuator Containing Photochromic Molecules |
|
||
Takayuki Tanaka, Naoto Yamagishi, Ryujiro Mitsui, and Takashi Kawamura |
Paper: | pp. 178-184 | ||
Development on Conveyance Module with New Power Drive Mechanism for Thin Wire Production System |
|
||
Hidenori Ishihara, Atsutoshi Ikeda, Minoru Suzuki, and Kimihito Yukawa |
Paper: | pp. 185-191 | ||
A Novel Robot Vision Applicable to Real-time Target Tracking |
|
||
Kazuhiro Shimonomura, Keisuke Inoue, Seiji Kameda, and Tetsuya Yagi |
Paper: | pp. 192-199 | ||
Human Impedance Perception through Sensory-Motor Integration |
|
||
Toshio Tsuji, Yoshiyuki Tanaka, Tatsuya Abe, and Hideki Miyaguchi |
Paper: | pp. 200-207 | ||
Humanoid Arm Motion Planning Using Stereo Vision and RRT Search |
|
||
Satoshi Kagami, James J. Kuffner, Koichi Nishiwaki, Kei Okada, Masayuki Inaba, and Hirochika Inoue |
Paper: | pp. 208-218 | ||
Basic Circuit Design of a Neural Processor: Analog CMOS Implementation of Spiking Neurons and Dynamic Synapses |
|
||
Yusuke Kanazawa, Tetsuya Asai, and Yoshihito Amemiya |
Paper: | pp. 219-226 | ||
Wearable Haptic Interface Using ICPF Actuators for Tactile Feel Display in Response to Hand Movements |
|
||
Masashi Konyo, Kazunobu Akazawa, Satoshi Tadokoro, and Toshi Takamori |
Paper: | pp. 227-237 | ||
Evolutionary Motion Synthesis for a Modular Robot Using Genetic Algorithm |
|
||
Eiichi Yoshida, Satoshi Murata, Akiya Kamimura, Kohji Tomita, Haruhisa Kurokawa, and Shigeru Kokaji |
Paper: | pp. 238-243 | ||
Development of a Wall Moving In-Pipe Robot |
|
||
Shingo Kobayashi and Kan Taguchi |
Paper: | pp. 244-250 | ||
A Valve-Integrated Microactuator Using Homogeneous ER Fluid |
|
||
Kazuhiro Yoshida, Hiroshi Yano, Jung-Ho Park, and Shinichi Yokota |
No.1
(Feb)
Regular papers
Regular Papers
Paper: | pp. 1-7 | ||
A Parallel Solution Scheme for Inverse Dynamics and its Application in Feed-forward Control of Link Mechanisms |
|
||
Daigoro Isobe, Daisaku Imaizumi, Youichi Chikugo, and Shunsuke Sato |
Paper: | pp. 8-14 | ||
Improvement in PZT Ceramic Vibrator Low Frequency Of Generated Sound for Using PZT Ceramic Vibrator As a Sound Source for an Artificial Larynx |
|
||
Katsutoshi Ooe, Toshio Fukuda and Fumihito Arai |
Paper: | pp. 15-23 | ||
Noise Cancellation Based on Split Spectra by Using Sound Location |
|
||
Kazuyuki Nobu, Takeshi Koya, Kei-ichi Kaneda, Naomi Haratani and Hiromu Gotanda |
Paper: | pp. 24-32 | ||
Viewing Tablet: A Pointing System Applicable to any Sheet Object |
|
||
Hiroshi Usuda and Masanori Idesawa |
Paper: | pp. 33-38 | ||
Quantitative Evaluation of the Tactile Sense by ERP |
|
||
Tetsuya Shiozaki, Akio Nozawa, Yoshimi Nakazono, Masafumi Uchida, Hisaya Tanaka and Hideto Ide |
Paper: | pp. 39-46 | ||
Development of a Hydraulic Force-Display (Application to One-DOF Master-Slave Control) |
|
||
Hironao Yamada, Shigeki Kudomi, Yoshinori Niwa and Takayoshi Muto |
Paper: | pp. 47-53 | ||
Sliding Mode Control of Hydraulic Power Shovel |
|
||
Hironao Yamada, Kyoji Takeichi and Takayoshi Mato |
Paper: | pp. 54-60 | ||
Master-Slave Control for Construction Robot Teleoperation |
|
||
Hironao Yamada, Hidetoshi Kato, and Takayoshi Muto |
Paper: | pp. 61-69 | ||
Development of “Souryu I & II” -Connected Crawler Vehicle for Inspection of Narrow and Winding Space |
|
||
Toshio Takayama and Shigeo Hirose |
Paper: | pp. 70-76 | ||
Study on Articulated Mobile Robot Introduction and Experiment in Perspective Control |
|
||
Akio Morishima and Shigeo Hirose |
Paper: | pp. 77-83 | ||
Stable Neural Network Controller Based Observer for Rigid Robot Manipulators |
|
||
Boubaker Daâchi and Abdelaziz Benallegue |
Paper: | pp. 84-95 | ||
A Study on the On-Ground Access System Using Marker-based Visual Imformation |
|
||
Koichi Yoshida |
Paper: | pp. 96-104 | ||
Generation of Observation Arrangement in Distributed Autonomous Robotic Systems |
|
||
Tomoyuki Kaga and Toshio Fukuda |
Vol.14 (2002)
No.6
(Dec)
Special Issue on Assistive Device Technologies
Special Issue on Assistive Device Technologies
Editorial: | p. 523 | |
Assistive Device Technologies |
| |
Osamu Fukuda | ||
Technologies for supporting a healthy lifestyle for the elderly and disabled are needed to keep them mentally and physically independent and to help them take part in society. The issue of a rapidly aging society has, in fact, become a major national problem. This special issue focuses on assistive device technologies for the elderly and disabled. Contributed and invited papers have been carefully reviewed by journal referees and 13 papers selected for publication in the Journal of Robotics and Mechatronics Special Issue on Human Assistive Technologies (Vol. 14, No. 6). The first 4 papers, by Hashino, Yamada et al., Miyawaki et al., and Noritsugu et al., outline the development of new mobile equipment based on novel mobile mechanisms. The next 4 articles, authored by Wenwei et al., Ohga et al., Kato et al., and Hagihara et al., deal with prostheses and orthoses. In 2 more papers, by Homma et al. and Shinomiya et al., the focus is on rehabilitation and training equipment, while in the 11th article, Kanamori et al. report on the operating “feel” of a man-machine system to improve the maneuverability of the human interface. The last 2 papers, authored by Kobayashi et al. and Fukuda et al., detail an automatic diagnosis system based on biomedical information measured from the human body. We thank the authors who have so kindly contributed their papers to this special issue, and the reviewers who have made this publication possible. Our special thanks go to Editor-in-Chief Prof. Makoto Kaneko of Hiroshima University, who provided the opportunity for editing this issue. We expect this issue to help readers to better understand new trends in assistive device technologies and to further their interest in this most robust and innovative research field. |
Paper: | pp. 524-530 | ||
Development of Stair-climbing Wheelchair |
|
||
Satoshi Hashino |
Paper: | pp. 531-537 | ||
Development of Crawler Stair Climber using Guide Rail |
|
||
Yasuhiro Yamada, Yoshinori Segawa, Kazuhiro Ookoudo, Yoshiaki Komura, Akira Yamagishi, Tadashi Sekido, Kenichiro Ikeda and Shinichi Mita |
Paper: | pp. 538-546 | ||
Evaluation of the Gait of Elderly People using an Assisting Cart (Gait on Slope) |
|
||
Kazuto Miyawaki, Takehiro Iwami, Goro Obinata, Keiichi Kutsuzawa and Shinzo Nishimura |
Paper: | pp. 547-556 | ||
Development of Medical Care Assist Bed using Pneumatic Planar Soft Actuator |
|
||
Toshiro Noritsugu, Daisuke Sasaki, Seij i Matsuo, Ikuo Kusunoki and Yuuki Mitsumine |
Paper: | pp. 557-564 | ||
Multifunctional Electrical Prosthetic Hand -Development of Tendon-driven Mechanism and Controller |
|
||
Wenwei Yu, Daisuke Nishikawa, Yasuhiro Ishikawa, Hiroshi Yokoi and Yukinori Kakazu |
Paper: | pp. 565-572 | ||
Development of A Five-finger Prosthetic Hand Using Ultrasonic Motors Controlled by Two EMG Signals |
|
||
Makoto Ohga, Mikio Takeda, Akira Matsuba, Akira Koike and Toshio Tsuji |
Paper: | pp. 573-580 | ||
Evaluation of Biosignal Processing Methods for Welfare Assisting Devices – Evaluation of EMG Information Extraction Processing Using Entropy |
|
||
Ryu Katoh, Daisuke Nishikawa, Wenwei Yu, Hiroshi Yokoi and Yukinori Kakazu |
Paper: | pp. 581-588 | ||
Direct Production for Prosthetic Sockets using Rapid Prototyping |
|
||
Shigeru Hagihara, Shin'ichi Kasai, Masafumi Ishida, Seiji Shimizu, Kazuhiro Kijima and Katsuhiko Oshiba |
Paper: | pp. 589-596 | ||
Development of Leg Rehabilitation Assistance |
|
||
Keiko Homma, Osamu Fukuda and Yoshihiko Nagata |
Paper: | pp. 597-603 | ||
Development and Muscle Strength Training Evaluation for Horseback Riding Therapeutic Equipment |
|
||
Youichi Shinomiya, Shuoyu Wang, Kenji Ishida and Tetsuhiko Kimura |
Paper: | pp. 604-614 | ||
Operating Feeling Based Design in Human-robot Collaborative Control Systems |
|
||
Naoki Kanamori and Kazuo Tanaka |
Paper: | pp. 615-624 | ||
Development of Automated Diagnosis of Schizophrenia by Analyzing Facial Images |
|
||
Hiroshi Kobayashi, Kohki Kikuchi, Miyako Tazaki and Yoshibumi Nakane |
Paper: | pp. 625-632 | ||
Modeling Heart Rate Variability with a HMM-based Neural Network |
|
||
Osamu Fukuda, Yoshihiko Nagata, Keiko Homma and Toshio Tsuji |
Paper: | pp. 633-639 | ||
Microtouch-Sensor Array Fabricated by Hydrothermal Method |
|
||
Guiryong Kwon, Fumihito Arai, Toshio Fukuda, Kouichi ltoigawa and Yasunori Tsukahara |
No.5
(Oct)
Special Issue on Human Robot Interaction
Special Issue on Human Robot Interaction
Editorial: | p. 431 | |
Human Robot Interaction |
| |
Yasushi Nakauchi | ||
Recent advances in robotics are disseminating robots into the social living environment as humanoids, pets, and caregivers. Novel human-robot interaction techniques and interfaces must be developed, however, to ensure that such robots interact as expected in daily life and work. Unlike conventional personal computers, such robots may assume a variety of configurations, such as industrial, wheel-based, ambulatory, remotely operated, autonomous, and wearable. They may also implement different communications modalities, including voice, video, haptics, and gestures. All of these aspects require that research on human-robot interaction become interdisciplinary, combining research from such fields as robotics, ergonomics, computer science and, psychology. In the field of computer science, new directions in human-computer interaction are emerging as post graphical user interfaces (GUIs). These include wearable, ubiquitous, and real-world computing. Such advances are thereby bridging the gap between robotics and computer science. The open-ended problems that potentially face include the following: What is the most desirable type of interaction between human beings and robots? What sort of technology will enable these interactions? How will human beings accept robots in their daily life and work? We are certain that readers of this special issue will be able to find many of the answers and become open to future directions concerning these problems. Any information that readers find herein will be a great pleasure to its editors. |
Paper: | pp. 432-438 | ||
Cooperative Human-robot Handling of an Object with Motion Estimation |
|
||
Yusuke Maeda, Takayuki Hara and Tamio Arai |
Paper: | pp. 439-452 | ||
An Interface between an Exoskeletal Elbow Motion Assistance Robot and the Human Upper Arm |
|
||
Kazuo Kiguchi, Shingo Kariya, Takakazu Bnaka, Keigo Watanabe and Toshio Fukuda |
Paper: | pp. 453-461 | ||
Vocalization Control of a Mechanical Vocal System under Auditory Feedback |
|
||
Yoshio Higashimoto and Hideyuki Sawada |
Paper: | pp. 462-470 | ||
Robot Motion Algorithm Based on Interaction with Human |
|
||
Yoshikazu Mori, Koji Ota and Tatsuya Nakamura |
Paper: | pp. 471-478 | ||
Development of Motion Data Description Language for Robots Based on eXtensible Markup Language – Realization of Better Understanding and Communication via Networks |
|
||
Ikuo Kitagishi, Tamotsu Machino, Akira Nakayama, Satoshi Iwaki and Masashi Okudaira |
Paper: | pp. 479-489 | ||
Real-time Auditory and Visual Multiple-speaker Tracking For Human-robot Interaction |
|
||
Kazuhiro Nakadai, Ken-ichi Hidai, Hiroshi G. Okuno, Hiroshi Mizoguchi and Hiroaki Kitano |
Paper: | pp. 490-496 | ||
Commitment-based Natural Language Interface System for Robots |
|
||
Yasushi Nakauchi, Takeshi Takahashi, Piyawat Naphattalung, Takashi Matsubara and Eiichi Kashiwagi |
Paper: | pp. 497-505 | ||
Development of an Autonomous Humanoid Robot, iSHA, for Harmonized Human-Machine Environment |
|
||
Kenji Suzuki, Riku Hikiji and Shuji Hashimoto |
Paper: | pp. 506-513 | ||
Manipulator Work System Using Gesture Instructions |
|
||
Noriyuki Kawarazaki, Nobuto Kashiwagi, Ichiro Hoya and Kazue Nishihara |
Paper: | pp. 514-519 | ||
Subjective Evaluation for Maneuverability of a Robot Cooperating with Humans |
|
||
Ryojun Ikeura, Hikaru Inooka, and Kazuki Mizutani |
No.4
(Aug)
Special Issue on Modern Trends in Mobile Robotics
Special Issue on Modern Trends in Mobile Robotics
Editorial: | p. 323 | |
Modern Trends in Mobile Robotics |
| |
Takashi Tsubouchi and Keiji Nagatani | ||
Since the dawning of the Robotics age, mobile robots have been important objectives of research and development. Working from such aspects as locomotion mechanisms, path and motion planning algorithms, navigation, map building and localization, and system architecture, researchers are working long and hard. Despite the fact that mobile robotics has a shorter history than conventional mechanical engineering, it has already accumulated a major, innovative, and rich body of R&D work. Rapid progress in modern scientific technology had advanced to where down-sized low-cost electronic devices, especially highperformance computers, can now be built into such mobile robots. Recent trends in ever higher performance and increased downsizing have enabled those working in the field of mobile robotics to make their models increasingly intelligent, versatile, and dexterous. The down-sized computer systems implemented in mobile robots must provide high-speed calculation for complicated motion planning, real-time image processing in image recognition, and sufficient memory for storing the huge amounts of data required for environment mapping. Given the swift progress in electronic devices, new trends are now emerging in mobile robotics. This special issue on “Modern Trends in Mobile Robotics” provides a diverse collection of distinguished papers on modern mobile robotics research. In the area of locomotion mechanisms, Huang et al. provide an informative paper on control of a 6-legged walking robot and Fujiwara et al. contribute progressive work on the development of a practical omnidirectional cart. Given the importance of vision systems enabling robots to survey their environments, Doi et al., Tang et al., and Shimizu present papers on cutting-edge vision-based navigation. On the crucial subject of how to equip robots with intelligence, Hashimoto et al. present the latest on sensor fault detection in dead-reckoning, Miura et al. detail the probabilistic modeling of obstacle motion during mobile robot navigation, Hada et al. treat long-term mobile robot activity, and Lee et al. explore mobile robot control in intelligent space. As guest editors, we are sure readers will find these articles both informative and interesting concerning current issues and new perspectives in modern trends in mobile robotics. |
Paper: | pp. 324-332 | ||
Neuro-Based Position and Force Hybrid Control of Six-Legged Walking Robot |
|
||
Qing-jiu Huang and Kenzo Nonami |
Paper: | pp. 333-341 | ||
Omnidirectional Cart with Power-assist System |
|
||
Shigeki Fujiwara, Hitoshi Kitano, Hideki Yamashita, Hiroshi Maeda and Hideo Fukunaga |
Paper: | pp. 342-348 | ||
Sensor Fault Detection and Diagnosis in Dead Reckoning System of Mobile Robot: Interacting Multiple-Model Approach |
|
||
Masafumi Hashimoto, Hiroyuki Kawashima and Fuminori Oba |
Paper: | pp. 349-356 | ||
Probabilistic Uncertainty Modeling of Obstacle Motion for Robot Motion Planning |
|
||
Jun Miura and Yoshiaki Shirai |
Paper: | pp. 357-365 | ||
Study of Shape Representation Using Internal Radiated-light Projection |
|
||
Takahiro Doi and Shigeo Hirose |
Paper: | pp. 366-374 | ||
Mobile Robot Playback Navigation Based on Robot Pose Calculation Using Memorized Omnidirectional Images |
|
||
Lixin Tang and Shin'ichi Yuta |
Paper: | pp. 375-381 | ||
The Second Stage Experiments on Long Term Activity of Autonomous Mobile Robots – Repetitive Navigation for One Week in a Corridor |
|
||
Yasushi Hada and Shin'ichi Yuta |
Paper: | pp. 382-389 | ||
Multi-Functional Application of Wide-Angle Foveated Vision Sensor in Mobile Robot Navigation |
|
||
Sohta Shimizu |
Paper: | pp. 390-399 | ||
Mobile Robot Control in Intelligent Space for People Support |
|
||
Joo-Ho Lee, Kazuyuki Morioka and Hideki Hashimoto |
Paper: | pp. 400-407 | ||
Low Cost Pipe-crawling Pneumatic Robot |
|
||
Andrea Manuello Bertetto and Maurizio Ruggiu |
Paper: | pp. 408-419 | ||
Implementing Fuzzy Learning Algorithms in a 6 DOF Hydraulic Parallel Link Manipulator: Actuators’ Fuzzy Modeling |
|
||
Zakarya Zyada, Yasuhisa Hasegawa, Gancho Vachkov and Toshio Fukuda |
Paper: | pp. 420-428 | ||
An Evaluation of Sliding Mode Control for Vehicle Suspensions |
|
||
Ismail Yuksek, Nurkan Yagiz and Selim Sivrioglu |
No.3
(Jun)
Special Issue on From Microrobotics to Nanorobotics
Special Issue on From Microrobotics to Nanorobotics
Editorial: | p. 211 | |
From Microrobotics to Nanorobotics |
| |
Fumihito Arai | ||
Micro/nanotechnologies are keys crucial to improving system performance. This is why it is so important to research theory and applications based on analysis and synthesis from the micro- to the nanotechnology engineering level. Micro/nanorobotics are extremely important to the future of robotics and automation. Micro/nanotechnologies will certainly be applied in fields such as material science, industry, medicine, bioengineering, and services. Research on micro/nanoscale manipulation has thus attracted special attention in the robotics and mechatronics communities in the last decade. This special issue features selected papers focusing on cutting-edge topics and innovative applications based on new approaches in the fields of micro/nanorobotics. These papers were chosen from the 2001 IEEE International Conference on Robotics and Automation (ICRA2001) and important domestic conferences such as the Japan Society of Mechanical Engineers(JSME) Conference on Robotics and Mechatronics (ROBOMEC). I would like, in closing this short introduction, to express my particular gratitude to the authors, who have updated their papers for this special issue, and to thank all of the contributors and reviewers who have made this vital publication possible. I also would like to thank Editor-in-Chief Prof. Makoto Kaneko of Hiroshima University, who provided the opportunity for editing this issue. I hope the papers contained herein will prove both interesting and useful to readers wanting to learn about the latest advances in micro/nanorobotics. |
Paper: | pp. 212-220 | ||
Force Control System for Autonomous Micro Manipulation |
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Tamio Tanikawa, Masashi Kawai, Noriho Koyachi, Tatsuo Arai, Takayuki Ide, Shinji Kaneko, Ryo Ohta and Takeshi Hirose |
Paper: | pp. 221-226 | ||
Micromanipulation by Miniature Robots in a SEM Vacuum Chamber |
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Ohmi Fuchiwaki and Hisayuki Aoyama |
Paper: | pp. 227-237 | ||
Micro-object Pick and Place Operation under SEM based on Micro-physics |
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Shigeki Saito, Hideki T. Miyazaki, and Tomomasa Sato |
Paper: | pp. 238-244 | ||
Positional Recognition and Attitude Control for 3-D Biomicromanipulation in Microscopy |
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Akiko Kawaji, Fumihito Arai and Toshio Fukuda |
Paper: | pp. 245-252 | ||
Three-dimensional Nanorobotic Manipulations of Carbon Nanotubes |
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Lixin Dong, Fumihito Arai and Toshio Fukuda |
Paper: | pp. 253-261 | ||
Control of Elasticity and Trajectory of Robot Arm with Redundant Actuators |
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Toru Oshima, Tomohiko Fujikawa and Minayori Kumamoto |
Paper: | pp. 262-269 | ||
Actuator Arrangement and Motion Form of Vertebrate Leg |
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Toru Oshima Tomohiko Fujikawa and Mina on Kumamoto |
Paper: | pp. 270-277 | ||
Coordination Control of Arm Using Antagonistic Actuators |
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Toru Oshima, Tomohiko Fujikawa and Minayori Kumamoto |
Paper: | pp. 278-289 | ||
Enhancing the Autonomy of Teleoperated Redundant Manipulators Through Fusion of Intelligent Control Modules |
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D. P. Thrishantha Nanayakkara, Kazuo Kiguchi, Tsukasa Murakami, Keigo Watanabe and Kiyotaka Izumi |
Paper: | pp. 290-297 | ||
SMA-Net: A Deformable Morphology Robot Using Shape Memory Alloy |
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Takashi Nagai, Hiroshi Yokoi and Yukinori Kakazu |
Paper: | pp. 298-303 | ||
The Development of a Stair-climbing Robot with Wavy Movement by Rotating Crosses |
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Ato Kitagawa, Liang Zhang, Takashi Eguchi and Hideyuki Tsukagushi |
Paper: | pp. 304-312 | ||
A Study of Feasibility for a Novel Parallel-serial Manipulator |
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Marco Ceccarelli, Erika Ottaviano and Giuseppe Carbone |
Paper: | pp. 313-317 | ||
Qualitative Evaluation by ERP for vibration Discrimination |
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Tetsuya Shiozaki, Hisaya Tanaka, Akio Nozawa, Hideto Ide and Masafumi Uchida |
No.2
(Apr)
Special Issue on Selected Papers from ROBOMEC'01
Special Issue on Selected Papers from ROBOMEC'01
Editorial: | p. 97 | |
Selected Papers from ROBOMEC’01 |
| |
Kazuhito Yokoi and Tatsuo Arai | ||
This special issue has been proposed in honor of the Journal of Robotics and Mechatronics authorized as the International Journal of the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers from 1999. The 2001 JSME Conference on Robotics and Mechatronics (ROBOMEC’01) was held in Takamatsu, June 8-10, 2001, sponsored by the Robotics and Mechatronics Division of the Japan Society of Mechanical Engineers. Its purpose was to aid establishments of new industries by using advanced technologies of Robotics and Mechatronics. In technical sessions, 82 organized sessions were held and 624 papers presented. More than 800 participants attended the conference. This special issue has been organized by editing papers presented at ROBOMEC’01 to disseminate the significant results of the conference. Papers from the conference were invited and reviewed by journal referees. Sixteen were selected for publication in the Journal of Robotics and Mechatronics Special Issue on Selected Papers from ROBOMEC’01 (Vol. 14, No. 2). We thank the authors in this special issue who have contributed their updated papers. We also thank Editor-in-Chief Makoto Kaneko of Hiroshima University, whose work has been indispensable in organizing this special issue. We also thank the Editors for selecting papers. |
Paper: | pp. 98-104 | ||
Presentation of Realistic Motion to the Operator in Operating a Tele-operated Construction Robot |
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Dingxuan Zhao, Yupeng Xia, Hironao Yamada and Takayoshi Muto |
Paper: | pp. 105-111 | ||
Omnidirectional Mobile Platform for Research and Development |
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Kuniaki Kawabata, Tsuyoshi Suzuki, Hayato Kaetsu and Hajime Asama |
Paper: | pp. 112-117 | ||
Development of a Compact Autonomous Underwater vehicle Using Varivec Propeller |
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Yutaka Nagashima, Nobuyoshi Taguchi, Takakazu Ishimatsu and Hirofumi Inoue |
Paper: | pp. 118-123 | ||
Creeping and Novel Huge Bending of Plasticized PVC |
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Md. Zulhash Uddin, Masashi Watanabe, Hirofusa Shirai, and Toshihiro Hirai |
Paper: | pp. 124-132 | ||
A Service Robot Acting by Occasional Dialog – Object Recognition Using Dialog with User and Sensor-Based Manipulation – |
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Yasushi Makihara, Masao Takizawa, Kazuo Ninokata, Yoshiaki Shirai, Jun Miura, and Nobutaka Shimada |
Paper: | pp. 133-139 | ||
Separation of Target Microbe by Laser Manipulation and Flow Control |
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Fumihito Arai, Akihiko Ichikawa, Toshio Fukuda, Koji Horio, Kouichi Itoigawa and Keisuke Morishima |
Paper: | pp. 140-146 | ||
Artificial Finger Skin having Ridges and Distributed Tactile Sensors used for Grasp Force Control |
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Daisuke Yamada, Takashi Maeno and Yoji Yamada |
Paper: | pp. 147-156 | ||
Recognizing Moving Obstacles for Robot Navigation using Real-time Omnidirectional Stereo Vision |
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Hiroshi Koyasu, Jun Miura, and Yoshiaki Shirai |
Paper: | pp. 157-161 | ||
Exploration of Underwater Volcano Teisi by Autonomous Underwater Vehicle “R-One Robot” |
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Kenji Nagahashi, Takashi Obara and Tamaki Ura |
Paper: | pp. 162-169 | ||
Application of Neural Network to Teaching of Massage using Multi-fingered Robot Hand |
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Hideo Kitagawa, Tomomi Terai, Panya Minyong and Kazuhiko. Terashima |
Paper: | pp. 170-176 | ||
Error Analysis of Multilegged Robots for Dead Reckoning |
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Yasushi Mae, Tatsuo Arai and Kenji Inoue |
Paper: | pp. 177-185 | ||
Motion Generation for a Modular Robot |
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Eiichi Yoshida, Satoshi Murata, Akiya Kamimura, Kohji Tomita, Haruhisa Kurokawa, and Shigeru Kokaji |
Paper: | pp. 186-192 | ||
Development of Holonomic Omnidirectional Vehicle “Vuton-II” with Omni-Discs |
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Riichiro Damoto and Shigeo Hirose |
Paper: | pp. 193-198 | ||
Simple Compound-Eye-Type Micro Vision Sensor and Its Application for Detecting Motion |
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Kazunori Umeda and Michiaki Sekine |
Paper: | pp. 199-202 | ||
A Simple 3D Image Display Using Active Perception |
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Yasuo Hayashibara |
Paper: | pp. 203-209 | ||
Vision System for Micromanipulation |
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Yousuke Katoh, Tatsuo Arai, Kenji Inoue, Yasushi Mae and Tamio Tanikawa |
No.1
(Feb)
Special Issue on Toward Establishment of Entertainment and Amusement Machine Technology
Special Issue on Toward Establishment of Entertainment and Amusement Machine Technology
Editorial: | pp. 1-2 | |
Toward Establishment of Entertainment and Amusement Machine Technology |
| |
Shigeki Suganoand Takanori Shibata | ||
Advances in society have enriched lifestyles, making them more comfortable and increasing spare time. People spend more time and money on entertainment ‘and amusement, purchasing more than basic necessities and spending time at recreational facilities. Devices used in entertainment and amusement frequently interact with people, making it important to design them emphasizing subjective evaluations by people who interact with them rather than objective evaluations such as speed and accuracy. This makes technologies on entertainment and amusement interdisciplinary, going beyond the scope of conventional engineering with consideration of human sensitivities. Sugeno describes this interdisciplinary technology and discusses its possibilities in “Engineering and Amusement.” This special edition presents information on Japanese mechatronics technologies for entertainment and amusement to overseas people. Included are papers on scholarly- and technologically-de novo research and developments and technologies already put into practical use as commercially available products. Devices for entertainment and amusement must interact with people in different ways, and as such, they take a wide variety of shapes and have a broad array of controllers to suitably accommodate different human needs. It is therefore of critical importance to give special consideration to human sensitivity, which makes this area of engineering difficult to standardize and generalize. It is, however, becoming increasingly important in different fields of engineering to take interaction between machinery and people into consideration. This special edition provides perspectives and technologies that hold clues for the field of entertainment and amusement and also for many other areas of research and development. Kuroki et al. discuss the structure and the control architecture of SDR-X, a humanoid robot developed for entertainment, and detail the dancing performance of this robot in “A Small Biped Entertainment Robot.” Shibata et al. statistically analyze the findings of subjective evaluation of the Mental Commit Robot Paro, a robot shaped like a baby seal developed to provide positive psychological effects such as pleasure and comfort to people through interaction, and considers the results in “Subjective Evaluation of Seal Robot Paro.” Mitsui et al. tell about the results of physiological experiments and subjective evaluations of psychophysiological effects of interactions with a seal-shaped Mental Commit Robot on people in “Psycho-physiological Effects by Interaction with Mental Commit Robot.” Nakata et al., in “Analysis of Impression of Robot Bodily Expression,” suggest a method for setting up physical characteristics of movements based on the theory of Laban in Choreologia as a way of quantitatively evaluating impressions of movement of a robot a person gets during interaction, and discuss the method’s effectiveness. Tanaka et al., in “Principle of Stable Running of A Unicycle Robot,” describe the research and development of a unicycle robot modeled after the movement of a person riding a unicycle. They analyzed the mechanism of complex and skillful movements to have the robot make comical human-like movements. These findings could be applied to controlling robots in general. Kobayashi et al., in “A New Concept of the Robotic Technology Applicable to Human Physical Support,” describe a muscle suit to support human muscles with the help of air tube actuators. Because this suit enables people to move about naturally, its technology is applicable as component technology for new types of entertainment. Yamamoto et al., in “Conversation with a Communication Robot Named Wonder – for the Mental Support of the Elderly Living Alone,” discuss results of a validation experiment for a robot developed with several objectives, including the ‘reduction of the psychological burden on elderly people who live alone and applications as a pet and/or a speech partner and as an interface for outside communication through CATV to make their daily life safer. Fuj ita, in “Personal Robot PaPeRo,” tells about the objective of the development, design, function, and structure of the autonomous robot PaPeRo developed for communication with people in private households and reports the results of an experiment in which 12 families lived together with the robot for about 2 months. Miyake et al., in “Interactive Simulation Ride System,” present a simulation system with a high degree of virtual sense capability being achieved by a 3-6 mensional audiovisual perception data display using virtual reality technology and a ride system with 4 degrees of freedom. This system is already being used in amusement facilities and museums. Haga, in “WonderBorg and BN-l,” describes the concept of development, system structure, and control of an insect-shaped robot “WonderBorg” and a cat-like robot BN-I developed with the objective of offering interactive entertainment to people through assembling and programming robot. Nagasu, in “Dream Force O1,” tells about the concept of development and the structure of Dream Force 01, a bipedal locomotion robot that can be operated by the user for pleasure with the help of a robot controller. Omshi, in “POO-CHI,” discusses the design and the function of a dog-shaped robot toy POO-CHI that has become a hot seller all over the world. We thanks Japan Toy Culture Foundation on supports for preparation of developments reports. |
Regular Papers
Paper: | pp. 3-5 | ||
Engineering and Amusement |
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Shigeki Sugano |
Paper: | pp. 6-12 | ||
A Small Biped Entertainment Robot |
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Yoshihiro Kuroki, Tatsuzo Ishida, Jin-ichi Yamaguchi, Masahiro Fujita and Toshi T. Doi |
Paper: | pp. 13-19 | ||
Subjective Evaluation of Seal Robot: Paro -Tabulation and Analysis of Questionnaire Results |
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Takanori Shibata, Teruaki Mitsui Kazuyoshi Wada and Kazuo Tanie |
Paper: | pp. 20-26 | ||
Psychophysiological Effects by Interaction with Mental Commit Robot |
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Teruaki Mitsui, Takanori Shibata, Kazuyoshi Wada and Kazuo Tanie |
Paper: | pp. 27-36 | ||
Analysis of Impression of Robot Bodily Expression |
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Toru Nakata, Taketoshi Mori and Tomomasa Sato |
Paper: | pp. 37-45 | ||
Principle of Stable Running of an Unicycle Robot |
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Takayuki Tanaka, Hisanobu Suzuki and Kazuo Tanaka |
Paper: | pp. 46-53 | ||
New Robot Technology Concept Applicable to Human Physical Support – The Concept and Possibility of the Muscle Suit (Wearable Muscular Support Apparatus) – |
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Hiroshi Kobayashi, Taisuke Matsushita, Yusuke Ishida, and Kohki Kikuchi |
Development Report: | pp. 54-59 | ||
A Spoken Dialogue robot, Named Wonder, to Aid Senior Citizens Who living Alone with Communication |
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Hiroshi Yamamoto, Hiroyuki Miyazaki, Takashi Tsuzuki and Yoshihiro Kojima |
Development Report: | pp. 60-63 | ||
Personal Robot PaPeRo |
|
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Yoshiro Fujita |
Development Report: | pp. 64-67 | ||
Interactive Simulation Ride |
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Norihisa Miyake, Tsukasa Shiina, Masayuki Oshiro, and Yuji Matsuda |
Development Report: | pp. 68-72 | ||
WonderBorg and BN-1 |
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Yoshinori Haga |
Development Report: | pp. 73-75 | ||
Dream Force 01 |
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Hiroyuki Nagasu |
Development Report: | pp. 76-77 | ||
POO–CHI |
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Tomohiko Onishi |
Paper: | pp. 78-87 | ||
CATRASYS (Cassino Tracking System): A Wire System for Experimental Evaluation of Robot Workspace |
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Erika Ottaviano, Marco Ceccarelli, Maria Toti and Carolina Avila Carrasco |
Paper: | pp. 88-95 | ||
Distributed Learning Agents with Motivation for Cellular Warehouse Problem |
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Katsumi Hama, Sadayoshi Mikami, Keiji Suzuki, and Yukinori Kakazu |
Vol.13 (2001)
No.6
(Dec)
Special Issue on Vision and Mechatronics
Special Issue on Vision and Mechatronics
Editorial: | pp. 567-568 | |
Vision and Mechatronics |
| |
Masanori Idesawa | ||
The amount of information human beings obtain from the external world through their visual senses exceeds 80% of the total amount of information they take in. Robots and similar automatons must thus be provided with visual functions equivalent to those of human beings, enabling them to grasp external conditions accurately and to move appropriately based on such conditions. Computer and machine vision systems technologically and practically realize such visual functions, and studies of these vision systems have drawn attention and research since the 1970s. Studies on the human and other biological visual systems have progressed steadily under the stimulus of rapid advances in the brai sciences field. Such studies have brought to light new types of useful information related to biological vision systems and such information has been used to promote studies of artificial visual senses. In separate developments based on the progress of integrated circuit systems, visual sensors imitating the sensing of the human retina and the eyes of insects and animals have been developed and efforts made to apply such sensors to a variety of control systems. Human beings fuse information obtained through the visual and other senses with information collected by interacting positively with the external world to form in the brain necessary images (models) related to the external world. Based on such images and models, human beings make decisions and plan for appropriate action to take under specific circumstances. In such cases, the human senses, including the visual sense, interact mutually rather than independently. When a visual stimulus differing from ordinary stimuli is perceived, the effect of such a stimulus is recognized both by the sensory organs and sometimes by the motor organs. Human beings fuse information obtained through the visual and other senses with information collected by interacting positively with the external world to form in the brain necessary images (models) related to the external world. Based on such images and models, human beings make decisions and plan for appropriate action to take under specific circumstances. In such cases, the human senses, including the visual sense, interact mutually rather than independently. When a visual stimulus differing from ordinary stimuli is perceived, the effect of such a stimulus is recognized both by the sensory organs and sometimes by the motor organs. In the present natural environment, where numerous conditions artificially produced by numerous automation and visual systems are present simultaneously, it becomes important to study the interference and interaction among the sensory, motor, and physiological organs. The human visual function gradually develops with maturation and declines with age, following a downward curve with the years. Simple deviations in the focusing range due to myopia or hyperopia can be corrected almost completely using ordinary glasses for near-sightedness or far-sightedness. Stenosis in the focusing range, however, caused by aging and a decline in the elasticity of the eye lens cannot be corrected by the use of ordinary glasses. Such correction requires either the use of 2 types of glasses, i.e., those for near-sightedness and those for far-sightedness, alternately depending on the distance between the glasses user and the object viewed. Bifocals may also be used. The use of double lenses, however, may cause problems for the user, who must change from one pair of glasses to the other and vice versa. Biofocal lenses present problems related to the need to shift the gaze unnaturally, the presence of an unnaturally deformed whole-vision field, and the undesirable occurrence of sensations such as nausea required in attempts to adjust to changed visual fields. Take the case of fine soldering work at very close range and parts handling done at a medium range simultaneously, for example. This presents both far-sighted and near-sighted personnel with difficulties in the use of glasses. Symptoms of hyperopia generally begin to appear in those aged 40 to 45 years old. With society rapidly aging and the number of children – successors to the aging – the working population is also aging, making it vital from a social viewpoint to mechatronically solve the many problems related to hyperopia and other vision-related developments. It is with great pleasure that we present a number of articles in this special edition that should prove both informative and interesting to researchers in the fields of robotic engineering and mechatronics. These articles offer new insights into studies on welfare and human engineering and are sure to make important contributions to the progress of related R&D. |
Review: | pp. 569-574 | ||
Information Processing in Visual System – Optical Illusion and Visual Mechanism |
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Masanori Idesawa |
Paper: | pp. 575-580 | ||
Design of Automatic Focusing Glasses for Presbyopia |
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Toyomi Fujita, Makoto Hagiwara and Masanori Idesawa |
Paper: | pp. 581-587 | ||
A Study on the Development of Accommodation-Assistance Glasses |
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Syu Sato Toyomi Fujita and Masanori Idesawa |
Paper: | pp. 588-593 | ||
Rotational Dynamic Illusion Related to Physiological Influence in Virtual Environments |
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Toyomi Fujita and Masanori Idesawa |
Paper: | pp. 594-600 | ||
Role of Visual Feedback in Upright Posture Control |
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Takanobu Nagata, Akimasa Ishida, Yutaka Fukuoka, Haruyuki Minamitani |
Paper: | pp. 601-613 | ||
Visuo-Motor Adaptation to Stepwise and Gradual Changes in the Environment: Relationship between Consciousness and Adaptation |
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Yutaka Sakaguchi, Yu-ichi Akashi and Mitsuo Takano |
Paper: | pp. 614-620 | ||
A Novel Robot Vision Employing a Silicon Retina |
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Kazuhiro Shimonomura, Seiji Kameda, Kazuo Ishii and Tetsuya Yagi |
Paper: | pp. 621-624 | ||
Flying Robot with Biologically Inspired Vision |
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Michinori Ichikawa, Hitoshi Yamada and Johane Takeuchi |
Paper: | pp. 625-636 | ||
Self-Partitioning State Space for Behavior Acquisition of Vision-Based Mobile Robots |
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Takayuki Nakamura and Tsukasa Ogasawara |
Paper: | pp. 637-642 | ||
A Study on a New Type of Stereogram Using Binocularly Unpaired Wedge-Shaped Surfaces |
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Kouji Sudoh and Masanori Idesawa |
Paper: | pp. 643-650 | ||
Studies on Uncertainty Evaluation in Straightness Measurement |
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Sanjay Yadav, Jiro Matsuda and Lalith Prasantha Liyanawadu Chitarage |
Paper: | pp. 651-658 | ||
Stitching of 3-D Image Position Measurement System with 1-D Direction-sensitive Devices |
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Saied Mohamed, Toyomi Fujita and Masanori Idesawa |
No.5
(Oct)
Special Issue on Recent Advances in Robot Control
Special Issue on Recent Advances in Robot Control
Editorial: | p. 449 | |
Recent Advances in Robot Control |
| |
Haruhisa Kawasaki | ||
This special issue contains outstanding papers on robot control presented at international meetings in Japan in 2000. Featured topics include face robots, polishing robots, control for multifingered robotic hands, re configurable brachiating space robots, DD parallel robots, and robot control technologies such as a distributed robust motion controller, image-based visual servoing, fault adaptive kinematic control, and optimum control for a robot manipulator. We also will have a variety of topics such as shaft insert tasks in the robot task field, fingerprint image sensing in sensing technologies, compliance display, emergence of affective behavior, human/robot communication in interfaces, and workspace analysis of parallel manipulators in robot analysis. In preparing this special issue, we have asked authors to revise work presented at international meetings to include further analyses and experimental data to help make papers even more interesting and informative concerning the purposes of the study, analyses, experiments, and simulation. We thank Professor Kohei Ohnishi, Department of System Design Engineering, School of Science and Engineering, Keio University, for his complete, courteous assistance, and all of the authors who such unstinting time to update their papers for this special issue. |
Paper: | pp. 450-457 | ||
Shaft Insertion for Moving Object Using Robot Manipulator with Cross PSD and Vibration End-effector |
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Soichiro Hayakawa and Nuio Tsuchida |
Paper: | pp. 458-463 | ||
Fingerprint Image Sensing Using Micromechanical Key and Extraction Algorithm for Sensed Fingerprint Image |
|
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Fumihito Arai and Toshio Fukuda |
Paper: | pp. 464-471 | ||
Distributed Robust Motion Controller for Redundant Manipulator Using Disturbance Observer |
|
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Naoki Oda |
Paper: | pp. 472-478 | ||
Development of Pneumatic Human Interface and its Application to Compliance Display |
|
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Masahiro Takaiwa and Toshiro Noritsugu |
Paper: | pp. 479-487 | ||
Image-based Visual Servoing for Optimal Grasping |
|
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Hideo Fujimoto, Liu-Cun Zhu and Karim Abdel-Malek |
Paper: | pp. 488-496 | ||
Workspace Analysis of Parallel Manipulator for Telemicromanipulation Systems |
|
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Noriaki Ando, Masahiro Ohta, Kohei Gonda and Hideki Hashimoto |
Paper: | pp. 497-504 | ||
Study on Face Robot Platform as a KANSEI Medium |
|
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Hiroshi Kobayashi |
Paper: | pp. 505-516 | ||
Emergence of Affective Behaviors through Physical Interaction between Human and Mental Commit Robot |
|
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Takanori Shibata and Kazuo Tanie |
Paper: | pp. 517-525 | ||
Polishing Robot Using Joystick Controlled Teaching |
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Fusaomi Nagata, Keigo Watanabe, Satoshi Hashino, Hiroyuki Tanaka, Takuro Matsuyama and Kenji Hara |
Paper: | pp. 526-532 | ||
A Control for Multi-Fingered Robotic Hand with Distributed Touch Sensor |
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Hajime Sugiuchi, Yuki Hasegawa, Shinichiro Watanabe and Masashi Nomoto |
Paper: | pp. 533-539 | ||
Spatial Generalization of Optimal Control for Robot Manipulators |
|
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Zhiwei Luo, Hideyuki Ando, Shigeyuki Hosoe, Keiji Watanabe and Atsuo Kato |
Paper: | pp. 540-547 | ||
Fault Adaptive Kinematic Control Using Multiprocessor System and its Verification Using a Hyper-redundant Manipulator |
|
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Shinichi Kimura, Shigeru Tsuchiya, Tomoki Takagi and Shinichiro Nishida |
Paper: | pp. 548-553 | ||
Experimental Evaluation of Reconfigurable Brachiating Space Robot |
|
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Ryoichi Hayashi, Saburo Matunaga and Yoshiaki Ohkarni |
Paper: | pp. 554-560 | ||
Realization of Fast and Dexterous Tasks by a DD Parallel Robot Using Motor Back-drivability |
|
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Doohyung Kim and Masaru Uchiyama |
No.4
(Aug)
Special Issue on Fundamental Technologies for ITS
Special Issue on Fundamental Technologies for ITS
Editorial: | p. 339 | |
Fundamental Technologies for ITS |
| |
Sadayuki Tsugawa | ||
Intelligent transport systems (ITS), a combination of IT(Information Technology) and TS (Transport Systems), solves problems such as accidents and congestion, lessening environmental impact and conserving energy. As conventional solutions to traffic issues became less and less effective, high-tech solutions have been sought. Preceding the term ITS, coined in 1994, were road transport informatics (RTI), advanced transport telematics (AT), and intelligent vehicle-highway systems (IVHS). In the mid-1980s, large ITS projects started in Europe, the US, and Japan, but the use of high-tech solutions emerged in the 1950s. As indicated above, ITS includes systems covering passenger-car safety and freight management, supported by a wide range of technologies including sensing, control, communications, and human factors. This special issue on ITS focuses on ITS technologies that share similarities with robotics and mechatronics. The papers in this issue are classed into sensing, control, simulation, and electric vehicles. Papers in sensing deal with the application of vehicle localization in automated driving, 3-dimensional localization with corner cubes and laser radar, vision-based passage detection, and night-time obstacle detection with machine vision. The technology presented in these papers is expected to play an important role in robotics and mechatronics. The 4 control papers include an overview on control algorithms for automated driving and 3 papers on control algorithms for lateral control, lane changing, and parking assistance. The major difference between mobile robots and automobiles is that, due to speed, the behavior of mobile robots can be described with kinematics, but that of automobiles must be described with dynamics. Nevertheless, control algorithms for automated automobiles are insightful in robotics. Simulation technologies are essential in ITS to present virtually situations difficult or not possible to realize in the real world. One paper deals with a driving simulator and the other with automobile traffic. The last area in this ITS issue is electric vehicles. Their handicaps can be overcome by ITS, leading to new road transport. The paper on electric vehicles introduces an experimental electric vehicle both educational and informative to readers planning electric vehicles to conduct experiments involving ITS. We thank those on the JSME Research Committee 179 for cooperation between human and systems in ITS for reviewing submitted papers. |
Paper: | pp. 340-351 | ||
Experimental Study on Application of DGPS-based Position Information to Automatic Driving Control |
|
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Manabu Omae and Takehiko Fujioka |
Paper: | pp. 352-356 | ||
3-D Position Measurement System for Autonomous vehicles Using Laser Fan Beam Scanners |
|
||
Nobuo Komatsu and Toshihiro Tsumura |
Paper: | pp. 357-370 | ||
Real-time Corridor Recognition for Autonomous Vehicle |
|
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Mamoru Minami, Julien Agbanhan, Hidekazu Suzuki and Toshiyuki Asakura |
Paper: | pp. 371-380 | ||
Obstacle Recognition and Position Measurement for Night Driving by Image Processing |
|
||
Atsushi Wakamiya, Naoki Suganuma, In Soo Kweon and Naofumi Fujiwara |
Paper: | pp. 381-386 | ||
An Overview on Control Algorithms for Automated Highway Systems |
|
||
Sadayuki Tsugawa |
Paper: | pp. 387-394 | ||
Construction of Control Algorithm for an Autonomous Vehicle |
|
||
Hyung-Eun Im, Ichiro Kageyama and Yoshiyuki Nozaki |
Paper: | pp. 395-401 | ||
Automated Lane Change Control of Vision-Based Vehicle |
|
||
Shin Kato and Sadayuki Tsugawa |
Paper: | pp. 402-408 | ||
Development of Advanced Parking Assistance System in the iCAN Framework |
|
||
Massaki Wada, Kang Sup Yoon, and Hideki Hashimoto |
Paper: | pp. 409-418 | ||
Development of Hi-Fidelity Driving Simulator for Measuring Driving Behavior |
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Motoyuki Akamatsu, Masayuki Okuwa and Masaaki Onuki |
Paper: | pp. 419-425 | ||
Traffic Flow Simulator by Multiagent |
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Hitoshi Tsunashima, Yasukazu Nishi, Takashi Honjyo, Hiroyuki Kaku and Takuji Sakai |
Paper: | pp. 426-431 | ||
Design and Manufacture of Small-Sized Electric Vehicles for Mechanical Engineering Education |
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Haruo Sakamoto |
Paper: | pp. 432-437 | ||
Development and Evaluation of One-Shaft Type ER Clutch |
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Norihiko Saga, Taro Nakamura and Masaru Nakazawa |
Paper: | pp. 438-444 | ||
Estimation of Pleasantness and Arousal Level Using Thermogram |
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Hisaya Tanaka, Hideto Ide, and Yuji Nagashima |
No.3
(Jun)
Special Issue on Flexible Force Control and Process-Adaptive Production Systems
Special Issue on Flexible Force Control and Process-Adaptive Production Systems
Editorial: | p. 221 | |
Flexible Force Control and Process-Adaptive Production Systems |
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Shigeyuki Kawaji | ||
In the recent assembly lines, the frequency of changing processes has been increasing in line with high mix production, but because these changes are carried out by operator, the burden of changing processes has increased as well. This situation has arisen because of the fact that since the robots being used at present automatic assembly lines are based on a simple teaching and playing back method, human workers must renew instructions for each act of changing a work object and also that dedicated machines are necessary due to the inability of making precision assembly,thereby inviting declines in total operational rates and increases in cost. These facts are limiting the use of robot based automation itself and are one of the important factors for the declining international competitive power. Under these circumstances, with the aim of constructing sophisticated production systems that are capable of dealing with process changes automatically without the use of human labor, a project called “Research & Development of Process Adaptive Flexible Robots”was proposed and was adopted to the Regional Consortium Research and Development Enterprise supported by the Ministry of Economy, Trade and Industry and by the New Energy and Industrial Technology Development Organization, and was adopted. The research period was to be 3 years from the fiscal year 1997 to the fiscal year 1999, and the total research fund was to be 360 million yen. In more specific terms, an engine assembly line and a semiconductor testing process were chosen as research subjects; and developmental research was carried out for elemental techniques that are necessary for the flexible execution of tasks such as piston insertion causing no damage to walls even with a minute clearance, or IC chip insertion causing no plastic deformation even with positional dislocation, though these tasks must be carried out when works change in type, size, etc.; and the researchers started the work of developing system integration technology that would achieve these task objectives in the optimal manner. Attention was focused rather on “force control” of which humans make skillful use than on developmental work based on the conventional position control technology, and development objectives were set not only to achieve a breakthrough for putting force control technology into practice by way of the integration of flexible force control and high aprecision position control and also by way of controlling the vibrations of complex machine systems, but also to demonstrate the research results by means of two prototypes of a flexible robot for assembly lines and an inserter for IC chip testing. The present special issue is a collection of results achieved by the participating research organization in the present research and development work, and it will be a great pleasure for its editors if this issue contribute seven a little. toward the future practical use of force control. Finally, sincere appreciation is expressed to the Ministry of Economy, Trade and Industry and the New Energy and Industrial Technology Development Organization for providing an opportunity for carrying out this research and development work, as well as to all the organizations for their participation in the project. |
Paper: | pp. 222-229 | ||
Sensorless Force Control for High-speed Pressurization |
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Shigeyasu Kawaji, Fuminori Ozaki and Ryutaro Higashi |
Paper: | pp. 230-237 | ||
Development of User-friendly Tuning for Impedance Control Parameters |
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Junji shimamura and Masaki Arao |
Paper: | pp. 238-244 | ||
Configuration and Optimal Control of Hydraulic/Pneumatic Hybrid Actuator with 2-DOF |
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Atsushi Ohtomo and Yasuharu Sasaki |
Paper: | pp. 245-253 | ||
Structural Analysis of a Universal Holding Mechanism for Piston Rings |
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Takao Higashimachi, Takahide Nakayama, Takenori Hirakawa and Hisato Sasahara |
Paper: | pp. 254-266 | ||
Sensor-Based Artificial Skills with Force and Vision Information |
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Kosei Kitagaki, Takashi Suehiro and Motoyoshi Fujiwara |
Paper: | pp. 267-272 | ||
Force Sensing Unit with Single Amplifier and an Application to a Whisker Sensor |
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Naohiro Ueno and Makoto Kaneko |
Paper: | pp. 273-281 | ||
Realization of Controllers for Manipulation of Deformable Objects Based on Hybrid Automaton and Human Skill |
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Kazuaki Hirana, Tatsuya Suzuki, Shigeru Okuma, Kaiji Itabashi and Fumiharu Fujiwara |
Paper: | pp. 282-288 | ||
Automatic Startup Operation of Plastics Extruder by Flexible Intelligence Machine Control |
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Masaki Arao, Junichi Kawano, Mamoru Egi and Masaharu Osumi |
Paper: | pp. 289-293 | ||
Development of Flexible Inserter for IC Chip Testing |
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Toshihiro Taguchi |
Paper: | pp. 294-298 | ||
A Fixture-Free Piston-Stuffing Machine for Flexible Assembly Lines |
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Takahide Nakayama, Takeshi Mitsunaga, Takenori Hirakawa and Syunji Tanaka |
Review: | pp. 299-313 | ||
A Historical Perspective of Robotics Toward the Future |
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Marco Ceccarelli |
Paper: | pp. 314-318 | ||
Locating the Part Evoking SEP by Dipole Tracing Method |
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Masahiro Koyama, Hisaya Tanaka and Hideto Ide |
Paper: | pp. 319-325 | ||
Design and Experimental Validation of a Microgripper |
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Giuseppe Carbone, Marco Ceccarelli, Hanfried Kerle and Annika Raatz |
Paper: | pp. 326-331 | ||
Study on Turning of Micro Robot Driven by Cyclic Force |
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