What the Robotics is all about:
― History of Robotics in Japan and my personal contributions to its progress ―
Origin of Robots
The word "Robot" stemmed from a Czech word "robota" that means slaves. This word first appeared in a drama called "Rossum's Universal Robots (RUR)" written in 1920 by Karel Capek (1890-1938). In its story, robots created by humans gradually start revolting to the human masters. However, the ideas of such robots (androids) existed far before Capek. The Irias (Iriad) written by Homeros (Homer) in sometime around the 10th century B.C., now being recognized as one of the origins of European literatures, is said to be the work in which the robotic creature first appeared. Since the Irias, there have been numerous works that dealt with autonomous machines with a human-like behavior or with a superhuman power. The RUR was one of them.
Rise of Robotics
It was mid 1960s when these robots in one's imagination turned to our realistic subject of the technological developments. At that time, our dreams were the realization of automated machines that can work on our behalf, with a higher performance, even in part, than humans. In those days, I was studying mechanical arms, and developed an electronically-controlled servo-manipulator for handling radioactive materials. To further realize new robotic machines, it seemed that the vision system was one of the most important and yet difficult subjects to be studied. Shortly, I had a chance to stay at the University of Illinois, USA, as a visiting staff, and there I started to work on physiological vision systems by using cats and dogs. After coming back, I started to design electronic machine vision systems, and developed a computer-controlled vision-based intelligent robot system called HIVIP Mk.1. This robot system was demonstrated in the public eye at the Hitachi's Technology Fair held in Tokyo Museum of Science in 1970, and was well received with a favorable response. Nowadays, these achievements in my past became a part of my dear memories.
Electronically-controlled
bilateral
servo-manipulator,
1963Computer-controlled
intelligent robot system:
HIVIP Mk.1,
1970Vision-based
fully-automatic
semiconductor (transistor)
assembly machines,
1973
Besides these works, there were of course a few epoch-making activities in other organizations at that time. With the success of these pioneering efforts, industry was encouraged to proceed to the development of new types of practical robots and systems. Many industrial robots were prototyped and then put into use in production lines one after another. In addition, real-time machine vision technology was also created and was applied to various industrial lines typically for semiconductor assembly, thus revolutionizing the production style completely.
With the progress of technology, the word "robotics" was also created as a natural result, and has been used to cover all the scientific and technological research areas relating to robots and autonomous systems.
Birth and Growth of RSJ
In such circumstances, researchers working in academy, industry and government gathered together in 1983 to start up a new society. This was the birth of the Robotics Society of Japan, and the prospectus at its foundation emphasized the importance of:1 Cooperation of researchers in various fields,2 Promotion as a total science, and3 Mutual enlightenment among researchers and their competitive self-improvement,The starting members were 761, and as one of these originators, I delivered a special talk at its first general meeting. The birth of this society and the outline of my talk were reported in Nikkan Kogyo Newspaper on January 29, 1983.Since then, the Robotics Society of Japan (RSJ) and its members played an active part in pursuing the technological advancements. By the cooperation of academy and industry, many robotic technologies were created. These included the technologies for SCARA-type high precision assembly systems, for computer-controlled intelligent industrial robot systems, and for high-speed industrial machine vision systems. Through the application of these technologies to the production automation, the RSJ and its members greatly contributed to the technological progress in Japanese industries and also to the worldwide evolution in manufacturing engineering.
In addition to versatile industrial robots for machining, welding, assembling, and painting processes, the robots developed in those days were for searching flaws in pipes, for feeding and placing electronic parts, for constructing buildings, for boring tunnels, for setting up underwater equipment, and for cleaning airplane surfaces. Furthermore, robots walking on a wall, robots for security patrol, and even robots for making Sushi were also challenged and realized in those days. As a result, Japan became one of the leading nations in robotics in 1980s, and the number of working robots in Japan exceeded 300,000 in 1990.Beside these, humanoid-type robots were also studied, and the examples were WABOT-1 in 1973 and WHL-11 in 1985. These preceding technologies in Japan made it possible to develop novel biped walking machines afterwards. ASIMO in 2000 by Honda was one typical fruition. Nowadays, new applications of biped robots, typically to entertainment and rescue fields, are also being intended.With the progress in technologies, the RSJ has also made a steady growth, and it has more than 4000 members presently. In 2002, it celebrated its 20th anniversary and held a commemorative meeting at Osaka University. Through the efforts of its members during the past 20 years, the RSJ seems to have consolidated its position as one of the world’s leading scientific and technological societies. At the time of 20th anniversary, I was serving as the President of the RSJ, and one of my messages appeared in Advanced Robotics, an official English journal of the RSJ, is again shown below for your reference. By commemorating this anniversary, revision of RSJ logo was also planned and was enforced as of Jan. 1, 2004. The new logo of the RSJ is also shown below.
President’s message
(Appeared in Advanced Robotics)New RSJ Logo
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The purpose of the RSJ has been to contribute not only to the progress of Science and Technology, but also to the prosperity of industries through pursuing advanced research and popularizing the resulting knowledge. To this end, the RSJ publishes journals both in Japanese and English, and holds a variety of technical courses and meetings. Through these activities, exchange of knowledge among members and dispatch of new ideas and research results to outside communities are being intended. A typical example of the RSJ activities is an annual conference for research presentation, and its history is indicated in the following table. In this table, the number of members and the names of presidents at each term are also shown for better understanding of its history. In this annual conference, awards are given to authors and contributors, for their excellent papers, for their excellent presentations, and for their excellent developments of robotics-related products and systems. A medal for the excellent paper award is the same as the one that was brought to the space in 2000 by a Japanese Astronaut Koichi Wakata, a member of RSJ. The medal traveled 8,500,000 kilometers by rounding the earth 202 times, and was returned to the RSJ directly from Mr. Wakata together with the certificate of authorization as a NASA official flight kit.
History of the RSJ and its annual conferences
Note: (*) as of each year-end.
No. Year Conference site No. of
PapersNo. of
Members *President Remarks 1 1983 National Education Center Hall 113 1451 Sumiji Fujii Started with
761 members2 1984 Kogakuin University 141 1784 3 1985 Osaka Instituteof Technology 196 2046 Ichiro Kato 4 1986 Waseda University 226 2339 5 1987 University of Tsukuba 266 2522 Masahiro Mori 6 1988 Nagoya University 225 2416 7 1989 Shibaura Institute of Technology 334 2632 Hidero Hanafusa 8 1990 Tohoku University 385 2720 9 1991 University of Tsukuba 358 2947 Yoji Umetani 10 1992 Kanazawa University 450 3075 11 1993 University of Electro-Communications 466 3353 Hirofumi Miura 10th anniversary 12 1994 Kyushu University 603 3632 13 1995 Meiji University 617 3622 Suguru Arimoto 14 1996 Niigata University 600 3618 15 1997 Chuo University 556 3550 Hirotaka Miur 16 1998 Hokkaido University 655 3564 17 1999 Tokai University 611 3595 Gen-ichiro Kinoshita 18 2000 Ritsumeikan University 747 3734 19 2001 University of Tokyo 656 3898 Masakazu Ejiri 20 2002 Osaka University 590 3965 20th anniversary 21 2003 Tokyo Institute of Technology 586 4036 Tsuneo Yoshikawa 22 2004 Gifu University 531 4027 23 2005 Keio University 4028 Takashi Uchiyama 24 2006 Okayama University 606 4054 25 2007 Chiba Institute of Technology 734 4141 Tomomasa Sato 26 2008 Kobe University 753 4122 27 2009 Yokohama National University 842 4210 Shinsuke Sakakibara 28 2010 Nagoya Institute of Technology 811 4158 29 2011 Shibaura Institute of Technology 709 4088 Sadao Kawamura 30 2012 Sapporo Convention Center 853 4139 30th anniversary 31 2013 Tokyo Metropolitan University 685 4092 Norio Odaira 32 2014 Kyushu Sagyo University 609 4096 33 2015 Tokyo Denki University 600 4093 Atsuo Takanishi 34 2016 Yamagata University 634 4090 35 2017 Toyo University 487 4076 Toshihiro Sawa 36 2018 Chubu University 558 4072 37 2019 Waseda University 651 3944 Minoru Asada 38 2020 (Online) 515 3808 39 2021 (Online) Hiroki Murakami 40 2022 University of Tokyo 40th anniversary 41 2023 Sendai International Center Shigeki Sugano
IROS
One important service of the RSJ is to hold international meetings for exchanging ideas and knowledge with other parts of the world. The IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS) is one typical example, and was started in Japan in 1988 by cooperating with two other organizations, SICE (Society of Instrument and Control Engineers, Japan) and NTF (New Technology Foundation, Japan). As can be seen in the history of IROS indicated in the following table, meetings were held mainly in Japan before it was broadened to other part of the world.History of IROS Conferences
No.
Year
Conference site
No.
Year
Conference site
1
1988
Tokyo, Japan (at Tokyo Univ. of Science) 20
2007
San Diego, USA
2
1989
Tsukuba, Japan 21
2008
Nice, France
3
1990
Tsuchiura, Japan (at Hitachi MERL) * 22
2009
St. Louis, USA
4
1991
Osaka, Japan
23
2010
Taipei, Taiwan
5
1992
Raleigh, USA
24
2011
San Francisco, USA
6
1993
Yokohama, Japan * 25
2012
Vila Moura, Portugal
7
1994
Munich, Germany 26
2013
Tokyo, Japan
8
1995
Pittsburgh, USA
27
2014
Chicago, USA
9
1996
Osaka, Japan
28
2015
Hamburg, Germany
10
1997
Grenoble, France
29
2016
Daejeon, Korea
11
1998
Victoria, Canada
30
2017
Vancouver, Canada
12
1999
Kyongju, Korea *
31
2018
Madrid, Spain
13
2000
Takamatsu, Japan (at Kagawa University) * 32
2019
Macau, China
14
2001
Maui, USA *
33
2020
Las Vegas, USA 15
2002
Lausanne, Switzerland (at EPFL) *
34
2021
Prague, Czech Republic 16
2003
Las Vegas, USA
35
2022
Kyoto, Japan 17
2004
Sendai, Japan (at Tohoku University) 36
2023
Detroit, USA 18
2005
Edmonton, Canada
37
2024
Abu Dhabi, UAE 19
2006
Beijing, China
38
2025
Hangzhou, China Note: Those marked with * are the conferences I participated in.
Progress in Robotics
Thus the robotics in Japan has been enjoying its prosperity as a result of long-term challenges of academy and industry in the past 50 years. The history of research and developments in robotics during the past 50 years are summarized in the following chronological table. In this history, I and my colleagues at Hitachi could also make big strides in investigating and progressing robotics, and could support the basis of Japan's robotics together with other leading organizations. History of Hitachi robots is also listed below. These Hitachi robots are of special importance to me and are now a part of my unforgettable memories.
Chronological tables
History of Robotics in Japan History of Hitachi's R&D in Robotics
Future of Robotics
One of the important future missions for both the robotics researchers and the RSJ itself is to promote further progress in technologies, related especially to speedy locomotion, dexterous handling, and intelligent decision-making based on self-learning of skills and efficient recognition of outside world. These technologies are anticipated to be unified through the aggressive cooperation of researchers and engineers in academy, industry and government, by bearing in minds the versatile applications such as for environmental, medical, welfare, crime prevention, calamity prevention, rescue, manufacturing, traffic, logistic, and spatial use. As an ultimate goal, the robotics research should be directed towards the realization of automated intelligent society, where people can enjoy their productive, efficient, but still calm, safe, and stress-free human lives with the extensive supports by robotics technologies.
I especially like to expect young researchers to be one of the world leaders in robotics. It will be important for such robotics leaders to continually present dreams and hopes to the public, to brush up individual technologies into practical and systematic technologies, and to advance them as a trans-disciplinary science and technology for the broader applications towards harmonious future society.