Science fiction has no doubt contributed to the
development of robotics, by planting ideas in the minds of young people who
might embark on careers in robotics and by creating awareness among the public
about this technology. we should also identify certain technological
developments over the years that have contributed to the substance of robotics.
this table presents a chronological listing which summarizes the main early
historical developments in the technology of robotics.
Some of the early developments in the field of
automata deserve mention although not all of them deal directly with robotics.
in the seventeenth and eighteenth centuries, there were a number of ingenious mechanical
devices that had some of the features of robots. JACQUES DE VAUCANSON built
several human-sized musicians in the mid-1700s. essentially, these were
mechanical robots designed for a specific purpose:
entertainment. in 1805, HENRI
MAILLARDET constructed a mechanical doll which was capable of drawing pictures.
a series of cams were used as the "program" to guide the device in
the process of writing and drawing. MAILLARDET'S writing doll is on display in
the FRANKLIN institute in PHILADELPHIA, PENNNSYLVANIA. these mechanical
creations of human form must be regarded as isolated inventions reflecting the
genius of men who were way ahead of their time. there were other mechanical
inventions during directed at the business of textile production. these
included Hargreaves spinning
jenny(1770), Crompton's mule spinner(1779), Cartwright's power
loom(1785), the jacquard loom (1801), and others.
date
|
development
|
mid-1700's
|
j.de vaucanson built
several human-sized mechanical dolls that played music.
|
1801
|
j. jacquard invented
the jacquard loom, a programmable machine for weaving threads or yarn into
cloth.
|
1805
|
H.Maillardet
constructed a mechanical doll capable of drawing pictures.
|
1946
|
American inventor
G.C. Devol developed a controller device that could record electrical signals
magnetically and play them back to operate a mechanical machine U.S.pstent
issued in 1952.
|
1951
|
Development work on
teleoperators for handling radioactive materials. related U.S. patents issued
to Goeertz (1954) and bergsland (1958)
|
1952
|
prototype numerical
control machine demonstrated at the massachusetts institute of technology
after several years of development. pan programming language and released in
1961,
|
1954
|
british inventor
C.W.kenward applied for patenr tor robot design. British patent issued in
1957.
|
1954
|
G.C.devol develops
designs for "programmed article transfer" U.S.patent issued tor
design on 1961.
|
1959
|
first commercial
robot introduced by planet corporation. it was controlled by limit switches
and cams.
|
1960
|
first
"unimate" robot introduced, based on devol's programmed ankle transfer. it used numerical control
principles for manipulator control and was a hydraulic drive robot.
|
1961
|
unimate robot
installed at ford motor company for tending a die casting machine
|
1966
|
Trallfa, a Norwegian
firm, built and installed a spray painting robot.
|
1968
|
A mobile robot named
shakey developed at SRI (Stanford research institute). it was equipped with a
variety of sensors, including a vision camera and touch sensors, and can move
on the floor.
|
1971
|
The "Stanford
arm" a small electrically powered robot arm, developed at Stanford university.
|
1973
|
first computer- type
robot programming language developed at SRI got research called WAVE followed
by the languages AL in 1974. the two languages
were subsequently developed into the commercial VAL. languages for unimation
by Victor Scheinman And Bruce Simanon.
|
1974
|
ASEA introduced the
all-electric drive IRb6 robot.
|
1974
|
Kawasaki, under
unimation license, installed arc-welding operation for motorcycle frames.
|
1974
|
Cincinnati Milacron
introduced the T3 robot with computer control.
|
1975
|
Olivetti "sigma"
robot used in assembly operation- one of the very first assembly applications
of robotics.
|
1976
|
Renite center
compliance device for part insertion in assembly developed at Charles stark
draper labs in united states.
|
1978
|
PUMA (programmable
universal machine for assembly) robot introduced for assembly by unimation,
based on designs from a general motors study.
|
1978
|
Cincinnati Milacron
T3 robot adapted and programmed to perform drilling and routing operations on
aircraft components, under Air force ICAM (Integrated Computer Aided
Manufacturing ) sponsorship.
|
1979
|
development of SCARA
type robot at yamanashi university in Japan for assembly. several commercial
SCARA robots introduced around 1981.
|
1980
|
Bin-picking robotic
system demonstrated at university of Rhode island. using machine vision, the
system was capable of picking parts in random orientations and positions out
of a bin.
|
1981
|
a direct-drive robot
developed at Carnegie-Mellon university. it used electric motors located at
the manipulator joints without the usual mechanical transmission linkages
used on most robots.
|
1982
|
IBM introduces the
RS-1 robot for assembly, based on several years of in- house development. it
is a box- frame robot, using an arm consisting of three orthogonal slides.
the robot language AML, developed by IBM, also introduced to program the
RS-1.
|
1983
|
report issued on
research at Westinghouse corp. under national science foundation sponsorship
on "adaptable-programmable assembly system" (APAS),a pilot project
for a flexible automated assembly line using wools.
|
1984
|
several off-line
programming systems demonstrated at the robots 8 show. typical operation of
these systems allowed the robot program 10 he developed using interactive
graphics on a personal computer and then downloaded to the robot.
|
1990's
|
robot development
diversified into walking robots at MIT, Honda, etc., rehabilitation robots
for health care , as well as robots for defence and space applications.
|
2000's
|
micro and nano
robots using smart materials, unmanned Ariel vehicles and underwater
robotics.
|
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