Work Transformed: Automation and Labor in the Computer Age
The Robotics Revolution: The Complete Guide for Managers and Engineers
Robots: Machines in Man's Image
Smart Robots: A Handbook of Intelligent Robotic Systems
During the 1960s, researchers at a company now called SRI International built a mobile robot. “Shakey,” a wheel-driven cart that carried a television camera and a radio link to a separate minicomputer, was designed to move in response to programmed commands. When he received instructions to go from one point in a room to another, for example, the camera would form images of the robot’s immediate vicinity. Like printed photographs, such images consisted of dots representing the presence or absence of light. This arrangement of dots was fed into the minicomputer, which “digitized” it—that is, transformed it into a sequence of ones and zeros. A computer program for recognizing visual patterns compared the new sequence with others previously stored in the computer’s memory. If the computer found a match, it “understood” the robot’s position in relation to surrounding objects. This information could then be used by other programs devised to solve simple problems.
At first Shakey was merely told to push boxes about a room. In 1971 a second, more advanced version of the robot was placed near three other objects: a tall platform, a box lying directly upon it. and a ramp several feet away. Shakey was then ordered to knock the box off the platform, but at first he failed even to reach it. Next, however, he nudged the ramp over to the platform, scampered up the one and onto the other, and coolly pushed the box to the floor. In effect he had “figured out” that the ramp was a means to his end.
Shakey was slow—he spent an hour or so identifying the block and the ramp. His world consisted entirely of large, smooth boxes and clean, smooth walls; anything else literally blew his mind. Unlike most robots; which include mechanical arms that can manipulate objects with some degree of skill, Shakey could only move from place to place. Yet in a sense he could “see,” and in a sense he could “think.” Most industrial robots can do neither.
They don’t have to. Much of what goes on in a factory involves picking things up, moving them, and putting them down. Almost all work of this kind can already be done by robots, though in most cases human labor is cheaper. We cannot be quite sure how long human beings will continue to enjoy that advantage. But we do know who will be most affected when they lose it—in some cases, to improved versions of robots like Shakey. The welders, painters, machinists and toolmakers, machine operators, inspectors, and industrial assemblers of our society—in short, most of the industrial working class—will be facing the end of the road in the not far distant future. If we pretend that this transformation will automatically create new jobs for the men and women it displaces, we will probably end up with a vastly expanded underclass, not a vastly expanded pool of computer programmers.
Unlike the steam engine, the spinning mule, and the power loom, robots were conceived long…
This article is available to online subscribers only.
Please choose from one of the options below to access this article:
Purchase a print premium subscription (20 issues per year) and also receive online access to all content on nybooks.com.
Purchase an Online Edition subscription and receive full access to all articles published by the Review since 1963.
Purchase a trial Online Edition subscription and receive unlimited access for one week to all the content on nybooks.com.