Will Robots take over all our
jobs?
The earliest known industrial
robot was built by Griffith P. Taylor in 1937 and published in the Meccano Magazine on March 1938. The crane-like device was built
almost entirely using Meccano parts, and powered by a single
electric motor. Five axes of movement were possible, including grabbing items
and rotating the arm of the machine.
Automation was achieved using punched paper tape to energize solenoids, which
would facilitate the movement of the crane's control levers. The robot could stack wooden blocks in
pre-programmed patterns. The number of motor revolutions required for each
desired movement was first plotted on graph paper. This information was then
transferred to the paper tape, which was also driven by the robot's single
motor.
George Devol applied for the first robotics patents in 1954 (granted in 1961). The
first company to produce a robot was Unimation, founded by Devol and Joseph Engelberger in 1956. Unimation robots were also called programmable transfer machines since their main use at first was
to transfer objects from one point to another, less than a dozen feet or so
apart. They used hydraulic actuators and were programmed in joint coordinates, the angles of the various joints
were stored. They
were accurate to within 1/10,000 of an inch.
In 1969 Victor Scheinman at Stanford University invented the Stanford arm, an all-electric, 6-axis
articulated robot designed to permit an arm solution. This allowed it accurately to
follow arbitrary paths in space and widened the potential use of the robot to
more sophisticated applications such as assembly and welding. Scheinman then
designed a second arm for the MIT AI Lab, called the "MIT arm." Scheinman, after
receiving a fellowship from Unimation
to develop his designs, sold those designs to Unimation who further developed them with support from General Motors and later marketed it as the Programmable Universal Machine for Assembly
Work.
Industrial robotics took off quite
quickly in Europe, with both ABB Robotics and KUKA Robotics bringing robots to the market in
1973. ABB Robotics introduced the IRB 6 that is among the world's first commercially
available all
electric micro-processor controlled a robot. The first two IRB 6 robots were sold to Magnusson
in Sweden for grinding and polishing pipe bends and were installed in
production in January 1974. Also in 1973 KUKA
Robotics built its first robot, known as FAMULUS, also one of the first articulated
robots to have six electromechanically driven axes.
If you have ever seen car manufacturers building the cars with robotic
machines and/or watched the TV show How it is Made, you will marvel how
these robotic machines put cars and other objects together without a human
being around except the man who pushed the buttons to start the machines.
I can remember the days when ads and commercials were telling anyone
reading or watching them that robots would one day make physical work something
of the past. They showed pictures of families skiing, swimming at the beach or
camping in a forest which implied that they would never have to do physical work
of any kind again. The messages were uplifting.
Who paid for these messages? It wasn’t the unions who
represented the workers who were fired from their jobs and replaced by robots. It
was the people who made these robots. Perhaps they didn’t want their factories
burned to the ground by mobs of unemployed people.
If you think that all jobs are not going to be extinct,
consider the fact that they now have robots that can do accounting. More pink
slips. Soon robots will replace the sales people also. Actually, robots are
doing accounting and sales.
Where are all these former employees going to get their
income from if they have no jobs to work at? Those subline pictures in which
the robotic companies wanted everyone else to dream about, are a myth that will
never happen. That is because the
unemployed former employees won’t have any money to go to those wonderful places
I described earlier in this article. The dreams of the former workers will instead
be nightmares.
Now I can appreciate that some robotic machines are
absolutely necessary but must all workers be sent out to the pasture so that
robots will take over their jobs? Who will benefit the most if this happens?
The workers who build them—that is until the robots they built take over their
jobs.
Let’s take
a peek at the future.
In Shanghai, visitors at the Consumer
Electronics Show were able to have their meals cooked by an entire robotic kitchen. London's Moley Robotics designed the kitchen, which features two robot arms
that will cook a variety of dishes for you as you select from an iTunes-style
menu of items. The human cooks and waiters or waitresses are now unemployed.
The Congo has started to use “solar-powered aluminum
robots” to direct traffic. The robots are able to rotate, and they have
surveillance cameras so they can send images to local police stations where
robots will immediately react if and when necessary. The human cops will no
longer be needed so they too will be unemployed.
The company Somabar is creating a robot bartender that can make
you any drink you choose. You would even be able to give it orders to the
robotic bartenders via wi-fi from your smartphone. Where are the bartenders and
the manager of the tavern? They were fired and are now unemployed.
A robot in a hospital in Sharon, Pennsylvania is using an ultraviolet light to destroy
bacteria and viruses that could make patients sick. It should be pointed out
that the robot does this job after standard cleaning procedures have been
completed by robots. The cleaning staff are probably all fired.
A number of hospitals have started
using robotic surgery. Several hospitals in Nevada
are using a robot called Xi that results in “smaller
incisions, less blood loss, fewer complications and shorter recovery periods.
Many years ago, I convinced the government of the Province of Ontario to send and pay for the operation of a woman
who had brain cancer to Sweden to
have a very complicated brain operation using robotic equipment.
It is conceivable that in the
future, family physicians, surgeons, nurses and dentists will all be robots.
There will no need for medical schools since the robots will have been
programmed by professors in those fields before they too were turfed from their
jobs.
A Silicon Valley company is designing a robot bellhop. Called the Botlr,
it's a cylindrical machine on wheels, with a basin and a lid on top. It can
hold standard room service items like toiletries, water bottles, and
newspapers, and find it own way to hotel rooms. It can even ride the elevator
and push the right button for the floor it wants.
The Arab tradition of
camel racing now has a technological twist, as robots are increasingly playing the role of camel jockeys. The robots are
controlled by racers, who follow the camels in their own vehicles, as a form of
almost remote-controlled racing. There will be a time in the future when the
robotic camel jockeys won’t need to the assistance of those pesty humans
following behind them in their robotic driven cars. The cars and the robots
will still be around—it’s the humans that won’t be around.
Economists are only now beginning to wake up to the potential
impact of our robotic pals who are fun to be with and who we find necessary. Experts are increasingly
looking at robotics as one of the fundamental causes of what appears to be a
growing income gap across the developed world.
The theory behind it is largely indisputable. Robots, unlike human workers, don’t take a
salary, so when human workers are replaced by robots, the money that would have
flowed into the economy in the form of wages instead flows to the company that
owns the robots — that is, to executives and capital owners. So the more
robots, the more capital owners and executives earn, and the less the fired
employees and their families have to live on.
Young people getting a better education won’t do much to assist them in the future
since there will be no jobs for them since those positions will all be filled by
robots.
There are the 15 countries that have the most “robot density”
— the highest ratio of robot workers to human workers. Not surprisingly, the
countries known as manufacturing powerhouses — Germany and Japan, for example
dominate the list followed by the United States.
In the past, what we thought was that robots would do things
that were the three D's: dangerous, dirty, and dull. Now they can do things
that even humans cannot do successfully. The
abilities of robots will only continue to expand.
Many people fear a jobless future and their anxiety is not
unwarranted. It has been estimated that one-third of jobs will be replaced by
software, robots, and smart machines by 2025.
The machines of the Industrial Revolution
overcame the limitations of human muscle, while the robots and artificial
intelligence of today are overcoming the limitations of our individual minds.
They are also overtaking jobs fill by humans. While the Industrial Revolution ultimately led to more employment opportunities , economists
are heavily debating whether or not we will see a different result in the aftermath of the Robotic Machine
Age.
While it is hard to fully anticipate the
consequences of this major societal shift towards intelligent machines, for the
time being, we can find comfort in the fact that we still have a leg up on
robots for certain jobs: ones that require judgment, creative thinking, and
human interaction.
However my concern is; what are the uses of robotics going to
do for persons who have been fired from their jobs and replaced by robots?
Two Oxford University researchers issued a
report predicting that nearly half of all jobs in the United States could be
lost to machines within the next twenty years. The researchers, Carl Benedikt
Frey and Michael Osborne, looked at seven hundred kinds of work and found that
of those occupations, among the most susceptible to automation were loan
officers, receptionists, paralegals, store clerks, taxi drivers, and security
guards. Even computer programmers, the people writing the algorithms that are
taking on these tasks, will not be immune. By their calculations, there is
about a 50 percent chance that computer programming will also be outsourced to
machines within the next two decades.
As a matter of fact, this is already happening, in part because
programmers increasingly rely on “self-correcting” code—that is, a code that
debugs and rewrites itself*—and
in part because they are creating machines that are able to learn on the job.
While these machines cannot think, per se, they can process phenomenal amounts
of data with ever-increasing speed and use what they have learned to perform
such functions as medical diagnosis, navigation, and translation, among many
others. Add to these self-repairing robots that are able to negotiate hostile
environments like radioactive power plants and collapsed mines and then fix
themselves without human intercession when the need arises. The most recent events
have shown us that some of these robots has been designed by the other robots
themselves, suggesting that in the future even human roboticists may find
themselves out of work.
The term for what happens when human workers are replaced by
machines was coined by John Maynard Keynes in 1930 in the essay Economic Possibilities for our
Grandchildren. He called it “technological unemployment.” At the time,
Keynes considered technical unemployment a transitory condition, “a temporary
phase of maladjustment” brought on by “our discovery of means of economizing
the use of labour outrunning the pace at which we can find new uses for
labour.” In the United States, for example, the mechanization of the railways
around the time Keynes was writing his essay put nearly half a million people
out of work. Similarly, rotary phones were making switchboard operators
obsolete, while mechanical harvesters, plows, and combines were replacing
traditional farmworkers, just as the first steam-engine tractors had replaced
horses and oxen less than a century before. Machine efficiency was becoming so
great that President Roosevelt, in 1935, told the nation that the economy might
never be able to reabsorb all the workers who were being displaced. The more
sanguine New York Times editorial board then accused the president of falling prey to
the “calamity prophets.” They were wrong
and the president was right.
However, unemployment, which was at nearly 24 percent in
1932, dropped to less than 5 percent a decade later. It was then believed that
it was a pattern that would reassert itself throughout the twentieth century:
the economy would tank, automation would be identified as one of the main
culprits, commentators would suggest that jobs were not coming back, and then
the economy would rebound and with it employment, and all that nervous chatter
about machines taking over would fade away.
When the economy faltered in 1958, and then again in 1961,
what was being called the “automation problem” was taken up by Congress, which
passed the Manpower Development and
Training Act. In his State of the Union Address of 1962, President Kennedy
explained that this law was meant “to stop the waste of able- bodied men and
women who want to work, but whose only skill has been replaced by a machine, moved
with a mill, or shut down with a mine.” Two years later, President Johnson
convened a National Commission on
Technology, Automation, and Economic Progress to assess the economic
effects of automation and technological change. But then a funny thing happened.
By the time the commission issued its report in 1966, the economy was
approaching full employment. Concern about machines supplanting workers abated.
The commission was subsequently disbanded.
That fear, though, was merely dormant, not gone. A Time magazine
cover in 1980 titled The Robot Revolution
showed a tentacled automaton strangling human workers. An essay three years
later by an MIT economist
named Harley Shaiken begins:
“As more and more attention is focused on economic recovery,
for 11 million people the grim reality is continued unemployment. Against this
backdrop the central issue raised by rampant and pervasive technological change
is not simply how many people may be displaced in the coming decade but how
many who are currently unemployed will never return to their jobs.” unquote
Fortunately, unemployment, which was approaching 10 percent
at the time, then fell by half at decade’s end, and once more the automation
problem receded. Alas, there was the problem
again on the heels of the economic collapse of 2008. An investigation by the Associated Press in 2013 put it this way;
“Five years after the start of the Great Recession, the toll
is terrifyingly clear: Millions of middle- class jobs have been lost in
developed countries the world over. And the situation is even worse than it
appears. Most of the jobs will never return,
and millions more are likely to vanish as well, say experts who study the labor
market. They’re being obliterated by technology.
Year after year, the software
that runs computers and an array of other machines and devices becomes more
sophisticated and powerful and capable of doing more efficiently tasks that
humans have always done. For decades, science fiction warned of a future when
we would be architects of our own obsolescence, replaced by our machines; an Associated Press analysis finds that the
future has arrived.” unquote
Here is what that future now looks like. Banking,
logistics, surgery, and medical recordkeeping are just a few of the occupations
that have already been given over to machines. Manufacturing, which has long
been hospitable to mechanization and automation, is becoming more so as the
cost of industrial robots drops, especially in relation to the cost of human
labor. According to a new study by the
Boston Consulting Group, currently the expectation is that machines, which
now account for 10 percent of all manufacturing tasks, are likely to perform
about 25 percent of them by 2025. (To understand the economics of this
transition, one need only consider the American automotive industry, where a
human spot welder costs about $25 an hour and a robotic one costs $8. The robot
is faster and more accurate, too.) The Boston
Group expects most of the growth in automation to be concentrated in
transportation equipment, computer and electronic products, electrical
equipment, and machinery.
Xerox uses computers—not people—to select which applicants to
hire for its call centers. The retail giant Amazon “employs” 15,000 warehouse
robots to pull items off the shelf and pack boxes. That is 15.000 human
employees out of a job. The self-driving car is being road-tested. That means
taxi drivers, bus drivers and truck drivers will also be out of a job.
A number of hotels are staffed by robotic desk clerks and
cleaned by robotic chambermaids. Airports are instituting robotic valet
parking. Cynthia Breazeal, the director of MIT’s personal robots group, raised $1 million in six days on the
crowd-funding site Indiegogo, and then $25 million in venture capital funding,
to bring Jibo, “the world’s first social robot,” to market.
By 2013 there were 1.2 million industrial robots working
worldwide which comes to one robot for every 5,000 people. How many of them
were functioning in the following three years? Robots are currently analyzing
documents, , and handling other tasks that were once exclusively done by
humans. These robots don’t take time off and they aren’t tired or bored.
The UCSF
Medical Center recently launched an automated, robotics-controlled pharmacy
at two UCSF hospitals. Once computers at the new pharmacy electronically
receive medication orders from UCSF physicians and pharmacists, the robotics
pick, package, and delivers the individual doses of pills to the proper
patients. The day will come when robots
are filling the prescriptions and later still,
when they are prescribing them.
Robotic machines assemble the doses which are
all bar-coded onto a thin plastic ring that contains all the medications for a
patient for a 12-hour period.
Many companies
are increasingly looking for ways to sell more products with fewer employees.
ATM machines reduce the need for bank tellers, virtual assistants can answer
the phone 24 hours a day, and self-service robotic machines are reducing the
need for checkout clerks.
Retail employment had barely budged over the last year
despite stronger sales at major chains. Meanwhile, $740 billion was transacted
through self-service machines in 2010, up 9 percent from 2009.That number was projected
to rise to $1.1 trillion by 2014.What are the figures now in 2017? Do those
monetary figures also represent the income the former employees lost after
being fired?
Although soldiers have yet to be replaced by an army of
robots, we seem to be moving in that direction as drones and other robotic machines
are increasingly being used in reconnaissance and combat missions.
One example is the MAARS (Modular Advanced Armed Robotic
System), made by Foster-Miller, which has provided armed robots in Iraq.
According to Wired, the robot is equipped with a GPS monitor; it can be
programmed to differentiate between fire and no-fire zones, to open doors, and
even to drag out injured bodies.
How soon will these robotic soldiers begin firing all kinds
of weapons without being under the direct control of humans?
Now
here is a very frightening question to ponder. How soon will robotic cyborgs
begin attacking humans for the purpose of taking over the world for themselves?
This century, the next century? If that happens, few humans will be spared in a
robotic cyborg revolution as millions of people will be killed by the cyborgs. But would humans be able to fight back?
There are computers than can already think for themselves
such as those that play chess with humans. If we build soldiers that have
computerized minds that can out think humans, what chance would humankind have
for survival?
Thank god that those of us who are still alive in this era
won’t see that day come. But what about our great great grandchildren? Will
they be terminated at the hands of the robots just like the Jews were at the
hands of the Nazis?
Great stuff for a movie but also a horrific end of humanity.
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