Why study history? Especially in a book about computers and social
change? Because history is the closest thing social scientists have to a
laboratory for investigating large-scale social change. Only by observing
the past can we make empirical generalizations about the process of change.
To understand a revolution in information, we will have to begin even
before recorded history. For the relationship between information and
social change began long before we were able to make written records of our
experience.
The first theories of human origin emphasized the information-
processing capacity of the brain; which, it was speculated, led to the
invention of tools by the intellectually advanced Homo sapiens--the first
true human. More recent evidence indicates that tool use by small-brained
pre-human primates predated the evolution of the human species. Thus, the
use of tools apparently began before we were mentally capable of planning
designs for them. Darwin suggested that tool use was both the cause and
the effect of the natural selection process that produced an intelligent
species walking on two legs. Freedom of the hands to carry sticks or
stones may have led, accidentally, to tool use by erect but small-brained
ancestors. Those who were more inclined to walk on two legs had a survival
advantage in the use of tools, and were thus more likely to reproduce.
The evolution of humans as an intelligent tool-using species involved
more than genetic selection, however. Human culture, including techniques
that can be taught to each new generation, made the species unique. It is
extremely difficult to study early patterns of social interaction, but
scholars have proposed that the earliest information transmission was
probably visual, with one person showing another what he or she had learned
to do. A computer program has recently been used to argue, by analogy,
that cooperation is the best survival for interacting organisms (Axelrod,
1984). TIT-FOR-TAT, as the program is called, first cooperates with new
individuals it meets, remembers how they acted towards it, and on the
next encounted behaves in the same way. Although it retaliates against
uncooperative behavior, the program is quick to forgive.
Evidence from tool use in some modern primates (our closest genetic
relations) is also used to draw plausible inferences about the behavior of
our ancestors. Chimpanzees, especially the females, use rocks to crack the
nuts they have gathered. The use of tools to crack nuts is in turn taught
to the young. Young monkeys have been observed inventing and teaching to
others new techniques of gathering food. There are thus two important
points about primitive tool use. First, use involves techniques, or
information about using the tool, which can be learned and adopted through
demonstration. The second is the role of innovation. Experimental
activity is adopted and develops into regular patterns, with adults
demonstrating to their offspring methods of gathering food, using tools,
and avoiding environmental hazards. This kind of evidence fits a diffusion
model of early technical innovation.
While there is no hard scientific evidence that dates our first use
of language, some of our oldest myths and religious traditions refer to the
long food-gathering part of our past, when we lived in a garden and began
to give names to animals and things. In an ancient Chinese poem the
sacred spirits object strenuously when people begin to speak. One
explanation for the cultural theme that symbolic representation through art
and words were somehow sacreligious (as in the Judeo-Christian prohibition
against graven images) is that face-to-face, emotional communications are
important sources of group solidarity. In many religious traditions, such
as the Greek mysteries or some modern forms of group prayer, a sacred
silence helps produce feelings of connection among humans, and between
humans and the sacred.
The linguistic distinctions among specific ideas which may bring
dissent into human communications also facilitate greater coordination of
human activity. Unlike the genetically encoded communication systems of
insects and other animals, human language allows the formation of an
infinite number of thoughts. This is because language contains recursive
grammar which can generate an infinite number of sentences with a finite
vocabulary. An example of an infinitely long sentence is, "The integers
are one and two and three and four..."; an example of a recursive sentence
is "I know that you know that I know that you know that I know that."
The advantages of the spoken word for early humans were great. With
only gestures, it would be difficult to communicate the suggestion--"You
three people go around behind that mammoth and chase it towards the cliff
while we come in from the side"--unless group hunting of large animals were
already built into the genetic heritage. (American Sign Language and other
contemporary gesture-based communication systems have the grammatical
structure of a verbal language and are not like the pre-verbal gesture
systems.) Words are also useful for communicating in the dark, at a
distance, or to someone behind a tree. More importantly, as cave drawings
represent an animal not immediately present, so words allowed humans to
refer to the past, the future, and the hypothetical. With the evolution of
language, the human species was able to deal with information beyond its
immediate experiences.
Symbolic communication contributed to more complex forms of social and
economic life. Songs, stories, art, and myth communicated to each new
generation the wisdom of the past. This process of cultural information
accumulation contributed much more to our evolution than the slower
processes of genetic selection.
A new problem for hunting societies was how to divide the food surplus
from a successful hunt. In gathering societies like the Tasaday there is
no surplus. Food is usually shared among the group members as it is
collected. Hunter societies, however, have social rules about who gets
what shares, often distributed by leaders according to the local concept
of fairness. Leaders were sometimes chosen on the basis of personal
attributes like wisdom or hunting ability, or might be the oldest members
of the society. Often, however, the leadership was religious in nature,
involving people called shamans who were believed to have magical power
over the environment. These influential men and women could interpret and
explain events and the world. In their minds, and in their art and myth,
cultural information was stored, added to, then passed on. For most of
our history on earth, memory was the storage medium for information; the
sudden death of a shaman or elder might erase a good portion of a group's
knowledge.
More rapid population growth and the low productivity of early
agriculture pressured human groups to improve their food-producing
technology. Archaelogical evidence suggests that, by at least 10,000 B.C.,
people had begun to settle in villages organized around permanent farming
plots. Compared to previous cultural developments, information, tools, and
social organization evolved rapidly. During the next few thousand years
humans developed a variety of extraordinarily complex cultural forms.
As early as 30,000 B.C. (which is as far back as Carbon-14 dating can
reliably be done) the inventory of tools included calendars which could
predict the annual agricultural cycles. These were analog rather than
digital devices, dependent on the relative positions of sun, moon, and
stars to compute the changing seasons. Because we have no similar
evidence (like counting sticks or the sand table abacus) for any
development of mathematics that early, it appears that our first computers
were developed before computation. Our earliest calculators expressed
relationships in terms of visual sacred symbols, such as the signs of the
zodiac, or the image of the sun god being pulled across the sky by horses.
Besides apparently furthering the sexual division of labor, early
agriculture created new food surpluses, in the form of animals and grains,
that could be stored for long periods of time. The wide variety of social
solutions to the problem of surplus distribution included the establishment
of early forms of private property and inheritance. Information about both
kinship and property became an important part of culture. Geneologies,
often in the form of song or ritual, were memorized, and played an
important part in disputes over rights and shares of social resources.
Even today, much data processing involves the maintenance of ownership
records.
The family is a human institution, not found in its totality in any
prehuman species. It required language, planning, cooperation,
self-control, foresight, and cultural learning and probably
developed along with these. The family was made desirable by the
early human combination of prolonged child care with the need for
hunting with weapons over large terrains. The sexual division of
labor on which it was based grew out of a rudimentary prehuman
division between male defense and female child care. But among
humans this sexual division of functions for the first time became
crucial for food production and so laid the basis for future
economic specialization and cooperation (Gough, 1980:38).
Over time, those in power defined cultural meanings and remembered and
explained the official history and religious tradition. The state thus
appeared in human society. With its monopoly on the legitimate use of
force, the state provided military protection, enforced social order, and
regulated the exchange and distribution of economic surplus. Since state
rulers appropriated much of the surplus to support their own activities,
they often became an upper class, passing their wealth and privileges on to
their children. A few agricultural societies developed the most unequal
stratification systems ever observed, with hereditary castes rigidly
defining people's occupations at birth. As early forms of agriculture
established the division of labor by age and sex, so settled agriculture
divided labor by social class as the ideal of personal property in the form
of food, tools, or ornaments that could be used was transformed into the
idea of private wealth that could be amassed by a priviledged group.
Information gathering and processing became increasingly important for
the functioning of the state. Agricultural surplus, in the form of taxes,
had to be extracted from villagers. Property ownership had to be
established, and specialized staffs of warriors, priests, craftsmen,
artisans, and slaves had to be supervised. China, the oldest of the
agrarian empires, was the origin of major innovations in information
technology.
Along with the earlier invention of the abacus, writing provided the
Chinese state with the means to build and administer an empire, based on
irrigated rice cultivation, which lasted several thousand years. Taxes
were raised to construct cities, waterworks, and defensive fortifications
like the Great Wall. Censuses were taken and armies drafted. A strict
class division between the educated elite and the common people appeared.
For the elite, the arts flourished. Progress in mathematics was made as
part of administrative and ritual calculations; paper was invented and
provided a solution to the problems of producing and storing written
records.
Agricultural civilizations also developed in other parts of the world.
Although they shared with China some of the patterns of extreme class
inequality, there were some important differences in their cultures' use of
information. Languages like Egyptian evolved away from pictographs, toward
the representation of sounds by individual symbols. The invention of
phonetic alphabets greatly simplified written language, with the result
that lower class people, and even some slaves, could become literate. The
alphabetic languages lowered the barriers between social classes because
much less leisure time was required for mastery of them. Chinese is a
difficult written language even for native speakers. It remains a major
challenge to word processing and data communications designers, because
there are 35,000 individual characters which can be pronounced a maximum of
1600 ways; this makes phonetic transcription impractical due to an
excessive number of homonyms (like red and read). The most promising
approach appears to be the use of computer graphics ("Chinese/Kanji...",
1985).
Alphabetic languages facilitated information-processing for
encyclopedias, libraries, and other early data bases. The burning of the
Great Library at Alexandria, Egypt, destroyed a major part of the
Mediterranian world's knowledge, and demonstrates the vulnerability of
early information storage. Although several methods of storage were used,
all were expensive and time-consuming. Literacy was rare. Manuscripts had
to be copied by hand (with the inevitable addition of errors) or printed
the way artists make woodblock prints. Not until the widespread use of
paper and Gutenberg's invention of the modern moveable-type printing press
did written materials become widely available in Europe. By then, in the
middle of the 15th century, Europe was on the threshold of the Industrial
Revolution.
The rational organization of workers in a single building was found
efficient in the manufacture of other products besides textiles.
Technological innovations in power generation and machinery were adopted,
and the factory system was created. Between 1780 and 1840 steam engines
were introduced into textile, coal, and iron works, and the modern factory
came to dominate the English industrial towns.
By 1776 (at the beginning of industrialization) Adam Smith could
describe the ideal economy as a free market in which people could sell
land, labor, and manufactured products without constraint. Although many
people believe that this is the natural way for human beings to arrange
their economic activities, it is important to realize that this is a
culturally defined pattern of behavior of fairly recent origin. Impersonal
market forces only gradually replaced traditional social regulation of
economic activity. To Marx (who lived through the worst social disruptions
of the Industrial Revolution), the social relationships inherent in human
work became culturally redefined as impersonal relationships among things,
with workers transformed to sellers of labor and alienated from the
products of their own work. Theorists writing after the Industrial
Revolution emphasized other features of social change: Durkheim argued
that the more complex division of labor in production would make people
more dependant upon one another and increase social solidarity. He also
saw a transitional period in industrial societies during which property
rights would be unregulated by social norms (1957:207-215). Weber saw the
rise of law and administrative bureaucracies taking over the function of
regulating economic activity and property rights. In one of the more
interesting contemporary analyses, Karl Polanyi describes the Industrial
Revolution in Britain as a "Great Transformation" in which an economy
embedded in a society became a society embedded in an economy. What he
refers to is economic forces controlling the pattern of social life instead
of the other way around.
The concept of property involves more than possession. It also
includes the socially-defined ways in which possessions can be owned and
disposed of. Gifts, inheritance, barter, and sale are all ways of
exchanging possessions. In each society, some things are defined as "not
for sale." In modern societies you can sell your land but not your
children. In many earlier ones land could not be owned by individuals, but
was instead the collective property of a kinship group. People could
inherit the right to use a share but not to sell or give it to strangers.
Some of these societies did permit the sale of human beings, in a few cases
even people's own children.
To understand the difference between commodities and older forms of
property, consider all the things you own. If you have something made for
ou, for example a sweater made by a friend or relative, it is not a
commodity. The handmade sweater is more than a sweater; it is a gift
expressing your relationship to the giver. That particular sweater has a
social meaning knit into it; you could never buy another one just like it.
A sweater bought in a department store was made to be sold; the other
sweater was made for you. But what about the gift that someone bought for
you? To the extent that the gift has sentimental value, you are preserving
some of the traditional meanings of property exchange. To the extent that
the value of the gift is measured only by its price, you are treating it as
a commodity. However the purchased gift is a commodity even though it has
sentimental value. This is because your sentiment is not towards the
people who work in the sweater factory. To both you and the person who
gave you the gift, the labor that went into it is an impersonal part of the
economic system appearing only as part of the cost of the sweater.
In the case of land, the transformation from collective to private
property began hundreds of years before the industrial revolution.
Beginning in the 12th century in England, the feudal nobility began to use
their power to redefine traditional land use rights. First they restricted
the commoners' use of forests for hunting and foraging. The social
conflict of England's Robin Hood period was one result. Later, village
pastures and common lands (examples of which can still be found in the
older towns of New England) were declared private and enclosed by hedges
and fences. A poem attributed to that period indicates both popular
objection to the change and an explanation for why it was possible:
The law locks up the man or woman
Who steals the goose from off the common
But lets the greater felon loose
Who steals the common from the goose.
The nobility had much more influence upon the social interpretation of law
than did their villagers.
The conflict over changing cultural definitions of property was not
simply one of rulers versus peasants. As demands for wool from the weaving
industry caused many landlords to evict villagers entirely in order to raise
sheep, displaced peasants created an enormous crisis of social welfare in the
English countryside. Until the middle 1600's, supporters of traditional
society (including many religious leaders and the Tudor and early Stuart
monarchs) tried to halt the enclosures. Yet by the beginning of the
Industrial Revolution land had been firmly established as the private
property of individual landowners. In the process the nobility and the
citizens of the towns had won a degree of political independence from the
monarchy (Tierney, 1983:273-282). In doing so, they established the
foundations of English parliamentary law which became the basis of the U.S.
constitution. The legal and political institutions that arose during the
Industrial Revolution guaranteed citizens both democratic and property
rights.
Why the Siane work is fairly obvious. First, they must work to
eat; but need alone does not call forth the effort, for in
theory a man may eat even if he does little or no work. Clan
status entitles a person to subsistence, but an obligation to
work is vested in clan status. Within the clan all men are
considered brothers, and brothers are obliged to help each other
and share work loads (1966:47).
During the Industrial Revolution, human labor was freed from the social
restrictions of feudalism (including requirements that villagers work a
certain number of days each year for their lord and obtain permission to
travel). Instead, villagers were free to travel in search of work for
wages. As capitalism released people from the social obligations of feudal
society, work for wages became a social and economic necessity. This is
because traditional obligations for employers to provide housing and other
social services were reduced, and greater geographical mobility removed
people from the supports of kinship and community. Great poverty and
social unrest were created by changes in the pattern of social
relationships that had supported people in sickness or old age.
Unemployment, almost unthinkable in pre-industrial society where economic
activity was embedded in social life, became possible on a large scale.
The resulting social welfare crisis was debated fiercely in the British
parliament during the early years of the Industrial Revolution. Adam Smith
recommended higher wages and eduction, fearing that "too much division of
labor would reduce the worker to a remarkable degree of stupidity in which
he is not able to exercise his civic duties" (1982:195). The wretched
condition of the English lower class is vividly described in the novels of
Charles Dickens, although he did not write about the industrial towns.
Observations of factory conditions led Marx to write the Communist
Manifesto and predict a proletarian revolution.
A group called Luddites smashed machinery in a futile attempt to halt
industrialization. According to the judge who sentenced seventeen of them
to hang, their intention was:
...the destruction of machinery invented for the purpose of
saving manual labor in manufactures: a notion, probably
suggested by evil designing persons, to captivate the working
manufacturer, and engage him in tumalt and crimes, by persuading
him that the use of machinery occasions a decrease in the demand
for personal labor, and a consequent decrease of wages, or total
want of work (Burke, 1966:5)
Today the term Luddite is used to refer to senseless violence against
technology, but the original Luddites attacked machines only in the
factories where they were being put out of work. As the Industrial
Revolution continued, and the English working class turned its political
attention away from attcking machinery towards organizing labor unions and
struggling for better working conditions (Thompson, 1968).
As work in Western Europe and the United States moved out of the homes
and villages into urban factories, a cultural separation of work time and
leisure time appeared, which we now regard as a normal part of human life.
The organization of people to work at the same pace became part of the
industrial revolution, since the new machinery worked with clock-like
precision. In studies of industrialization in contemporary societies, the
acceptance of a western industrial concept of time and labor discipline
(measured in surveys by the ownership of a clock or watch and an
understanding of the concept of being "on time" for work) is considered an
important variable in the creation of a modern labor force. To Americans,
there is nothing unusual about scheduling our days in hours and minutes.
In non-industrial societies, information was rarely for sale. Cultural
tradition defined who was allowed to know what. In India, occupational
techniques could be used only by persons of the same caste. Similarly, in
many societies (including the American South) it was forbidden to teach
slaves to read. Since information about supply and demand is essential to
the operation of a free market, early capitalist manufacturing and trading
organizations pressured their governments to provide more information about
resource availability and prices. With equal fervor, however, they tried
to protect information about their own activities from their competitors
and their governments. Information was not transformed into commodity
property in the way that land and labor had been. Although innovations in
accounting and bookkeeping made great contributions to the rise of
capitalism, information remained largely the personal property of the
educated. Trade secrets were kept and sold, but the market for the
business information services we take for granted today developed very
slowly. We can find their origins, however, in railway schedules and
shipping announcements of the 1800's and in the growth of banking and mail
service.
The most important changes in social views of information during the
rise of capitalism occurred in the political and religious spheres to
challenge traditional beliefs about who should know what. The ideas of
political democracy put into practice by the American and French
Revolutions included the belief (expressed in the First Amendment of the
U.S. Constitution) that citizens should be able to exchange information
freely. With the spread of literacy, newspapers and other publishing,
freedom of information became one of the cornerstones of democracy in
industrial societies. This linkage between the origins of political
democracy and the industrial revolution does not imply that capitalism and
democracy will necessarily continue to coexist nor that industrialization
is automatically the route to democracy in the developing countries of the
world (de Schweinitz, 1964). The historical link between democracy and the
Industrial Revolution was a common cultural value for free inquiry and
innovative ideas.
Archibald Cox (Chief Watergate Prosecutor) described the way in which
the freedom to communicate information is linked in the U.S. Constitution
to religious and political freedom:
The authors of the First Amendment moved from religious liberty
through the freedoms of speech and the press to political rights to
assemble peaceably and to petition the government for the redress of
grievances. Thus, as the freedoms of speech and of the press are
linked to spiritual liberty on the one side, so they are tied to and
find justification in political liberty and democracy on the other
(1981:2).
Although information, like land and labor, was gradually freed from
traditional social constraints during the rise of capitalism, it did not
generally become private property. Instead, through the spread of literacy
and scientific knowledge, modern information became a new collective
property. Education became a major way for individuals to acquire personal
knowledge from the expanding cultural storehouse. Although many people today
think of education as an investment that increases the value of their labor,
our public schools, libraries and support for scientific research are
indicators of the extent to which information is still defined as social
property. A large-scale redefinition of information as a commodity would
have a sweeping effect upon these institutions as well as upon our democratic
political institutions.
Although Marx said that the hand mill produced
feudalism and the steam mill produced modern capitalist society, his theory
was not one of simple technological determinism. Before new machinery
could be introduced, he argued, work must be reorganized to accommodate the
equipment by those who have the power to redefine tasks and products. It
was from this reorganization of work in the factory that the social and
political consequences of the Industrial Revolution emerged.
The modern computer has its origins in both the machinery of the early
factories and the 17th century mathematicians' and astronomers' fascination
with computational and timing devices. For both industrialists and
inventors, the rational organization of human activity was the means toward
the desired goal of progress. As the 17th century mathematician Liebnitz
wrote:
Charles Babbage, whose 1833 design for the analytic engine was the
prototype of the modern computer, owned factories organized around the
principle that:
The techniques which led to the eventual development of robots and
other automated equipment appeared first on factory assembly lines with
manual workers serving as semi-automatic components. In fact, the word
computer was first used to describe the jobs of women who performed
calculations and wired hardware for the pioneering ENIAC. It only later
meant the machine which replaced them. Such changes were not because of
computers or any other technology, occurred because those who had the power
to decide how technology will be used reorganized the division of labor to
accomodate the computer in ways they believed to be economically rational.
Just because the computer makes it technically possible to free people
from the time and space constraints of the Industrial Revolution doesn't
mean that work will necessarily become freer in a social sense. The
division of labor in the Industrial Revolution was designed to treat people
as parts of assembly lines -- that was not the only way economic activity
could have been arranged. The working conditions of the Industrial
Revolution will be carried over into the information age if we design our
computer systems to imitate factories.
The production of information commodities will have an impact on the
institutions that socialize people for work, for consumption, and for
decision-making. Although homes may become workplaces, the family will not
recapture its pre-industrial social functions. Leisurre and mass
communications media will become more important socializing agents, with
some of the functions of educational institutions transferred to the
private sector. The forms of mental work that machines can do will be
devalued as sources of self-esteem and occupational status.
Although many of our computer systems are being designed to look like
factories, there will be a gradual transformation from the workplace to the
work space. In the process much of the unionized industrial laborforce and
routine clerical work will be automated.
New jobs in the information society will be in what is now the service
sector of the economy. According to one line of reasoning, these will be
more creative and satisfying than those of the Industrial Revolution.
According to an alternative argument, there will be a restratification of
society marked by a declining middle class, a sharper distinction between a
knowledge elite and information workers, and the growth of an impoverished
underclass.
Democratic institutions will be challenged by changing definitions of
property and by new means of exerting power. Conflicting demands will be
placed upon the law to protect both information as property and as personal
privacy. New technologies of social control will be possible in law
enforcement, in government, and in the military as well as in business.
Alternative designs are vailable to provide technologies of social
integrtion that support a widespread participatory democratic process and
facilitate international coopertion. The institutions of public decision-
making are confronted with choices that will determine the future
distribution of information, property, and power.
3.1 EVOLUTION AND REVOLUTION
Most theories of change in the earliest forms of human society are
about evolution. They attempt to explain how human beings, with their
characteristic patterns of group life, slowly evolved from pre-human
species. The appearance of agriculture at about 30,000 B.C. and the
Industrial Revolution of the 18th century were, in contrast, marked by such
rapid changes in social structure that they have been termed revolutions.
The introduction of computers is, to many theorists, simply an evolution of
the Industrial Revolution. To others, computers represent a new, major
period of revolutionary change. The choice of whether a social change is
to be called an evolution or a revolution is rather arbitrary.
Revolutions are relatively rapid and disruptive; evolutions maintain
continuity and are gradual.
3.1.1 Tools, Information, and Human Evolution
One source of continuity between the computer revolution and much
earlier forms of social change is the human use of information. From the
genetically-encoded information in the brains of pre-human species to the
scientific knowledge of modern industrial societies, information has been
an integral part of human evolution and revolution. Tools, especially
tools for gathering and recording information, have also played an
important role. There have been revolutions when new means of information
processing have appeared suddenly, but much of the human history of
information processing is an evolutionary one.
3.1.1
The Origin of the Species
With the general acceptance of Darwin's
theory of evolution in the late 19th century, scientists and educated
laymen began to investigate the evolution of the human species from its
more primitive ancestors. Theories in the fields of paleontology,
archaeology, social anthropology and sociobiology have been formulated and
revised as new scientific evidence is discovered. For scientists, the
topic remains exciting and controversial.
3.1.1.2 Language and Art
For a period of several million years, most
communication was non-verbal. Non-verbal communications are still an
essential ingredient of social interaction. (Indeed, one of the technical
difficulties of natural language software is the fact that humans rely on
body posture, eye contact, and gesture to communicate meaning.) The first
two innovations in information processing were art and spoken language.
The paleontological evidence indicates that visual representations of
objects had begun by the time humans were hunters of large animals. By
then, people had learned to represent information as carvings and pictures.
They had also begun to bury their dead with flowers, suggesting that they
had begun to ponder the symbolic meaning of their existence.
3.1.1.3 The Division of Labor
As human culture evolved, it reflected the
history of human interactions within the environment. Projectile weapons
appeared with the hunting of large game; previously we were hunters of
frogs and rabbits and may even have been scavengers. With the advent of
big-game hunting, many scholars believe that a division of labor developed,
with adult males ranging further from home while females, older males, and
the young continued to gather food. With this specialization of activity,
status distinctions based upon age and sex appeared. Certain forms of
information became associated with particular statuses. For example, spear
use might be restricted to adult males activity; firewood gathering could
be defined as children's work. From observations of contemporary
gathering and hunting societies anthropologists theorize that the process
of transmitting information was also defined and divided. Transmission
might occur through the ritual initiation of boys into sacred knowledge
about animal habits, or the initiation of girls into knowledge of the
locations and healing properties of plants. Technical skills like tool
making might become specialties passed down from craftsman to apprentice.
3.1.2 The Agricultural Revolution: New Techniques and Social Structures
Sometime during the last 20 to 30,000 years, communities of people
scattered across the globe learned to raise plants and animals for food.
Although evidence indicates that some of the tools and techniques of
herding and early agriculture diffused from group to group, others seem to
have been discovered, independently, on several continents. Since this
does not suggest a diffusion model, one theory suggests that population
growth placed pressure on the food supplies of hunting and gathering
societies, giving them a powerful incentive to seek alternative food
sources. Our earliest agriculture was semi-nomadic, similar in many ways
to gathering wild plants.
3.1.2.1 Changes in Cultural Information
From a functionalist perspective, the
growth of agriculture posed a new set of survival problems and information
needs. The reproductive habits of plants and animals were learned and
formalized as a set of myths and customs, as part of the new techniques of
food production. Knowledge of animal reproduction increased the amount of
information about human biological relationships, and fertility took on a
central role in religion. Weather dieties, especially those in charge of
rainfall, were worshipped.
3.1.2.2 The Division of Labor in Agricultural Societies
Symbolic evidence for
an early sexual division of labor in agriculture comes from the fact that
earth and fertility dieties were usually female, while the principal gods
of nomadic herding cultures tended to be male. This suggests to some
scholars that gardening began as women's activity, while animal husbandry
grew out of men's hunting activities. In many contemporary agrarian
societies agriculture was traditionally women's work, although this sort of
evidence must be used cautiously when making arguments about pre-historical
cultures.
3.1.2.3 The Origin of the Family
The pre-historic origins of the family
cannot be known for certain, since social relationships do not usually
leave archaelogical evidence. Research on primates and contemporary pre-
industrial cultures, however, strongly suggests that:
3.1.2.4 New Relationships of Property and Power
New social arrangements were
based on food surpluses that freed some individuals from the tasks of
tilling the land. Men and women could specialize in their economic roles,
exchangingbaskets, jewelry, tools, cloth, or beer for food. Leaders
assumed more important roles in society, interpreting both social rules and
religious traditions. At times the leadership divided, with different
tasks and statuses for the sacred and the secular. From the secular
evolved early forms of government and politics; from the sacred developed
magic and ritual in astronomy and agriculture. Hereditary rule often
evolved; and leaders were entitled, at birth, to large shares of social
resources. Military activity, important for the protection of many village
settlements, became a specialty. Groups conquered one another, and
established patterns of slavery and enforced rule.
3.1.2.5 Innovations in Information Processing
As the 5000-year old oracle
bones of China indicate, early writing developed from pictures and was part
of a religious information system. The important advantages of writing as
a method of information transmission as opposed to oral or non-verbal
communication is that information is stored outside the human mind and is
less subject to memory loss or idiosyncratic changes as it is passed from
person to person. Even non-verbal information lasts longer in a permanent
storage medium. For example, a written Chinese musical score discovered by
archaelogists was recently played for the first time in 1800 years.
3.2 THE INDUSTRIAL REVOLUTION
It is widely agreed that the Industrial Revolution was the greatest
period of social change in history, culminating in an international
capitalist economic system. It is also agreed that the revolution began in
England, occurred mainly from the mid-18th to mid-19th centuries, and had
its origins in 16th and 17th century European culture. The details of why
and how it occurred are still being debated by social theorists and
historians. By any theory, however, the Industrial Revolution marked the
transformation of the world's economic and social life.
3.2.1 The Great Transformation
Innovations in 16th century English agriculture included new tools and
soil preparation techniques. These raised food productivity and supported
a population growth in the 17th century. Trade in agricultural products
among European countries created an international division of labor which
expanded with European colonization. For example, English colonial
expansion into India provided a new raw material--cotton, suitable for the
textile industry that had begun with wool. Lower labor requirements in
English agriculture displaced rural workers, who found their way to cities
like Manchester, where they were organized to weave cloth.
3.2.2 The Transformation of Property
3.2.2.1 The Concept of Commodity Property
The rise of capitalism altered
social restrictions on property. A particular form of property, the
commodity, became more prevalent. Unlike most earlier products, which were
made to be used or exchanged in the context of a social relationship
between producer and consumer, commodities were made to be sold for profit
using rationally organized wage labor. The value of a commodity is
measured by a universal medium of exchange, money. The price of a
commodity represents its value and includes the cost of materials, wages,
other production expenses, and profit. When it is sold, the exchange is
based upon the price of the product, not upon the social positions of buyer
and seller. A set of impersonal market relationships reduce direct social
contact between the maker and the consumer, who may be strangers to one
another.
3.2.2.2 Commodities and Capitalism
When commodity production began, it was
hindered by traditional social obligations that prevented people from
selling their labor, by customary prices and land use rights, and by
cultural beliefs that interest and profit were immoral. During the rise of
capitalism, land and human labor were socially redefined as being "for
sale". Although they did not become commodities by most strict definitions
of the term (because they are not "made"), they did become private rather
than social.
3.2.3 The Transformation of Labor
In non-industrial societies work is intertwined with the other pursuits
of life. Most people did not work for wages, but out of social obligations
to friends and relatives. People exchanged the products of their work as
gifts or through barter. People in the lowest positions of society might
be slaves or serfs, with the entire pattern of their lives tied to
obligations to their master or feudal lord. More fortunate members of
society, however, tended to find their work filled with meaning and
purpose. As they farmed or made objects, they also expressed themselves as
human beings in a complex network of kinship and community. Their patterns
of work were part of the broader patterns of their culture. As Nash
reports of a New Guinea culture:
3.2.4 The Rationalization of Culture
While the Industrial Revolution is often considered a revolution based
on tools--Jacquard's 1801 loom with its punch card controls being
particularly important for later data-processing technology--it was also a
revolution in cultural conceptions of the world. The rationalization of
economic activity was only part of a new cultural conception of a rational
universe. The Reformation's challenges to religious authorities and the
rise of rational scientific inquiry were precursors to the Industrial
Revolution.
3.2.4.1 The Economic Consequences of Religious Ideas
Capitalist ideas of
property were part of a transformation of European religious beliefs. For
example, the medieval view that usury (making interest on a loan) was a
violation of Christian doctrine inhibited investments in manufacturing.
John Calvin's mid-16th century theological argument that usury was immoral
only if it created social inequity helped make investment more socially
acceptable (Nelson, 1969:79). Weber suggested that other ideas of the
Protesant reformation had unanticipated consequences, and that the
Protestant Ethic provided ideological justification for new forms of
industrial organization.
3.2.4.2 The Age of Scientific Reason
The scientific revolution which
contributed so much to the techniques of manufacturing began as a
challenge to established religious views of the nature of the physical
world. During the 16th century, the mechanical arts flourished, setting
the stage for the machines of the Industrial Revolution. A fascination
with clocks and the laws of motion led to the invention of all sorts of
mechanical devices. A systematic study of astronomy and physics began as
observers of the heavens like Johannes Kepler looked for mathematical,
instead of mystical, regularities. Similarly, alchemists became chemists.
The age of scientific reason created a view of the world as a rationally
organized mechanism that could be understood, predicted, and controlled.
3.2.4.3 Temporal Rationalization
The appearance of public clocks marked a new
temporal rationalization of society. Beginning in the monestaries and
moving into the early factories, clocks organized people to pray and work
in unison. In earlier epochs time was socially measured by events like the
cycles of light and dark or the passage of seasons. Ritual, song, and
dance were activities where groups kept the same time, but the idea of a
universal, regular time pattern seemed wrong. (If it is hard to believe
people rioted over clocks and calendar reforms, consider the reasons why
today there are objections to daylight savings time.)
3.2.4.4 The Rationaliztion of Social Interaction
A particularistic social
relationship is one based on emotional evaluations of who a person is.
Race, sex, kinship and other characteristics acquired at birth are used to
determine how to act towards another person. Clear distinctions are made
between behavior appropriate toward strangers and behavior appropriate to
one's own group. Universalistic social relationships are based on general
principles for acting towards other human beings. Rational judgments of
how a person is acting are more important than who he or she is. The
Industrial Revolution transformed particularistic social relationships
into universalistic ones (Parsons and Shils 1951: 76-84). The positive
contribution of universalism to human interaction was a greater willingness
to cooperate with people outside one's own family, village, or region.
This made possible an expansion of the international division of labor,
involving the coordination of many strangers into new production processes
and social structures. The negative aspect of universalism has been a loss
of social solidarity in family and community, and a lack of consensus in
values (Berger, Berger, and Kellner, 1973).
3.2.5 Information and the Rise of Capitalism
Secrets are not new. Throughout history, both individuals and groups
have guarded particular forms of information. The best location for
fishing or finding flint for arrowheads; the techniques for working metals;
magical hunting or healing techniques -- all of these have been made
secret. The Egyptian priesthood kept knowledge of land surveying to
themselves. Each year following the Nile floods, they ritually
recalculated property boundaries, with the result that their own lands
tended to get larger. Some of the first makers of iron weapons tried to
prevent the diffusion of metallurgy technology, hoping to gain military
superiority. Medieval European guilds used the secrets of their crafts to
gain some independence for their cities against the political rule of
feudal landowners. At the beginning of the Industrial Revolution, England
prohibited the export of weaving technology; the first textile machinery in
the United States was smuggled to Rhode Island piece by piece. Once
assembled and copied, this illegal technology became the basis of New
England's cotton industry -- a major competitor for England. Yet most of
this secret information was not property in the modern sense.
3.3 COMPUTERS AND CAPITALISM
3.3.1 The Industrial Origins of the Modern Digital Computer
it is unworthy of excellent men to lose hours like slaves in the
labor of calculation which could be safely relegated to anyone else
if machines were used. (Smith, 1959: 156-164)
The anyone else was the person who operated the machine.
Human labor is similar to capital, raw materials, etc. It is
therefore subject, or ought to be subject, to similar input/output
analyses, measurement, standards and controls. (Babbage, 1982)
The substitution of machinery for labor was an early part of the
industrialization process. Marx (1973:110-126) agreed with Babbage's
definition of a machine as a division of labor in which a single engine
links particular operations performed by a single instrument. In this
process factory workers became components of the machine as their work is
first rationally divided into tasks coordinated tasks. Later they were
replaced by machines designed to do their specialized part of the opertion.
3.3.2 A New Division of Labor
Computer technology makes possible an extension of industrialization
that Norbert Weiner called a second industrial revolution, in which "the
sporadic design of individual automatic mechanisms" is replaced by
"communication between machine and machine" (1967:208). Robots based on
cybernetic principles are able to do the factory work of even highly
skilled workers. Their introduction extension the Industrial Revolution's
factory automation and allows greater coordination of differentiated tasks.
But, because the computer is a general purpose tool for communication and
control, a radically new division of labor is now possible.
3.3.2.1 The Transformation of Industrial Time and Space
In Industrial
Revolution factories, people worked at a pace set by machinery and enforced
by supervisors. While the temporal logic of factory machinery required a
temporal discipline on the part of workers, in some new computer systems
the machine can accomodate multiple tasks occurring at different tempos and
in different sequences. The new technologies speed up the production
process, shortening the time between design and product. They can also be
used to coordinate work performed by individuals acting at their own pace
and under their own direction. Communications and control technology also
makes it possible to coordinate the work of people in different cities and
countries. Work has been freed from the spatial requirement of the
Industrial Revolution that people work together in the same factory or
office building. The workplace can be anywhere.
3.3.2.2 The Industrialization of Mental Labor
After the Industrial Revolution the work of clerical and technical
people supported the productive work of factories. Now, with a growing
market for information products, many mental laborers are directly involved
in commodity production. Intellectual labor is being subjected to the same
processes of rationalization and control which affected manual labor during
the Industrial Revolution. Wordprocessors and other automated office
technologies make it possible to organize rather routine mental work into
small tasks coordinated by computers. Applications like computer-aided
design offer the same possibilities for some kinds of technical work.
Knowledge engineering promises the capacity to rationalize professional and
managerial work as well. Professional and managerial work requires the
ability to make judgments based upon experience and knowledge. Managerial
activity in addition includes the ability to evaluate and control of the
work of others. There is an enormous gap between the actual performance of
intelligent software and knowledge engineering's claim that computers can
perform as technical experts, can acquire a kind of judgment based upon
general principles and experience, and can make managerial decisions. But
there are enough successes in the 200 or so commercial expert systems to
demonstrate that machines can perform a few of what were previously human
mental activities (Pylyshyn, 1980; Frenkel, 1985). Growing business and
military support for the Fifth Generation of intelligent computers
indicates that the mechanization of thought is becoming a social fact
despite theoretical reservations of philosophers and cognitive scientists.
3.3.3 The Social Consequences
The transformation of industrial time and space will shift attention
from the social conditions of work to the physiological and psychological
conditions of the computer/human interface, as more work is remotely
controlled by computer systems instead of directly by managers. Response
time in conversations with computers will replace machine pacing as a
source of stress. Subjective feelings of control, mastery, and self-esteem
will be sources of job satisfaction as social relationships of power and
control are embodied in technology.
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