The Reign of the Farmer James E. McClellan
The Reign of the Farmer James E. McClellan and Harold Dorn At the end of the last Ice Age, around 12,000 years ago, the Neolithic Revolution
began to unfold. This revolution, first and foremost a socioeconomic and
technological transformation, involved a shift from food gathering to food
producing. It originated in a few regions before eventually spreading around the
globe. In habitats suitable only as pasture it led to pastoral nomadism or herding
animal flocks; in others it led to farming and settled village life. Thus arose the
Neolithic or New Stone Age.
Growing Your Own
A surprising but grand fact of prehistory: Neolithic communities based on
domesticated plants and animals arose independently several times in different
parts of the world after 10,000 bce—the Near East, India, Africa, North Asia,
Southeast Asia, and Central and South America. The physical separation of the
world’s hemispheres—the Old World and the New World—decisively argues
against simple diffusion oef Neolithic techniques, as do the separate domestications
of wheat, rice, corn, and potatoes in different regions. On the time scale of
prehistory the transformation appears to have been relatively abrupt, but in fact the
process occurred gradually. Nonetheless, the Neolithic revolution radically altered
the lives of the peoples affected and, indirectly, the conditions of their habitats.
Although different interpretations exist concerning the origin of the Neolithic, no
one disputes its worldtransforming effects.
The Neolithic was the outcome of a cascading series of events and processes. In
the case of gardening—lowintensity farming—we now know that in various
locales around the world human groups settled down in permanent villages, yet
continued to practice hunting, gathering, and a Paleolithic economy before the full
transition to a Neolithic mode of production. These settled groups lived by
complex foraging in limited territories, intensified plant collection, and
exploitation of a broad spectrum of secondary or tertiary food sources, such as nuts
and seafood. They also lived in houses, and in this sense early sedentary humans
were themselves a domesticated species. (The English word “domestic” derives
from the Latin word domus, meaning “house.” Humans thus domesticated
themselves as they domesticated plants or animals!) But the inexorable pressure of
population against dwindling collectible resources, along with the greater
nutritional value of wild and domesticated cereal grains, ultimately led to
increasing dependence on food production and a more complete food producing
way of life. In most places in the world people continued a Paleolithic existence
after the appearance of Neolithic settlements 12,000 years ago. They were
blissfully unpressured to take up a new Neolithic mode of food producing, and as a
cultural and economic mode of existence even today a few surviving groups follow
a Paleolithic lifestyle. As a period in prehistory, the Neolithic has an arc of its own
that covers developments from the first simple horticulturists and pastoralists to
complex late Neolithic groups living in “towns.” In retrospect, especially compared
to the extreme length of the Paleolithic period, the Neolithic of prehistory lasted
just a moment before civilization in Mesopotamia and Egypt began to usher in
further transformations around 5,000 years ago. But even in its diminished time
frame the Neolithic spread geographically and persisted in particular locales over
thousands of years from roughly 12,000 to 5,000 years ago, when the Neolithic
first gave way to civilization in the Near East. To those experiencing it, Neolithic
life must have proceeded over generations at a leisurely seasonal pace.
Two alternative paths toward food production led out of the Paleolithic: one from
gathering to cereal horticulture (gardening), and then to plow agriculture; the other
from hunting to herding and pastoral nomadism. A distinct geography governed
these Neolithic alternatives: In climates with sufficient atmospheric or surface
water, horticulture and settled villages arose; in grasslands too arid for farming,
nomadic people and herds of animals retained a nomadic way of life. Of these very
different paths, one led historically to nomadic societies such as the Mongols and
the Bedouins. The other, especially in the form that combined farming and
domestication of animals, led to the great agrarian civilizations and eventually to
industrialization. Opportunistic and even systematic hunting and gathering
persisted alongside foodproducing, but where Neolithic settlements arose the basic
economy shifted to raising crops on small cleared plots. Gardening contrasts with
intensified agriculture using irrigation, plows, and draft animals, which later
developed in the first civilizations in the Near East. Early Neolithic peoples did not
use the plow but, where necessary, cleared land using large stone axes and adzes;
they cultivated their plots using hoes or digging sticks. In many areas of the world,
especially tropical and subtropical ones, swidden, or “slash and burn,” agriculture
developed where plots were cultivated for a few years and then abandoned to
replenish themselves before being cultivated again. The Neolithic toolkit continued
to contain small chipped stones, used in sickles, for example, but was augmented
by larger, often polished implements such as axes, grinding stones, and mortars and
pestles found at all Neolithic sites. Animal antlers also proved useful as picks and
digging sticks. And grain had to be collected, threshed, winnowed, stored, and
ground, all of which required an elaborate set of technologies and social practices.
Human populations around the world independently domesticated and began
cultivating a variety of plants: several wheats, barleys, rye, peas, lentils, and flax in
Southwest Asia; millet and sorghum in Africa; millet and soybeans in North China;
rice and beans in Southeast Asia; maize (corn) in Mesoamerica; potatoes, quinoa,
manioc, and beans in South America. Domestication constitutes a process (not an
act) that involves taming, breeding, genetic selection, and occasionally introducing
plants into new ecological settings. In the case of wheat, for example, wild wheat is
brittle, with seeds easily scattered by the wind and animals, a trait that enables the
plant to survive under natural conditions. Domesticated wheat retains its seeds,
which simplifies harvesting but leaves the plant dependent on the farmer for its
propagation. Humans changed the plant’s genes; the plant changed humanity. And,
with humans raising the grain, the rat, the mouse, and the house sparrow
“selfdomesticated” and joined the Neolithic ark.
The domestication of animals developed out of intimate and longstanding human
contact with wild species. Logically, at least, there is a clear succession from
hunting and following herds to corralling, herding, taming, and breeding. The
living example of the Sami (Lapp) people who follow and exploit semiwild
reindeer herds illustrates how the shift from hunting to husbandry and pastoral
nomadism may have occurred. As with plant culture, the domestication of animals
involved human selection from wild types, selective slaughtering, selective
breeding, and what Darwin later called “unconscious selection” from among flocks
and herds. Humans in the Old World domesticated cattle, goats, sheep, pigs,
chickens, and, later, horses. In the New World Andean communities domesticated
only llamas and the guinea pig; peoples in the Americas thus experienced a
comparative deficiency of animal protein in the diet.
Animals are valuable to humans in diverse ways. Some of them convert inedible
plants to meat, and meat contains more complex proteins than plants. Animals
provide food on the hoof, food that keeps from spoiling until needed. Animals
produce valuable secondary products that were increasingly exploited as the
Neolithic unfolded in the Old World. Cattle, sheep, pigs, and the rest are “animal
factories” that produce more cattle, sheep, and pigs. Chickens lay eggs, and cows,
sheep, goats, and horses produce milk. Treated and storable milk products in
yogurts, cheeses, and brewed beverages sustained the great herding societies of
Asia and pastoralists everywhere. Manure became another valuable animal product
as fertilizer and fuel. Animal hides provided raw material for leather and a variety
of products, and sheep, of course, produced fleece. (Wool was first woven into
fabric on Neolithic looms.) Animals provided traction and transportation. The
Neolithic maintained the close dependence on plants and animals that humankind
had developed over the previous 2 million years. But the technologies of exploiting
them and the social system sustained by those technologies had changed radically.
After a few thousand years of the Neolithic in the Near East, mixed economies that
combined the technologies of horticulture and animal husbandry made their
appearance. Late Neolithic groups in the Old World apparently kept animals for
traction and used wheeled carts on roads and pathways that have been favorably
compared to those of medieval Europe. The historical route to intensified
agriculture and to civilization was through this mixed Neolithic farming. If biology
and evolution were partly responsible for the character of our first mode of
existence in the Paleolithic, then the Neolithic Revolution represents a change of
historical direction initiated by humans themselves in response to their changing
environment.
Complementing the many techniques and skills involved in farming and
husbandry, several ancillary technologies arose as part of the shift to the Neolithic.
First among these novelties was textiles, an innovation independently arrived at in
various parts of the Old and New Worlds. Recent findings show that some
Paleolithic groups occasionally practiced techniques of weaving, perhaps in
basketry, but only in the Neolithic did the need for cloth and storage vessels
expand to the point where textile technologies flourished. The production of
textiles involves several interconnected steps and technological practices: shearing
sheep or growing and harvesting flax or cotton, processing the raw material,
spinning thread (an everpresent part of women’s lives until the Industrial
Revolution 10,000 years later), constructing looms, dyeing, and weaving the cloth.
In considering the advent of textile production in the Neolithic, one cannot
overlook design considerations and the symbolic and informational role of dress in
all societies. Then, as now, how people dress conveys a lot of information about
who they are and where they come from.
Pottery, which also originated independently in multiple centers around the world,
is another new technology that formed a key part of the Neolithic Revolution. If
only inadvertently, Paleolithic peoples had produced firedclay ceramics, but
nothing in the Paleolithic economy called for a further development of the
technique. Pottery almost certainly arose in response to the need for a storage
technology: jars or vessels to store and carry the surplus products of the first
agrarian societies. Neolithic communities used plasters and mortars in building
construction, and pottery may have arisen out of plastering techniques applied to
baskets. Eventually, “manufacturing centers” and smallscale transport of ceramics
developed. Pottery is a “pyrotechnology,” for the secret of pottery is that
chemically combined water is driven from the clay when it is fired, turning it into
an artificial stone. Neolithic kilns produced temperatures upwards of 900°C. Later,
in the Bronze and Iron Ages, the Neolithic pyrotechnology of pottery made
metallurgy possible.
In Neolithic settings, hundreds if not thousands of techniques and technologies
large and small melded to produce the new mode of life. Neolithic peoples built
permanent structures in wood, mud brick, and stone, all of which testify to expert
craft skills. They twisted rope and practiced lapidary crafts, and Neolithic peoples
even developed metallurgy of a sort, using naturally occurring raw copper. The
technology of cold metalworking produced useful tools. The now famous “Ice
man,” the extraordinary frozen mummy exposed in 1991 by a retreating glacier in
the Alps, was first thought to belong to a Bronze Age culture because of the fine
copper axe he was carrying when he perished. As it turns out, he lived in Europe
around 3300 bce, evidently a prosperous Neolithic farmer with a superior cold
forged metal tool.
The Neolithic was also a social revolution and produced a radical change in
lifeways. Decentralized and self-sufficient settled villages, consisting of a dozen to
two dozen houses, with several hundred inhabitants became the norm among
Neolithic groups. Compared to the smaller bands of the Paleolithic, village life
supported collections of families united into tribes. The Neolithic house doubtless
became the center of social organization; production took place on a household
basis. The imaginative suggestion has been made that living inside houses forced
Neolithic peoples to deal in new ways with issues concerning public space,
privacy, and hospitality. Neolithic peoples may have used hallucinatory drugs, and
they began to experiment with fermented beverages. Although a sexual division of
labor probably persisted in the Neolithic, horticultural societies, by deemphasizing
hunting, may have embodied greater gender equality. A comparatively sedentary
lifestyle, a diet higher in carbohydrates, and earlier weaning increased fertility,
while freedom from the burden of carrying infants from camp to camp enabled
women to bear and care for more children. And one suspects that the economic
value of children—in tending animals or helping in the garden, for example—was
greater in Neolithic times than in the Paleolithic. At least with regard to Europe,
archaeologists have made compelling claims for the existence of cults devoted to
Neolithic goddesses and goddess worship. There were doubtless shamans, or
medicine “men,” some of whom may also have been women. Neolithic societies
remained patriarchal, but males were not as dominant as they would become with
the advent of civilization.
In the early Neolithic, little or no occupational specialization differentiated
individuals who earned their bread solely through craft expertise. This
circumstance changed by the later Neolithic, as greater food surpluses and
increased exchange led to more complex and wealthier settlements with fulltime
potters, weavers, masons, toolmakers, priests, and chiefs. Social stratification kept
pace with the growth of surplus production. By the late Neolithic, low level
hierarchal societies, tribal chiefdoms, or what anthropologists call “big men”
societies appeared. These societies were based on kinship, ranking, and the power
to accumulate and redistribute goods sometimes in great redistributive feasts.
Leaders now controlled the resources of 5,000 to 20,000 people. They were not yet
kings, however, because they retained relatively little for themselves and because
Neolithic societies were incapable of producing truly huge surpluses.
Compared to the Paleolithic economy and lifestyle, one could argue that the
standard of living actually became depressed in the transition to the Neolithic in
that lowintensity horticulture required more labor, produced a less varied and
nutritious diet, and allowed less leisure than Paleolithic hunting and gathering in its
heyday. But—and this was the primary advantage—Neolithic economies produced
more food and could therefore support more people and larger population densities
(estimated at a hundredfold more per square mile) than Paleolithic foraging.
Populations expanded and the Neolithic economy spread rapidly to fill suitable
niches. By 3000 bce thousands of agrarian villages dotted the Near East, usually
within a day’s walk of one another. Wealthier and more complex social structures
developed, regional crossroads and trading centers arose, and by the late Neolithic
real towns had emerged. The Neolithic town Çatal Hüyük in modern Turkey dates
from 6000 bce, but the classic example is the earlier and especially rich Neolithic
town of Jericho. Neolithic settlements appeared along the Jordon River in the
Middle East by 9000 bce, and by 7350 bce Jericho itself had become a
wellwatered, brickwalled city of 2,000 or more people tending flocks and plots in
the surrounding hinterland. Jericho had a tower nine meters high and ten meters in
diameter, and its celebrated walls were three meters thick, four meters high, and
700 meters in circumference. The walls were necessary because the surplus stored
behind them attracted raiders. The later walled enclosure at Great Zimbabwe (c.
1300 ce) in Africa evidences similar forces at play. Warlike clashes between
Paleolithic peoples had undoubtedly occurred repeatedly over the millennia in
disputes over territory, to capture females, or for cannibalistic or ritual purposes.
But with the Neolithic, for the first time, humans produced surplus food and wealth
worth stealing and hence worth protecting. Paleolithic groups were forced to adapt
to the Neolithic economies burgeoning around them. Thieving was one alternative;
joining in a settled way of life was another. In the long run, Neolithic peoples
marginalized huntergatherers and drove them virtually to extinction. Idealized
memories of the foraging lifestyle left their mark in “Garden of Eden” or “happy
hunting grounds” legends in many societies.
Blessed or cursed with a new economic mode of living, humans gained greater
control over nature and began to make more of an impact on their environments.
The ecological consequences of the Neolithic dictated that the domestic replace the
wild, and where it occurred the Neolithic Revolution proved irreversible—a return
to the Paleolithic was impossible because Paleolithic habitats had been transformed
and the Paleolithic lifestyle was no longer sustainable.
Moonshine
The Neolithic Revolution was a technoeconomic process that occurred without the
aid or input of any independent “science.” In assessing the connection between
technology and science in the Neolithic, pottery provides an example exactly
analogous to making fire in the Paleolithic. Potters made pots simply because pots
were needed and because they acquired the necessary craft knowledge and skills.
Neolithic potters possessed practical knowledge of the behavior of clay and of fire,
and, although they may have had explanations for the phenomena of their crafts,
they toiled without any systematic science of materials or the selfconscious
application of theory to practice or any higher learning to tap for practical
purposes. It would denigrate Neolithic crafts to suppose that they could have
developed only with the aid of higher learning.
Can anything, then, be said of science in the Neolithic? In one area, with regard to
what can be called Neolithic astronomy, we stand on strong ground in speaking
about knowledge in a field of science. Indeed, considerable evidence makes plain
that many, and probably most, Neolithic peoples systematically observed the
heavens, particularly the patterns of motion of the sun and moon and that they
regularly created astronomically aligned monuments that served as seasonal
calendars. In the case of Neolithic astronomy, we are dealing not with the
prehistory of science, but with science in prehistory.
The famous monument of Stonehenge on the Salisbury Plain in southwest England
provides the most dramatic and best understood case in point. Stonehenge, it has
now been determined by radiocarbon dating, was built intermittently in three major
phases by different groups over a 1,600 year period from 3100 bce to 1500 bce, by
which time the Bronze Age finally washed across the Salisbury Plain. The word
“Stonehenge” means “hanging stone,” and transporting, working, and erecting the
huge stones represents a formidable technological achievement on the part of the
Neolithic peoples of prehistoric Britain.
A huge amount of labor went into building Stonehenge—estimates range to 30
million manhours, equivalent to an annual productive labor of 10,000 people. In
order to create a circular ditch and an embankment 350 feet in diameter 3,500
cubic yards of earth were excavated. Outside the sanctuary the first builders of
Stonehenge erected the so-called Heel Stone, estimated to weigh 35 tons.
Eightytwo “bluestones” weighing approximately 5 tons apiece were brought to the
site (mostly over water) from Wales, an incredible 240 kilometers (150 miles)
away. Each of the 30 uprights of the outer stone circle of Stonehenge weighed in
the neighborhood of 25 tons, and the 30 lintels running around the top of the ring
weighed 7 tons apiece. More impressive still, inside the stone circle stood the five
great trilithons or threestone behemoths. The average trilithon upright weighs 30
tons and the largest probably weighs over 50 tons. (By contrast, the stones that
went into building the pyramids in Egypt weighed on the order of 5 tons.) The
great monoliths were transported 40 kilometers (25 miles) overland from
Marlborough Downs, although the suggestion has been made that ancient glaciers
may have been responsible for moving them at least part way to Stonehenge. The
architects of Stonehenge appear to have laid out the monument on a true circle, and
in so doing they may have used some practical geometry and a standard measure,
the so-called megalithic yard.
The labor was probably seasonal, taking place over generations. A stored food
surplus was required to feed workers, and some relatively centralized authority was
needed to collect and distribute food and to supervise construction. Neolithic
farming and ranching communities appeared on the Salisbury Plain by the fourth
millennium bce and evidently reached the required level of productivity. Although
Neolithic farming never attained the levels of intensification later achieved by
civilized societies, Stonehenge and the other megalithic (“large stone”) structures
show that even comparatively low intensity agriculture can produce sufficient
surpluses to account for monumental building.
Recognition that Stonehenge is an astronomical device has been confirmed only in
our day. As literate peoples encountered Stonehenge over the centuries, any
number of wild interpretations emerged as to who built it and why. Geoffrey of
Monmouth in his twelfth century History of the Kings of Britain has Merlin from
King Arthur’s court magically transporting the stones from Wales. Other authors
have postulated that the Romans or the Danes built Stonehenge. A still current
fantasy holds that the Druids built and used Stonehenge as a ceremonial center. (In
fact, the Celtic Iron Age Druids and their culture only appeared a thousand years
after Stonehenge was completed.) Even in the 1950s, when the possibility became
clear that Neolithic peoples from the Salisbury Plain themselves were responsible
for Stonehenge, there was considerable resistance to the idea that “howling
barbarians” might have been capable of building such an impressive monument,
and some supposed that itinerant contractors from the Near East built it. All
scholars now agree that Stonehenge was a major ceremonial center and cult site
built by the people of the Salisbury Plain. Its astronomical uses indicate that it
functioned as a ceremonial center aligned around the motions of the sun and the
moon and it provided the basis for a regional calendar.
The English antiquarian William Stukeley (1687–1765) was the first modern to
write about the solar alignment of Stonehenge in 1740. The sun rises every day at a
different point on the horizon; that point moves back and forth along the horizon
over the course of a year, and each year at midsummer the sun, viewed from the
center of the sanctuary at Stonehenge, rises at its most northern point, which is
precisely where the builders placed the Heel Stone. The monument’s primary
astronomical orientation toward the midsummer sunrise is confirmed annually and
has not been disputed since Stuckeley.
In the 1960s, however, controversy erupted over claims for Stonehenge as a
sophisticated Neolithic astronomical “observatory” and “computer.” The matter
remains disputed today, but wide agreement exists on at least some larger
astronomical significance for Stonehenge, especially with regard to tracking
cyclical movements of the sun and the moon. The monument seems to have been
built to mark the extreme and mean points of seasonal movement of both heavenly
bodies along the horizon as they rise and set. Thus, the monument at Stonehenge
marks not only the sun’s rise at the summer solstice, but the rise of the sun at
winter solstice and at the fall and spring equinoxes. It also indicates the sun’s
settings at these times, and it tracks the more complicated movements of the moon
back and forth along the horizon, marking four different extremes for lunar motion.
The construction of Stonehenge required sustained observations of
the sun and the moon over a period of decades and mastery of horizon astronomy.
The monument embodied such observations, even in its earliest phases. The ruins
testify to detailed knowledge of heavenly movements and to a widespread practice
of “ritual astronomy.” We have no access to what megalithic Europeans thought
they were doing; their “theories” of the sun and the moon, if any, may have been
utterly fantastic, and we would probably label their explanations more religious
than naturalistic or scientific. Still, megalithic monuments embody a scientific
approach in that they reflect understanding of regularities of celestial motions and
they bespeak longterm systematic observations of nature. Paleolithic peoples knew
of the periodic motion of the sun and the moon, of course, but to create a Neolithic
monument like Stonehenge that records these longerterm motions along the
horizon required careful observation and (presumably oral) recordkeeping over
many years, probably over generations. In this way the knowledge accumulated
and embodied in Stonehenge required a degree of organization and systematization
not seen in the historical record to that point. Although religious elders, hereditary
experts, or priestly keepers of knowledge doubtless built and tended Stonehenge, it
probably goes too far to suggest that megalithic monuments provide evidence for a
class of professional astronomers or for astronomical research of the sort that later
appeared in the first civilizations. Stonehenge may better be thought of as a
celestial orrery or clock that kept track of the major motions of the major celestial
bodies and possibly some stars. In addition, Stonehenge certainly functioned as a
seasonal calendar, accurate and reliable down to a day. As a calendar, Stonehenge
kept track of the solar year and, even more, harmonized the annual motion of the
sun with the more complicated periodic motion of the moon. It may even have
been used to predict eclipses. In these telling ways—systematically observing the
heavens, mastering the clocklike movement of the sun and the moon, gaining
intellectual control over the calendar—it is possible and even necessary to speak of
Neolithic “astronomy” at Stonehenge. The further development of astronomy
awaited the advent of writing and cohorts of fulltime experts with the patronage of
centralized bureaucratic governments. But long before those developments,
Neolithic farmers systematically investigated the panorama of the heavens.
On the other side of the globe the remarkable giant statues of Easter Island (also
known as Rapa Nui) provide mute testimony to the same forces at play. Easter
Island is small and very isolated: a 46-square-mile speck of land 1,400 miles west
of South America and 900 miles from the nearest inhabited Pacific island.
Polynesian peoples reached Easter Island by sea sometime after 300 ce and
prospered through cultivating sweet potatoes, harvesting in a subtropical palm
forest, and fishing in an abundant sea. The economy was that of settled Paleolithic
or simple Neolithic societies, but local resources were rich, and even at slow
growth rates over a millennium the founding population inevitably expanded,
reaching 7,000 to 9,000 at the peak of the culture around 1200 to 1500 ce. (Some
experts put the figure at over 20,000.)
Islanders carved and erected more than 250 of their monumental moai statues on
giant ceremonial platforms facing the sea. Notably, the platforms possessed built-in
astronomical orientations. Reminiscent of the works of the peoples of Stonehenge
or the Olmecs of Central America, the average moai stood over 12 feet in height,
weighed nearly 14 tons, and was transported up to six miles overland by gangs of
55 to 70 men; a few mammoth idols rose nearly 30 feet tall and weighed up to 90
tons. Hundreds more statues—some significantly larger still—remain unfinished in
the quarry, where all activity seems to have stopped abruptly. Remote Easter Island
became completely deforested because of the demand for firewood and
construction material for seagoing canoes, without which islanders could not fish
for their staple of porpoise and tuna. By 1500, with the elimination of the palm tree
and the extinction of native bird populations, demographic pressures became
devastatingly acute, and islanders intensified chickenraising and resorted to
cannibalism and eating rats. The population quickly crashed to perhaps onetenth its
former size, the sad remnant “discovered” by Europeans in 1722. Only 100 souls
lived there in 1887. The wealth of the pristine island had provided rich resources
where a human society evolved in a typically Neolithic (or settled Paleolithic)
pattern. But human appetites and the island’s narrow ecological limits doomed the
continuation of the stone-working, heaven-gazing, and wood-burning culture that
evolved there.
In general, through observation of the sun and the moon Neolithic peoples around
the world established markers, usually horizon markers, that monitored the
periodic motion of these bodies across the horizon and sky, tracked the year and
the seasons, and provided information of great value to communities of early
farmers. In some cases the devices they created to reckon the year and predict the
seasons became quite elaborate and costly and were possible only because of the
surplus wealth produced in favored places.
Before Stonehenge and long before the settlement and ruination of Easter Island, in
certain constricted environments growing populations pressed against even
enlarged Neolithic resources, setting the stage in Egypt, Mesopotamia, and
elsewhere for a great technological transformation of the human way of life—the
advent of urban civilization.

