Dictionary Definition
farming adj : relating to rural matters; "an
agrarian (or agricultural) society"; "farming communities" [syn:
agrarian, agricultural, farming(a)]
Noun
1 the practice of cultivating the land or raising
stock [syn: agriculture, husbandry]
2 working the land as an occupation or way of
life; "farming is a strenuous life"; "there's no work on the land
any more" [syn: land]
User Contributed Dictionary
Pronunciation
-
- Rhymes: -ɑː(r)mɪŋ
Noun
- The business of cultivating land, raising stocks etc.
Derived terms
Adjective
- Pertaining to the agricultural business.
- Raising livestock or fish.
Verb
parming- present participle of farm
References
Extensive Definition
Agriculture refers to the production of goods
through the growing of plants, animals and other life forms. The
study of agriculture is known as agricultural
science.
Agriculture encompasses many subjects, including
aquaculture,
agronomy, animal
husbandry, and horticulture. Each of these
subjects can be further partitioned: for example, agronomy includes both sustainable
agriculture and intensive
farming, and animal husbandry includes ranching, herding, and intensive
pig farming. Agricultural products include food (vegetables, fruits, and cereals), fibers (cotton, wool, hemp, silk and flax), fuels (methane from biomass, ethanol, biodiesel), cut flowers, ornamental and
nursery
plants, tropical fish and birds for the pet trade, both legal
and illegal drugs (biopharmaceuticals,
tobacco, marijuana,
opium, cocaine), and other useful
materials such as resins.
Recently, crops have been designed to produce plastic as well as
pharmaceuticals.
The history
of agriculture is a central element of human
history, as agricultural progress has been a crucial factor in
worldwide socio-economic
change. Wealth-building and
militaristic
specializations rarely seen in hunter-gatherer
cultures are commonplace in agricultural and agro-industrial
societies—when farmers became capable of producing food
beyond the needs of their own families, others in the tribe/village/City-state/nation/empire
were freed to devote themselves to projects other than food
acquisition. Jared
Diamond, among others, has argued that the development of
civilization required agriculture.
As of 2006, an estimated 45 percent of the
world's workers are employed in agriculture (from 42% in 1996).
However, the relative significance of farming has dropped steadily
since the beginning of industrialization,
and in 2006 – for the first time in history – the services
sector overtook agriculture as the economic
sector employing the most people worldwide. Despite the fact
that agriculture employs over one-third of the world's population,
agricultural production accounts for less than five percent of the
gross
world product (an aggregate of all gross
domestic products).
Overview
Many governments have subsidized agriculture to
ensure an adequate food supply. These agricultural
subsidies are often linked to the production of certain
commodities such as wheat,
corn, rice, soybeans, and milk. These subsidies, especially
when done by developed
countries have been noted as protectionist,
inefficient, and environmentally damaging. In the past century
agriculture has been characterized by enhanced productivity, the use of
synthetic fertilizers and pesticides,
selective
breeding, mechanization,
water
contamination, and farm
subsidies. Proponents of organic
farming such as Sir
Albert Howard argued in the early 1900s that the overuse of
pesticides and synthetic fertilizers damages the long-term
fertility of the soil. While this feeling lay dormant for decades,
as environmental
awareness has increased recently there has been a movement
towards sustainable
agriculture by some farmers, consumers, and policymakers. In
recent years there has been a backlash against perceived external environmental
effects of mainstream agriculture, particularly regarding water
pollution, resulting in the organic
movement. One of the major forces behind this movement has been
the European
Union, which first certified organic food
in 1991 and began reform of its Common
Agricultural Policy (CAP) in 2005 to phase out commodity-linked
farm subsidies, also known as decoupling.
The growth of organic
farming has renewed research in alternative technologies such
as integrated
pest management and selective
breeding. Recent mainstream technological developments include
genetically
modified food.
As of late 2007, several factors have pushed up
the price of grain used to feed poultry and dairy cows and other
cattle, causing higher prices of wheat (up 58%), soybean (up 32%),
and maize (up 11%) over the year. Food riots have recently taken place in
many countries across the world. An epidemic of stem rust on
wheat caused by race
UG99 is
currently spreading across Africa and into
Asia and is
causing major concern. Approximately 40% of the world's
agricultural land is seriously degraded. In Africa, if current
trends of soil degradation continue, the continent might be able to
feed just 25% of its population by 2025, according to UNU's
Ghana-based Institute for Natural Resources in Africa.
Practices
Agricultural practices lie on a spectrum dependent upon the intensity and technology of the methods. At the one end lies the subsistence farmer who farms a small area with limited inputs and produces only enough food to meet the needs of his or her family. At the other end lies intensive agriculture which includes traditional labor intensive farming (e.g. South-East Asia rice paddies), and modern agriculture which includes industrial agriculture, organic farming and sustainable farming. Industrial agriculture involves large fields and/or numbers of animals, high resource inputs (pesticides, fertilizers, etc.), and a high level of mechanization. These operations achieve economies of scale and require large amounts of capital in the form of land and machinery.The twentieth century saw changes in agricultural
practice, particularly in agricultural
chemistry and in mechanization. Agricultural chemistry includes
the application of chemical fertilizer, chemical insecticides (see
pest
control), and chemical fungicides, analysis of soil
makeup and nutritional needs of farm animals.
Mechanization has increased farm efficiency and
productivity in most regions of the world, due especially to the
tractor and various
"gins" (short for "engine") such as the cotton gin,
semi-automatic balers and
threshers
and, above all, the combine
(see agricultural
machinery). According to the
National Academy of Engineering in the United
States, agricultural mechanization is one of the 20 greatest
engineering achievements of the 20th century. Early in the century,
it took one American farmer to produce food for 2.5 people. By
1999, due to advances in agricultural technology, a single farmer
could feed over 130 people.
Other recent changes in agriculture include
hydroponics,
plant
breeding, hybridization, gene
manipulation, better management of soil nutrients, and improved
weed
control.
Genetic engineering has yielded crops which have capabilities
beyond those of naturally occurring plants, such as higher yields
and disease resistance. Modified seeds germinate faster, and thus
can be grown on an accelerated schedule. Genetic engineering of
plants has proven controversial, particularly in the case of
herbicide-resistant
plants.
It has been suggested that genetic engineers may
some day develop
transgenic plants which would allow for irrigation, drainage, conservation,
sanitary engineering, and maintaining or increasing yields while
requiring fewer fossil fuel derived inputs than conventional crops.
Such developments would be particularly important in areas which
are normally arid and rely upon constant irrigation, and on large
scale farms. These possibilities are questioned by ecologists and
economists concerned with unsustainable GMO practices such as
terminator
seeds, and a January 2008 report shows that GMO practices have
failed to address sustainability issues. While there has been some
research on sustainability using GMO crops, at least one hyped and
promonant multi-year attempt by Monsanto has been
unsuccessful, though during the same period traditional breeding
techniques yielded a more sustainable variety of the same crop.
Additionally, a survey by the bio-tech industry of subsistence
farmers in Africa to discover what GMO research would most benefit
sustainable agriculture only identified non-transgenic issues as
areas needing to be addressed.
The processing, packing and marketing of
agricultural products are closely related activities also
influenced by science. Methods of quick-freezing and dehydration
have increased the markets for many farm products (see food
preservation and meat
packing industry).
Animals, including horses, mules, oxen, camels,
llamas, alpacas, and dogs, are often used to help cultivate
fields,
harvest crops,
wrangle
other animals, and transport farm products to buyers. Animal
husbandry not only refers to the breeding and raising of
animals for meat or to harvest animal products (like milk, eggs, or
wool) on a continual basis, but also to the breeding and care of
species for work and companionship.
Airplanes, helicopters, trucks, tractors, and
combines are used in Western (and, increasingly, Eastern)
agriculture for seeding, spraying operations for insect and disease
control, harvesting, aerial
topdressing and transporting perishable products. Radio and
television disseminate vital weather reports and other information
such as market reports that concern farmers. Computers have become
an essential tool for farm management.
In recent years, some aspects of intensive
industrial
agriculture have been the subject of increasing debate. The
widening sphere
of influence held by large seed and chemical companies, meat
packers and food processors has been a source of concern both
within the farming community and for the general public. Another
issue is the type of feed given to some animals that can cause
bovine spongiform encephalopathy in cattle. There has also been
concern over the effect of intensive agriculture on the
environment.
The patent protection given to companies that
develop new types of seed using genetic
engineering has allowed seed to be licensed to farmers in much
the same way that computer software is licensed to users. This has
changed the balance of power in favor of the seed companies,
allowing them to dictate terms and conditions previously unheard
of. The Indian activist and
scientist Vandana
Shiva argues that these companies are guilty of biopiracy.
Soil conservation
and nutrient
management have been important concerns since the 1950s, with
the most advanced farmers taking a stewardship role with the
land they use. However, increasing contamination of waterways and
wetlands by nutrients like nitrogen and phosphorus are concerns that
can only be addressed by "enlightenment" of farmers and/or far
stricter law
enforcement in many countries.
Increasing consumer awareness of agricultural
issues has led to the rise of
community-supported agriculture, local
food movement, "Slow Food", and
commercial organic
farming.
Etymology
The word agriculture is the English adaptation of Latin agricultūra, from ager, "a field", and cultūra, "cultivation" in the strict sense of "tillage of the soil". Thus, a literal reading of the word yields "tillage of a field / of fields".History
Agriculture was developed at least 10,000 years
ago, and it has undergone significant developments since the time
of the earliest cultivation. Evidence points to the Fertile
Crescent of the Middle East
as the site of the earliest planned sowing and harvesting of plants
that had previously been gathered in the wild. Independent
development of agriculture occurred in northern and southern
China,
Africa's Sahel, New Guinea and
several regions of the Americas.
Agricultural practices such as irrigation, crop
rotation, fertilizers, and pesticides were developed
long ago but have made great strides in the past century. The
Haber-Bosch
method for synthesizing ammonium
nitrate represented a major breakthrough and allowed crop yields
to overcome previous constraints. In the past century agriculture
has been characterized by enhanced productivity, the substitution
of labor for synthetic fertilizers and pesticides, selective
breeding, mechanization,
water
pollution, and farm
subsidies. In recent years there has been a backlash against
the external
environmental effects of conventional agriculture, resulting in the
organic
movement.
Ancient origins
see Neolithic RevolutionDeveloped independently by geographically distant
populations, systematic agriculture first appeared in Southwest
Asia in the Fertile
Crescent, particularly in modern-day Iraq and Syria/Israel. Around 9500
BCE, proto-farmers began to select and cultivate food plants with
desired characteristics. Though there is evidence of earlier
sporadic use of wild cereals, it was not until after 9500 BCE that
the eight so-called founder
crops of agriculture appear: first emmer and
einkorn
wheat, then hulled barley, peas, lentils, bitter
vetch, chick peas and
flax.
By 7000 BCE, small-scale agriculture reached
Egypt. From
at least 7000 BCE the Indian
subcontinent saw farming of wheat and barley, as attested by
archaeological excavation at Mehrgarh in
Balochistan.
By 6000 BCE, mid-scale farming was entrenched on the banks of the
Nile.
About this time, agriculture was developed independently in the Far
East, with rice, rather
than wheat, as the primary crop. Chinese and Indonesian
farmers went on to domesticate mung, soy, azuki and
taro. To complement these
new sources of carbohydrates, highly
organized net fishing of
rivers, lakes and ocean shores in these areas brought in great
volumes of essential protein. Collectively, these new
methods of farming and fishing inaugurated a human population boom
dwarfing all previous expansions, and is one that continues
today.
By 5000 BCE, the Sumerians had
developed core agricultural techniques including large scale
intensive cultivation of land, mono-cropping,
organized irrigation,
and use of a specialized labour
force, particularly along the waterway now known as the Shatt
al-Arab, from its Persian Gulf
delta to the confluence of the Tigris and Euphrates.
Domestication of wild aurochs and mouflon into cattle and sheep, respectively, ushered in
the large-scale use of animals for food/fiber and as beasts of
burden. The shepherd
joined the farmer as an essential provider for sedentary and semi-nomadic societies.
Maize, manioc, and arrowroot were first
domesticated in the Americas as far back as 5200 BCE. http://www.ucalgary.ca/news/feb2007/early-farming/
The potato, tomato, pepper, squash,
several varieties of bean, Canna,
tobacco and several
other plants were also developed in the New World, as was extensive
terracing
of steep hillsides in much of Andean South
America.
In later years, the
Greeks and Romans
built on techniques pioneered by the Sumerians but made few
fundamentally new advances. Southern Greeks struggled with very
poor soils, yet managed to become a dominant society for years. The
Romans were noted for an emphasis on the cultivation of crops for
trade.
Middle Ages
During the Middle Ages, Muslim farmers in North
Africa and the Near East developed and disseminated agricultural
technologies including irrigation systems based on hydraulic and hydrostatic principles, the
use of machines such as norias, and
the use of water raising machines, dams, and reservoirs. They also
wrote location-specific farming manuals, and were instrumental in
the wider adoption of crops including sugar cane, rice, citrus
fruit, apricots, cotton, artichokes, aubergines, and saffron.
Muslims also brought lemons, oranges, cotton, almonds, figs and
sub-tropical crops such as bananas to Spain.
The invention of a three
field system of crop rotation during the Middle Ages,
and the importation of the Chinese-invented moldboard
plow, vastly improved agricultural efficiency.
Modern era
Livestock
The farming practices of livestock vary dramatically world-wide and between different types of animals. Livestock are generally kept in an enclosure, are fed by human-provided food and are intentionally bred, but some livestock are not enclosed, or are fed by access to natural foods, or are allowed to breed freely, or all three. Approximately 68% of all agricultural land is used in the production of livestock as permanent pastures.Environmental impact
- Surplus of nitrogen and phosphorus in rivers and lakes
- Detrimental effects of herbicides, fungicides, insecticides, and other biocides
- Conversion of natural ecosystems of all types into arable land
- Consolidation of diverse biomass into a few species
- Soil erosion
- Deforestation
- Depletion of minerals in the soil
- Particulate matter, including ammonia and ammonium off-gassing from animal waste contributing to air pollution
- Air pollution from farm equipment powered by fossil fuels
- Weed science - feral plants and animals
- Odor from agricultural waste
- Soil salination
- Water crisis
According to the United Nations, the livestock
sector (primarily cows, chickens, and pigs) emerges as one of the
top two or three most significant contributors to our most serious
environmental problems, at every scale from local to global.
Livestock production occupies 70% of all land used for agriculture,
or 30% of the land surface of the planet.It is one of the largest
sources of greenhouse gases—responsible for 18% of the world’s
greenhouse gas emissions as measured in CO2 equivalents. By
comparison, all transportation emits 13.5% of the CO2. It produces
65% of human-related nitrous oxide (which has 296 times the global
warming potential of CO2) and 37% of all human-induced methane
(which is 23 times as warming as CO2). It also generates 64% of the
ammonia, which contributes to acid rain and acidification of
ecosystems.
Biodiversity
Genetic
erosion in crops and
livestock biodiversity
is propelled by several major factors such as variety replacement,
land clearing, overexploitation of species, population pressure,
environmental degradation, overgrazing, policy and
changing agricultural systems.
The main factor, however, is the replacement of
local varieties of domestic plants and animals by high yielding or
exotic varieties or species. A large number of varieties can also
often be dramatically reduced when commercial varieties (including
GMOs) are introduced into traditional farming systems. Many
researchers believe that the main problem related to agro-ecosystem
management is the general tendency towards genetic and ecological
uniformity imposed by the development of modern agriculture.
In agriculture and animal
husbandry, the green
revolution popularized the use of conventional hybridization
to increase yield many folds by creating "high-yielding
varieties". Often the handful of breeds of plants and animals
hybridized originated in developed countries and were further
hybridized with local varieties in the rest of the developing world
to create high yield strains resistant to local climate and
diseases. Hybridization of local breeds to improve performance may
lead to the loss of the local breed over time and consequently the
loss of the genetic material that adapted that breed specifically
to the local conditions. When viewed across the world as a whole,
the consequent loss in genetic diversity and biodiversity could be
placing the food supply in jeopardy, as a highly specialized breed
may not contain sufficient genetic material to adapt to new
diseases or environments even with an intensive breeding
program.
A
Genetically Modified Organism (GMO) is an organism whose genetic material has been altered
using the genetic
engineering techniques generally known as recombinant
DNA technology. Genetic Engineering today has become another
serious and alarming cause of genetic pollution because
artificially created and genetically engineered plants and animals
in laboratories, which could never have evolved in nature even with
conventional hybridization, can live and breed on their own and
what is even more alarming interbreed with naturally evolved wild
varieties. Genetically Modified (GM) crops today have become a
common source for genetic pollution, not only of wild varieties but
also of other domesticated varieties derived from relatively
natural hybridization.
Policy
Agricultural policy focuses on the goals and methods of agricultural production. At the policy level, common goals of agriculture include:- Food safety: Ensuring that the food supply is free of contamination.
- Food security: Ensuring that the food supply meets the population's needs.
- Food quality: Ensuring that the food supply is of a consistent and known quality.
- Poverty Reduction
- Conservation
- Environmental impact
- Economic stability
Agriculture and petroleum
Since the 1940s, agriculture has dramatically increased its productivity, due largely to the use of petrochemical derived pesticides, fertilizers, and increased mechanization. This has allowed world population to grow more than double over the last 50 years. Every energy unit delivered in food grown using modern techniques requires over ten energy units to produce and deliver. The vast majority of this energy input comes from fossil fuel sources. Because of modern agriculture's current heavy reliance on petrochemicals and mechanization, there are warnings that the ever decreasing supply of oil (the dramatic nature of which is known as peak oil) will inflict major damage on the modern industrial agriculture system, and could cause large food shortages. Oil shortages are one of several factors making organic agriculture and other sustainable farming methods necessary. This conversion is now occurring, but the reconditioning of soil to restore nutrients lost during the use of monoculture agriculture techniques made possible by petroleum-based technology will take time. Some farmers using modern organic-farming methods have reported yields as high as those available from conventional farming (but without the use of fossil-fuel-intensive artificial fertilizers or pesticides). Farmers have also begun raising crops such as corn for non-food use in an effort to help mitigate peak oil. This has contributed to a 60% rise in wheat prices recently, and has been indicated as a possible precursor to "serious social unrest in developing countries."Agriculture safety and health
United StatesAgriculture ranks among the most hazardous
industries. Farmers are at high risk for fatal and nonfatal
injuries, work-related lung diseases, noise-induced hearing loss,
skin diseases, and certain cancers associated with chemical use and
prolonged sun exposure. Farming is one of the few industries in
which the families (who often share the work and live on the
premises) are also at risk for injuries, illness, and death.
- In an average year, 516 workers die doing farm work in the U.S. (1992-2005). Of these deaths, 101 are caused by tractor overturns.
- Every day, about 243 agricultural workers suffer lost-work-time injuries, and about 5% of these result in permanent impairment.
Young Workers
Agriculture is the most dangerous industry for
young workers, accounting for 42% of all work-related fatalities of
young workers in the U.S. between 1992 and 2000. Unlike other
industries, half the young victims in agriculture were under age
15.
For young agricultural workers aged 15–17, the
risk of fatal injury is four times the risk for young workers in
other workplaces Agricultural work exposes young workers to safety
hazards such as machinery, confined spaces, work at elevations, and
work around livestock.
- An estimated 1.26 million children and adolescents under 20 years of age resided on farms in 2004, with about 699,000 of these youth performing work on the farms. In addition to the youth who live on farms, an additional 337,000 children and adolescents were hired to work on U.S. farms in 2004.
- On average, 103 children are killed annually on farms (1990-1996). Approximately 40 percent of these deaths were work-related.
- In 2004, an estimated 27,600 children and adolescents were injured on farms; 8,100 of these injuries were due to farm work.
Additional Information
See also
- Main lists: List of basic agriculture topics and List of agriculture topics
- Aeroponics
- Agricultural Engineering
- Agrocenter
- Agricultural effects of peak oil
- Apiculture
- Climate change and agriculture
- Dismal Science - highlighting that only continuous advancement in agricultural science avoids a Malthusian catastrophy
- Geoponic
- Green Revolution
- Horticulture
- Hydroponic
- Industrial agriculture
- Integrated Pest Management (IPM)
- List of countries by GDP sector composition - a breakdown that includes Agricultural sector information
- List of domesticated animals
- List of subsistence techniques
- List of sustainable agriculture topics
- Organic farming
- Permaculture
- Timeline of agriculture and food technology.
- Vertical farming
Notes
References
- Bolens, L. (1997), `Agriculture’ in Encyclopedia of the history of Science, technology, and Medicine in Non Western Cultures, Editor: Helaine Selin; Kluwer Academic Publishers. Dordrecht/Boston/London, pp 20-2
- Collinson, M. (editor): A History of Farming Systems Research. CABI Publishing, 2000. ISBN 0-85199-405-9
- Crosby, Alfred W.: The Columbian Exchange : Biological and Cultural Consequences of 1492. Praeger Publishers, 2003 (30th Anniversary Edition). ISBN 0-275-98073-1
- Davis, Donald R., and Hugh D. Riordan (2004) Changes in USDA Food Composition Data for 43 Garden Crops, 1950 to 1999. Journal of the American College of Nutrition, Vol. 23, No. 6, 669-682.
- Friedland, William H. and Amy Barton (1975) Destalking the Wily Tomato: A Case Study of Social Consequences in California Agricultural Research. Univ. California at Sta. Cruz, Research Monograph 15.
- Saltini A.Storia delle scienze agrarie, 4 vols, Bologna 1984-89, ISBN 88-206-2412-5, ISBN 88-206-2413-3, ISBN 88-206-2414-1, ISBN 88-206-2414-X
- Watson, A.M (1974), ‘The Arab agricultural revolution and its diffusion’, in The Journal of Economic History, 34,
- Watson, A.M (1983), ‘ Agricultural Innovation in the Early Islamic World’, Cambridge University Press
- Wells, Spencer: The Journey of Man : A Genetic Odyssey. Princeton University Press, 2003. ISBN 0-691-11532-X
- Wickens, G.M.(1976), ‘What the West borrowed from the Middle East’, in Introduction to Islamic Civilization, edited by R.M. Savory, Cambridge University Press, Cambridge
External links
- UKAgriculture.com - Advance the education of the public in all aspects of agriculture, the countryside and the rural economy
- National Institute for Occupational Safety and Health - Agriculture Page
- Research on the role of Agriculture in Poverty Reduction from the Overseas Development Institute
- Directorate-General Agriculture and Rural Development - European Commission
- Tillage and Farming events in the UK
farming in Afrikaans: Landbou
farming in Amharic: የርሻ ተግባር
farming in Arabic: زراعة
farming in Aragonese: Agricultura
farming in Aromanian: Ayriculturã
farming in Asturian: Agricultura
farming in Bambara: Sɛnɛkɛ
farming in Min Nan: Choh-sit
farming in Belarusian: Сельская гаспадарка
farming in Belarusian (Tarashkevitsa): Сельская
гаспадарка
farming in Bosnian: Poljoprivreda
farming in Breton: Gounezerezh
farming in Bulgarian: Земеделие
farming in Catalan: Agricultura
farming in Chuvash: Ял хуçалăхĕ
farming in Cebuano: Agrikultura
farming in Czech: Zemědělství
farming in Welsh: Amaeth
farming in Danish: Landbrug
farming in German: Landwirtschaft
farming in Estonian: Põllumajandus
farming in Spanish: Agricultura
farming in Esperanto: Agrikulturo
farming in Basque: Nekazaritza
farming in Persian: کشاورزی
farming in French: Agriculture
farming in Western Frisian: Lânbou
farming in Friulian: Agriculture
farming in Irish: Talmhaíocht
farming in Scottish Gaelic: Àiteachas
farming in Galician: Agricultura
farming in Classical Chinese: 農
farming in Hakka Chinese: Nùng-ngia̍p
farming in Korean: 농업
farming in Hindi: कृषि
farming in Croatian: Poljoprivreda
farming in Ido: Agrokultivo
farming in Indonesian: Pertanian
farming in Interlingua (International Auxiliary
Language Association): Agricultura
farming in Inuktitut: ᐱᕈᕐᓰᓂᖅ
ᓂᐅᕐᕈᑎᒃᓴᓕᐊᕆᓪᓗᒋᑦ/pirursiiniq niurrutiksaliarillugit
farming in Icelandic: Landbúnaður
farming in Italian: Agricoltura
farming in Hebrew: חקלאות
farming in Georgian: სოფლის მეურნეობა
farming in Haitian: Agrikilti
farming in Ladino: Agrikultura
farming in Latin: Agricultura
farming in Lithuanian: Žemės ūkis
farming in Limburgan: Landboew
farming in Lojban: cagyske
farming in Hungarian: Mezőgazdaság
farming in Macedonian: Земјоделство
farming in Mazanderani: کشاورزی
farming in Mongolian: Хөдөө аж
ахуй
nah:Mīllahcayōtl
farming in Dutch: Landbouw
farming in Dutch Low Saxon: Laandbouw
farming in Japanese: 農業
farming in Norwegian: Landbruk
farming in Norwegian Nynorsk: Landbruk
farming in Narom: Agritchultuthe
farming in Novial: Agrikulture
farming in Occitan (post 1500):
Agricultura
farming in Pushto: کرهنه
farming in Low German: Bueree
farming in Polish: Rolnictwo
farming in Portuguese: Agricultura
farming in Romanian: Agricultură
farming in Quechua: Allpa llamk'ay
farming in Russian: Сельское хозяйство
farming in Albanian: Agrikultura
farming in Sicilian: Agricultura
farming in Simple English: Farming
farming in Silesian: Rolńictwo
farming in Slovenian: Kmetijstvo
farming in Somali: Beeraha
farming in Serbian: Пољопривреда
farming in Serbo-Croatian: Poljoprivreda
farming in Sundanese: Agrikultur
farming in Finnish: Maatalous
farming in Swedish: Jordbruk
farming in Tagalog: Agrikultura
farming in Tamil: வேளாண்மை
farming in Telugu: వ్యవసాయం
farming in Thai: เกษตรกรรม
farming in Vietnamese: Nông nghiệp
farming in Cherokee: ᏗᎦᎶᎪᏗ
farming in Turkish: Tarım
farming in Ukrainian: Сільське
господарство
farming in Venetian: Agricoltura
farming in Võro: Põllumajandus
farming in Walloon: Agricoûteure
farming in Waray (Philippines):
Agrikultura
farming in Yiddish: לאנדווירטשאפט
farming in Samogitian: Žemies ūkės
farming in Chinese: 农业
Synonyms, Antonyms and Related Words
agrarian, agrarianism, agricultural, agricultural
geology, agriculture, agrology, agronomic, agronomics, agronomy, arable, contour farming, cultivation, culture, dirt farming, dry
farming, dryland farming, farm, farm economy, fruit farming,
geoponic, geoponics, grain farming,
husbandry, hydroponics, intensive
farming, mixed farming, rural, rural economy, sharecropping, strip
farming, subsistence farming, tank farming, thremmatology, tillage, tilth, truck farming