Climate-Smart
Agriculture
A Callto Action

Climate-smart agricultureseeks to increase sustainable productivity,
strengthen farmers’ resilience, reduce agriculture’s
greenhouse gas emissions and increase carbon
sequestration. It strengthens food security anddelivers environmental benefits. Climate-smart
agriculture includes proven practical techniques— such as mulching, intercropping, conservation
agriculture, crop rotation, integrated crop-livestock
management, agroforestry, improved grazing, andimproved water management —­ and innovative
practices such as better weather forecasting, more
resilient food crops and risk insurance.

BForeword
Feeding people in decades to come will require ingenuity andinnovation to produce more food on less land in more sustainable
ways. Climate change will exacerbate already tight resource
constraints by making weather more extreme and variable and by
decreasing average yields worldwide. Population growth, changing
diets and land and water scarcity are also long-term trends thatthreaten our shared vision of a more prosperous future in which
well-fed people everywhere are able to achieve their full potential
without damaging their environment. Already, these pressures areforcing farmers and researchers to reassess mainstream farming
techniques and consider alternative approaches to securing food,including conservation agriculture, integrated crop-livestock
management, intercropping and agroforestry.
The good news is that there is no shortage of women and men
ready to take the last century’s agricultural advances into a new eraof opportunity. Collectively, we can tap into well-proven production
practices, information technology and scientific findings, to rapidly
scale up policies and practices that achieve the triple win of foodsecurity, adaptation and mitigation. That goal is within reach if
we build on our successes and create the right incentives for sitespecific sustainable land management practices around the world.

“To feed the continent’s
900 million people,
Africa needs its own
food security. This canonly be achieved througha uniquely African
Green Revolution. It
must be a revolutionthat recognizes that
smallholder farmers are
the key to increasing
production, promotes
change across the entire
agricultural system, andputs fairness and theenvironment at its heart”
Kofi A. Annan, Chair of theBoard of the Alliance for a
Green Revolution in Africa(AGRA, 2010)

Left: A girl stands among the sorghum crops protectedby trees in Niger. Photo: Petterik Wiggers/Panos.

1The Global Challenge
Close to 1 billion people went hungry in2010 according to the Food and Agriculture
Organization (FAO) of the United Nations. In 2011,
hunger plagued the Horn of Africa, hit by theworst drought in 60 years. The future is daunting
too: food needs are projected to increase by 70
percent by 2050 when the global population
reaches 9 billion, while climate change is projected
to reduce global average yields.
Climate change will affect agriculture through higher
temperatures, greater crop water demand, morevariable rainfall and extreme climate events suchas heat waves, floods and droughts. Marginal areas,
where low yields and poverty go hand in hand, may
become even less-suited for agriculture as a resultof land degradation through deforestation, wind
and water erosion, repetitive tillage and overgrazing.
Many impact studies point to severe crop yield
reductions in the next decades without strong
adaptation measures — particularly in Sub-SaharanAfrica and South Asia, where rural households
are highly dependent on agriculture and farming
systems are highly sensitive to temperature increases
and volatile climate. One assessment, based ona pessimistic assumption about global warming,
estimates that by the 2080s world agricultural
productivity will decline by 3-16 percent. The loss inAfrica could be 17-28 percent (Cline 2007).

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While agriculture is the sector most vulnerable toclimate change, it is also a major cause, directly
accounting for about 14 percent of greenhousegas emissions, or approximately 30 percent
when considering land-use change, including
deforestation driven by agricultural expansion
for food, fiber and fuel (IPCC 2007). And yet,agriculture can be a part of the solution: helping
people to feed themselves and adapt to changing
conditions while mitigating climate change.

The Challenge in Africa
Climate projections for Africa (IPCC 2007) include
a likely average temperature increase of 1.5 to 4°
C in this century, higher than the global average.
Assuming even moderate temperature rises,
warming and drying could reduce crop yields by 10–
20 percent by 2050 in Africa (Jones and Thornton,2009). This overall projection translates into much
more severe losses in certain places and does notaccount for extreme events: pests and diseases;
droughts, heat stress and floods.
In Sub-Saharan Africa, 250 million people went
hungry in 2010 – almost a third of the population.
Hunger is particularly prevalent in arid and semi-arid
lands, where soil quality has been decreasing forseveral decades. Chronically poor crop performanceand a high risk of crop failure in thesesystems, combined with low levelsof rural development, have acted
to dissuade farmers from investingin soil fertility improvements. From1945 to 1990, soil nutrient removals(without replenishment with fertilizers
or manure) and other forms of soil
degradation reduced agricultural
productivity in Africa by an estimated
25 percent (UNEP 1990).
Increasing organic matter in soils
in cropping systems will be criticalto retain water, increase yields andreduce risks in rainfed agriculture
while sequestering carbon. The
Global Partnership on Forest
Landscape Restoration estimatesthat over 400 million hectares ofdegraded forest landscapes in Africa
offer opportunities for restoring
or enhancing the functionality of“mosaic” landscapes that mix forest,
agriculture and other land uses. A
range of well-established restoration
options can improve human
livelihoods, repair ecosystems andincrease the resilience of both people
and landscapes to climate change.

Greenhouse Gas Emissions by Sector
26% Energy Supply
13% Transport
8% Residential andCommercial Buildings
19% Industry
3% Waste and Wastewater
17% Forestry / Land-Use Change
14% Agriculture

Emissions in the Agriculture Sector
38% N20 from
Soil Management
32% CH4 fromEnteric Fermentation
12% Biomass Burning
11% Rice Production
7%

Manure Management

Source: IPCC 2007; Smith et al. 2007.

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How Climate-Smart
Agriculture Can Help
In countries where the economy is heavily based on
agriculture, development of the agricultural sector
is the most efficient poverty reduction measure.
Yet agricultural expansion for food productionand economic development which comes at theexpense of soil, water, biodiversity or forests,
conflicts with other global and national goals.
For example, forest loss undermines efforts to
reduce emissions from deforestation and forest
degradation and has negative repercussions on
livelihoods and sustainable agriculture becauseof the many ways in which trees produce goods(fruits, energy, fodder, timber), mitigate poverty
in times of stress, and provide vital ecosystemservices (whether by regulating water, housing
pollinating bats and bees, or maintaining soil fertility
and erosion control). The loss of tree cover also
increases people’s exposure to violent weather,
depletes biodiversity and alters micro climates.

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To avoid solving a problem while exacerbating
another, policy leaders should take an integrated
approach to food security, poverty and climatechange.
These approaches include:• Integrated planning of land, agriculture, forests,
fisheries and water at local, watershed and regional
scales, to ensure synergies are properly captured.
• Promoting activities that increase carbon storage,
combine animal husbandry and trees with foodproduction, and are geared towards improving soil
fertility.
• Reducing a variety of emissions from agriculture
such as nitrous oxygen from fertilizer application,
livestock emissions and methane from ricecultivation.
• Exploring carbon finance as a “lever” to promotesustainable agricultural practices that have manyother direct benefits for smallholder farmers andthe environment.

• Diversifying income sourcesand genetic traits of crops tohelp farmers hedge against an
uncertain climate.
• Developing sound risk insurance
and risk management strategies
as well as resilience building
strategies including safety nets
that reach the poorest farmers.
• Adaptive management that
disseminates timely climate
information to farmers andmonitors the local outcomesof different actions, builds on
the traditional knowledge of
farmers, and tailors techniques
to shifting climatic conditions
without harming ecosystems.

Right: Woman with a seedling, part ofan NGO-funded reforestation project inMalawi. Photo: Mikkel Ostergaard/Panos.

Sustainable
intensification seeks
to increase yield perunit of land to meet
today’s needs without
exceeding current
resources or reducing
the resources needed
for the future.
Carbon sequestrationis the process by whichatmospheric carbon
dioxide is taken up
by plants throughphotosynthesis andstored as carbon inbiomass and soils.

5Climate-Smart
Agriculture in Action
Country Examples

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Agricultural Carbon for
Smallholder Farmers in Kenya
Agriculture contributes more than 27 percent
to Kenya’s GDP. Yet the sector is affected bywidespread land degradation, due in part to rising
population density and continuous cultivation,and is threatened by recurrent droughts andfloods. The Government is seeking to increase
agricultural productivity and encourage private
sector investment in agricultural enterprises.
The Kenya Agriculture Carbon Project builds on
this approach but adds a carbon component.
Carbon sequestration activities include reduced
tillage, cover crops, residue management,
mulching, composting, green manure, targeted
application of fertilizers, reduced biomass burningand agroforestry. The project seeks to provide
technical support to about 60,000 farmers
aggregated in farmer groups, managing a totalof 45,000 hectares in the Nyanza and Western

provinces in Kenya. It is implemented by the
Swedish Cooperative Center, ViAgroforestry, an
NGO well-known in the Lake Victoria Basin forparticipatory approaches leading to increased
farm productivity and sustainable managementof natural resources. The project uses a simple
activity-based carbon-accounting methodologythat could become a model for similar soil carbon
projects elsewhere in Africa once it is approved.
Improved agricultural practices have the potential
to sequester about 60,000 tons of CO2-equivalents
per year, while simultaneously increasing crop
yields, diversifying income sources and reducing
the vulnerability of small farmers to climatechange. The BioCarbon Fund, a public-private
initiative administered by the World Bank, hasagreed to purchase carbon credits generated bythis project.

Left: Terraced watersheds at Loess Plateau in
China are a successful example of climatesmart agriculture. Photo: Erick Fernandes/
The World Bank.

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Improving Hillside Productivity in Rwanda

Rwanda’s Land Husbandry, Water Harvesting and
Hillside Irrigation Project seeks to better manage
rainfall so that it causes less hillside erosion,
through terracing, improving the soil undercultivation, managing water runoff and in somecases developing irrigation systems. It also seeks toempower farmers by helping them develop farmergroups (rare in Rwanda) and gain access to credit.
In the Karongi district, where the project was firstpiloted and local farmers were employed to build
terraces, farmers reported an increase in yields andincome: more than 65 percent of the first potato
harvest was sold in the market (after satisfying
people’s own food needs) whereas only 10 percent
used to be sold in the past. Erosion control means

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fertilizer and crops are less likely to be washeddownhill. The incorporation of fodder trees also
raises the possibility of adding livestock to thefarmers’ activities — although buying cows is stilla challenge for many. This project received a $50
million commitment from the Global Agriculture
and Food Security Program (GAFSP) in June 2010
to scale up and replicate achievements in otherregions together with a range of development
partners. The Government’s vision is to scale up
the program to over 100 watersheds countrywide.
Such practices will create a more resilient
rural economy that is better able to withstandpopulation and climatic pressures.

Natural Regeneration of Agroforestry
Systems in Niger
In Niger, a Sahelian country with highly variable
rainfall, 84 percent of the population depends
on land-based activities for survival and half the
population suffers periodically from food insecurity(witness the famine associated with the 20092010 drought). Given the key role of agriculture
and the impact of climate on development andhuman welfare, the Government is actively seeking
to intensify agriculture on the most productive
lands, and improve land and water management
to address soil fertility, erosion and run-off issues.
Niger is also home to a tree expansion programthat has spread organically from village to village
and farmer to farmer and resulted in a majortransformation of landscapes, especially in the
Maradi and Zinder regions. Rules regulating theuse of trees on farms were revised in 1993, giving

farmers a freer hand and stronger incentive togrow trees. After more than two decades, theresults have been phenomenal, with over 5 million
hectares of rejuvenated “parklands,” an indigenous
agroforestry system, benefitting 4.5 million people.
The practice mainly involved the selection andprotection of tree species that were regenerating
naturally from seed or roots in the soil. A range of
species, including the signature species Faidherbia
albida, now provide improved soil fertility,
fodder, wood and fuel, and a variety of fruits andfoods, thereby diversifying farmers’ incomes andproviding alternatives to famine in case of drought.
Benefits associated with increased tree cover haveincreased sorghum yields by 20-85 percent andmillet yields by 15-50 percent in participating areas.

9Greening Ethiopia

The over-exploitation of forest resources in Ethiopia
has left less than 3 percent of the country’s native
forests untouched. In Humbo, a small town nestledagainst the rocky slopes of Ethiopia’s Great Rift
Valley, deforestation threatens groundwater
reserves that provide 65,000 people with potablewater, and has caused severe erosion resulting infloods and in some cases deadly mudslides. Climatechange is likely to compound Humbo’s vulnerability
to natural disasters and consequent poverty. Witha population that depends heavily on agriculture
for its livelihoods, increasing droughts and floods
will create poverty traps for many households,
thwarting efforts to build up assets and invest in abetter future. Under the Humbo Assisted Natural
Regeneration Project, developed by World Visionand the World Bank, seven forest cooperatives were
established on the Humbo Mountain to sustainably
manage and reforest the surrounding land. Morethan 90 percent of the Humbo project area has

been reforested using the Farmer-Managed Natural
Forest Regeneration technique, which encourages
new growth from tree stumps previously felled but
still living. The regeneration project has resulted inincreased production of wood and tree products,
such as honey and fruit, which contribute tohousehold budgets. Improved land management
has also stimulated grass growth, providing
fodder for livestock that can be cut and sold as
an additional source of income. Furthermore, theregeneration of the native forest is expected toprovide an important habitat for many local species
and reduce soil erosion and flooding. The protectedareas of forest now act as a ‘carbon sink,’ absorbing
and storing greenhouse gases from the atmosphereto help mitigate climate change. The project isthe first large-scale forestry project in Africa tobe registered with the United Nations Framework
Convention on Climate Change (UNFCCC).

Right: Farmland north of Lalibela in Ethiopia.
Photo: Sven Torfinn/Panos.

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Linking Weather Risk Managementwith Social Protection in Ethiopia
Extreme weather and natural disasters suchas drought and floods can have a devastating
impact on food security as well as the social andeconomic development of poor rural households.
Climate change threatens to increase both thefrequency and the intensity of these events. By
combining different risk management approaches,
including early warning, weather index insurance,
contingency planning, contingent financing,and social protection, it is possible to shift frommanaging disasters to managing risks in a morecost-effective manner.
Ethiopia has been able to improve the financial
sustainability and effectiveness of its Productive
Safety Net Program (PSNP) by taking into
account weather risk. The program’s coretarget group are the poorest people who faceongoing food insecurity whatever the weather.
However the ranks of hungry people needing
emergency assistance can swell by some 5 million
people when a drought occurs in Ethiopia. The

12Government of Ethiopia with support from theWorld Food Programme and the World Bank hasdeveloped a program called LEAP (Livelihoods Early Assessment - Protection) which combines
early assessment, early warning, contingency
planning and capacity building with contingent
finance and a software platform that provides
an estimate of the funding needs in the eventof a weather shock. The software uses groundand satellite rainfall data to calculate weatherbased indices for the whole of Ethiopia (evenwhere there are no weather stations). The agrometeorological information is integrated withlivelihoods and vulnerability data at local andregional levels. These indices are used to trigger
contingent finance to scale up the PSNP, enablingearlier responses that protect livelihoods andreduce the need for more costly emergency
assistance. LEAP is currently being refined tointegrate a flood index and a climate change andseasonal forecast component.

Conservation Farming in Zambia

Conservation farming is a package of agronomic
practices that have been promoted in Zambia
by a coalition of stakeholders from Government,
donors and the private sector, since the mid1990s. The system is comprised of dry-season
land preparation using minimum tillage methods,
utilizing fixed planting stations (small shallowbasins); retention of crop residue from the priorharvest in the field or use of other mulches/ground covers; and rotation of crops in the field.
Over 180,000 farmers used this system at theend of 2010, and this figure was projected torise to 250,000 farmers by 2011 — representing
some 30 percent of the population of small-scale
farmers in Zambia. The scaling up program hasrecently added a tree component — the plantingof Faidherbia albida — to provide mulch andnutrients. These practices have been found to behighly profitable and not only because of theirimpact on soil health. By eliminating the need forlaborious land preparation, farmers adopting thesystem have been better able to plant close to theonset of the rains. That alone has had a significant
impact on yields which have doubled for maize
and increased by 60 percent for cotton using
conservation farming, compared to conventional
plowing systems. The program has thus been able
to achieve the triple win of enhanced productivity,
resilience and carbon sequestration.

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Restoring Vietnam’s Mangrove Buffer

Vietnam is one of the countries most exposed
to climate change; floods, storms, typhoons,and longer-term sea level rise pose risks to lowlying coastal areas, including the agricultural
heartland of the Mekong Delta. The rapid declineof Vietnam’s mangrove forests has had a serious
impact on the productivity of coastal fisheries
and the rural economy of the Southern Mekong
Delta. Mangrove forests act as breeding grounds
for aquatic organisms, a cleansing system for
sediments and nutrients in estuaries, and provide
buffer zones against typhoons and floods. The
Coastal Wetlands Protection and Development
Project (1999-2007) adopted a comprehensive,
long-term approach to the protection of coastal
wetlands in four Mekong provinces. In addition
to planting trees to fight erosion and defining full
protection and buffer zones, the project sought
to tackle some of the causes of environmental
degradation. It worked to improve incomes inadjoining communities to reduce destructive

practices through a combination of resettlement
activities, extension services, vocational training,and credit and social support. The project also
introduced policy and contractual measures thatgive local communities incentives to protect
the coast’s growing mudflats and biodiversity.
As a result, pressure on coastal mangrove
ecosystems has been reduced, erosion has
declined and livelihoods have improved forcoastal communities who have witnessed aresurgence of aquatic resources such as crabs
and clams. Combined with other forestry activities
implemented by the Government of Vietnam in
the project area, more than 95 percent of barren
areas in the full protected zones have now beenreforested. Experience gained in planting trees
in challenging environments should be especiallyvaluable at a time when climate change puts
coastal communities at greater risk of natural
catastrophes.

Right: Farmer with mangrove seedling in
Vietnam. Photo: Jim Holmes/Panos.

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Community Managed
Sustainable Agriculture in India
Andhra Pradesh is one of India’s major producersof rice, cotton, groundnuts and lentils. Most farmers
in the state practice conventional, input-intensive
farming that relies on the periodic purchase ofhigh-yielding seed and the continual application ofchemical pesticides and fertilizers that account foras much as 35 percent of their cultivation costs andgenerate tremendous pressure to borrow to pay
for inputs. As a result of debt and uncertain profit
potential, agricultural growth began to stagnatein the 1990s. By the early 2000s, farming was nolonger a sustainable livelihood. Many farmers usedtheir land as collateral and became tenant farmers
or wage laborers on their own land. In 2005, 82
percent of farm households in the state were in
debt — the highest rate in India.
In 2005-06, building on successful efforts by
NGOs like the Centre for Sustainable Agriculture,
the Society for Elimination of Rural Poverty
began supporting a program of non-pesticide
agricultural management on just 162 hectares
benefiting 350 farmers. Encouraging results led
to a scale up of community managed sustainableagriculture (CMSA) with seed networks,
soil management practices and ultimately

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conservation furrows, trenches and farm ponds
to increase water for crops. Together with intercropping, multi-cropping, improved planting
techniques, and increased on-farm water capture,
non-pesticide management makes CMSA farms
more resilient to climate shocks. CMSA farmers
are growing more food, and a wider variety offood both for themselves and for sale to local
markets, with positive effects on nutrition andfood security. By 2009-10, CMSA and nonpesticide management was being implemented on
715,314 hectares and benefiting 738,000 farmers.
Farmers have lowered the cost of cultivation
while maintaining yields, which means more
profit to invest in livelihood assets. Many havereclaimed their mortgaged land. To manage laborcosts, farmers work together to manage pests
and increase soil fertility. New local enterprises
producing bio-pesticides and leasing farm
implements are emerging to meet growing needs.
Moreover, pesticide-free groundwater and soil
have also had a positive impact on community
health and biodiversity. The Government ofAndhra Pradesh recently announced its intention
to scale up this approach to make the state
entirely free of chemical pesticides.

Using Weather Index Insurance to Improve
Relief Efforts in the Event of Drought in Mexico
Although at initial stages, weather index insurance
programs are taking off as a more promising
way to adapt to extreme weather conditions
than selling assets, digging wells which drainwater tables, or queuing up for food aid after
disaster strikes. Since 2002-03, Mexico has used
an insurance scheme managed by a governmentowned insurer (AGROASEMEX) to improve public
relief efforts in the event of drought. Federal
and state governments purchase Catastrophic
Agricultural Insurance to manage the risk they
face from making payments to rural households
affected by drought. Part of the appeal of the
program is to put relief funding on a morepredictable footing and to transfer part of therisk to the international reinsurance market.
More compelling still is the ability to provide

households timely and assured access to funds
when they need it most. Vulnerable smallholder
farmers are identified in advance and payments
can be made as soon as a predeterminedthreshold is crossed (using a weather-based index
which correlates local rainfall with crop yields)
rather than waiting for relief agencies to raise
funds for a given catastrophe (when farmers may
have already sold productive assets). This leaves
farmers better equipped to recover when theweather improves. In 2010, the program covered
potentially 3.2 million low-income farmers in 30
out of 33 states in Mexico. The availability of
reliable weather databases and weather stationsin the field is one of several factors constraining
the spread of this model.

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Erosion Control in China

Addressing the environmental footprint ofagriculture is a major challenge for China. The
agricultural sector accounts for 15 percent of
national greenhouse gas emissions, mostly fromlivestock and paddy rice, and has become thelargest source of water contamination. In the lasttwo decades, China has spearheaded a major
reforestation program to protect its watersheds.
It has also successfully implemented one of theworld’s largest erosion control programs which
has returned the devastated Loess Plateau tosustainable agricultural production, improving the
livelihoods of 2.5 million people and securing foodsupplies in an area where food was sometimes
scarce in the past. Thanks to the program,
grain production increased from about 1 mt perhousehold, which left a food gap of approximately
2 to 3 months a year, to 1.3 mt and more, covering

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basic requirements. The project encouraged naturalregeneration of grasslands, tree and shrub coveron previously cultivated slope-lands. Replanting
and bans on grazing allowed the perennial
vegetation cover to increase from 17 to 34 percent
between 1999 and 2004, sustaining soil fertility
and enhancing carbon sequestration. Together
with terracing, these measures not only increased
average yields, but also significantly lowered theirvariability. Agricultural production has changed
from generating a narrow range of food and lowvalue grain commodities to high-value products. As
a result, the evolution of farm and family incomes
has shown a steady increase. The program has
effectively addressed the triple win of climatesmart agriculture. It is estimated that as many as 20
million people have benefited from the replicationof the Loess Plateau approach throughout China.

The Three Rivers in China – Sustainable
Grazing and Carbon Credits
The Three Rivers Project, situated in Qinghai
province, northwest China, is a pilot project using
carbon financing to facilitate grassland restorationand increase livestock productivity. Potential
benefits are expected to be higher productivity andprofitability of herding operations and thus poverty
alleviation and enhanced food security, greater
resilience to droughts from improved vegetation
cover and soils, and emission reductions throughsoil carbon sequestration and reduced livestock
methane emissions.
Carbon finance from a voluntary scheme will
be used to compensate costs and foregone
income during a transition period and to increase
productivity. The pilot, jointly supported by the
Food and Agriculture Organization of the United
Nations (FAO), the Chinese Ministry of Agriculture
and Qinghai Province Government, offers a
combination of restoration of degraded grasslands
and stocking-rate management in an incentivebased system. In the first project years, tacklingoverstocking (currently at about 45 percent) willtranslate into income losses which will be mitigatedthrough improved productivity and productmarketing. Incentive payments will encourage
herders to overcome risk barriers. Overall, after
the first decade of the project, households will
have fewer but more productive livestock, and be
engaged in more profitable value chains.
After 10 years, it will be possible to increase herdsize on the restored grasslands while continuingwith sustainable grazing management. Increased
availability of forage will enable more productive
livestock and higher incomes, providing an incentive
for long-term sustainable land management. It
is hoped that this model can break the vicious
cycle of overstocking and land degradation anddemonstrate sustainable management options,while generating a reduction of approximately
500,000 tons of CO2–equivalent, over 10 years.
It also aims to address some of the key barriers
to smallholder access to carbon finance, which
include the lack of appropriate carbon accounting
methodologies and cost-effective measuring,
reporting, and verification.

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Cooking with Biogas in China

Methane, which is released from animal manure, is
22 times more damaging than carbon dioxide. Byturning human and animal waste into methane forlighting and cooking, a project of the International
Fund for Agricultural Development (IFAD) in
China’s Guangxi Province is reducing poverty andalso helping reduce methane’s more damaging
global warming effects.
Each household involved in the project has built its
own plant to channel waste from domestic toilets
and nearby shelters for animals (usually pigs) into asealed tank where waste ferments and is naturally
converted into gas and compost. As a result of the
project, living conditions and the environment have
improved. Forests are protected, reducing GHG
emissions from deforestation. A large amount ofstraw, previously burned, is now put into biogas
tanks to ferment. This further reduces air pollution

from smoke and helps produce high-quality organic
fertilizer. In addition, the project has resulted inbetter sanitary conditions in the home.
Families, especially women, save 60 work days
per year by not having to collect wood and tend
cooking fires. This additional time is invested inraising pigs and producing crops. With more time tospend improving crops, farmers in Fada, a village inthe project area, increased tea production from 400
to 2,500 kilograms a day over a five-year period.
Average income in the village has quadrupled tojust over a dollar per day. This is significant in acountry where the poverty line is 26 cents perday. And as a result of the project, 56,600 tons offirewood can be saved in the project area every
year, which is equivalent to the recovery of 7,470
hectares of forest.

Right: Farmer with drought tolerant maize variety in
Tanzania. Photo: Anne Wangalachi/CIMMYT.

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Research Benefits: Drought Tolerant Maize
Maize is life to more than 300 million of
Africa’s most vulnerable people, and is a
critical part of the fight against poverty in
Africa. Maize is both an important sourceof home-produced food and an important
cash crop for farmers. The open-pollinatedmodern maize varieties are particularly
valuable for resource-poor farmers, as they
do not have to buy fresh seed each season.
In the early 1980s erratic rainfall and droughtbegan to reduce crop production in muchof Sub-Saharan Africa and the developmentof drought tolerant maize varieties becamea priority for both scientists and farmers.
Since then, the scientists of the Consultative
Group on International Agricultural Research(CGIAR) have been conducting extensive
research in partnership with national
research institutions to develop improved
drought tolerant varieties that deliver higher
and more stable yields despite variable
rainfall, benefitting hundreds of thousandsof people each year. It is estimated that inWest and Central Africa alone improved
maize varieties have lifted more than one
million people out of poverty each year
since the mid 1990s.

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Silvopastoral Approaches in Costa Rica
and Nicaragua
After several years of intensive grazing in Costa
Rica and Nicaragua, pastures were degraded,erosion was accelerating and livestock productivity
was falling. To address these challenges a pilot
project introduced silvopastoral techniques to 265
farms on 12,000 hectares between 2001 and 2007.
A payment scheme for environmental services —carbon sequestration and biodiversity conservation— was introduced as an additional income stream
for livestock production.
Silvopastoral techniques are used to transformdegraded lands with mono-cultures of one grass
species into more complex agroforestry systems
that may include forest fragments, live fences,
riparian forests and trees dispersed in pastures.
These techniques have been shown to enhancebiodiversity and sequester appreciable amountsof carbon while reducing methane production of
livestock under increased tree cover. In Costa Rica
and Nicaragua, the techniques ranged from planting
trees, to natural pastures, to highly intensive fodder
shrub plantations. Sequestered carbon was paid forat a rate of $2 per ton of CO2–equivalent.
Farmers had a very positive reaction to theinitiative. Results showed a typical win-win situation:an annual sequestration of 1.5 mt of CO2–equivalent
was accompanied with increases of 22 percent inmilk production, 38 percent in stocking rate and60 percent in farm income. The methane emission
per product kilogram decreased while biodiversity(measured by the number of bird species and water
quality) increased. The project is currently being
scaled up in Colombia through Global Environment
Fund (GEF) and private sector funds.

Right: Silvopastoral techniques are used atReserva Natural El Hatico, familia Molina
Durán, near Palmira, Colombia. Photo: Neil
Palmer/CIAT.

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Next steps• Early action is needed to identify and scale up best practice, tobuild capacity and experience and to help clarify future choices.
• Considerable finance will be needed to rapidly implement provenprograms and support poverty alleviation and food security goals ina changing climate.
• COP 17 in Durban offers a unique opportunity for Africa to shape
the global climate agenda and establish an agriculture work
program that is informed by science and covers adaptation andmitigation.

“Millions of hungry and starving individuals havetheir hopes vested in us. Despite our serious global
challenges, we still have hope. We need yoursupport to elevate agriculture to achieve global
climate change goals and the triple win of enhanced
agricultural productivity and incomes, climate
resilience and carbon sequestration. It is vital toinclude agriculture, food security and land in the
climate change negotiations.”
Tina Joemat-Pettersson, Minister: Agriculture, Forestry
and Fisheries, South Africa.

Photo: Woman in southwestern Uganda.
Credit: Neil Palmer/CIAT.

24

C

This brochure on climate-smart agriculture was produced in partnership with:
African Union: www.au.int
CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS):
www.ccafs.cgiar.org
Department of Agriculture, Forestry and Fisheries, Republic of South Africa:
www.nda.agric.za
Food and Agriculture Organization of the United Nations:www.fao.org
International Fund for Agricultural Development:
www.ifad.org
Program on Forests:
www.profor.info
United Nations Environment Programme:
www.unep.org
World Bank:
www.worldbank.org
World Bank Institute:
wbi.worldbank.org
World Food Programme:www.wfp.org

agriculture,
forestry & fisheries
Department:
Agriculture, Forestry and Fisheries
REPUBLIC OF SOUTH AFRICA

Enabling poor rural people
to overcome poverty

Cover photo: Maize and other crops grow under Faidherbia albida trees in Tanzania. Agroforestryis the most effective method of sequestering carbon. Photo by World Agroforestry Centre.