- Open Access
Agroforestry, climate change mitigation and livelihood security in India
© Basu; licensee Springer. 2014
- Published: 26 November 2014
The Indian Council of Agricultural Research has set a target for increasing forest cover from the present level of 23% of land area to 33% and agroforestry contributes to this target.
The effect of agroforestry on carbon sequestration and livelihood security of people in India was reviewed. Also, a survey was conducted in two regions of West Bengal, one drought-prone and the other in a mountainous district, to assess the contribution of agroforestry to human well-being and livelihood security.
The average carbon sequestration potential of agroforestry systems is estimated to be 25t.ha-1 over 96 million ha but there is substantial regional variability. The survey showed that village communities are dependent on agroforestry systems for income, employment opportunities and livelihood security. An account is also given of Government forestry and tree-planting programmes that encourage the practice of silvipasture, agrisilviculture, and agrihorticulture in rain-fed and irrigated areas.
Agroforestry systems offer opportunities for the improvement of the livelihood of poor people through provision of economic and environmental security.
- carbon sequestration
- employment opportunity
- livelihood security
- rural development
- forest conservation
Agroforestry in India contributes to the target set by the Indian Council of Agricultural Research for increasing forest cover from the present level of 23% of land area to 33%. The Report of the Task Force of Greening India for Livelihood Security and Sustainable Development (Planning Commission 2001) has suggested that 10 million ha of irrigated land and 18 million ha of rain-fed land should be managed under agroforestry systems. The International Panel on Climate Change (IPCC) Third Assessment Report on Climate Change (McCarthy et al. 2001) has recognised the potential of agroforestry for addressing multiple problems and delivering a range of economic, environmental and socioeconomic benefits. Estimates of the carbon sequestration potential of agroforestry systems range from 0.7-1.6 Gt (Trexler and Haugen, 1994) to 6.3 Gt (Brown et al., 1996). Secondary environmental benefits include food availability, security of land tenure, increased farm income, restoration and maintenance of above- and below-ground carbon storage capacity, restoration and maintenance of biodiversity, and maintenance of watershed hydrology and soil conservation. Agro ecosystems can be designed to assist adaptation of communities and households to local and global change (Van Ardenne et al. 2003).
In tropical countries like India, planted crops such as poplars (Populus spp.) and eucalypts (Eucalyptus spp.) represent a well-managed and profitable activity. Rapidly-growing poplars are now a major component of woodlots and shelterbelts on many farm properties in South Asia. Torquebiau (1992) has suggested that home gardens supply 44% of global calorie intake and 32% of global protein consumption. Food-producing trees grown in agroforestry systems can increase the nutritional and economic security of poor people living in tropical countries (World Bank, 2006). For example, the fruit of many wild edible species have carbohydrate contents on a dry weight1 basis ranging from 32 to 88% (Sundriyal and Sundriyal, 2001).
Community plantations yielding non-timber products in tribal areas of Jharkhand, India, have potential for conservation of useful species as well as for making a contribution to the well-being of local people (Quli, 2001). Such initiatives have enhanced likelihood of success as these tribal communities are dependent on wild resources for their livelihood. In Jharkhand, the tree component of agroecosystems is particularly valued for specific roles including that of host species to insects yielding marketable products such as silk (Singh et al.1994), lac products (Jaiswal et al., 2002), and honey (Dwivedi, 2001).
The forest cover of India is only 67.83 M ha (20.68% of the geographical area) and other tree cover is estimated as 9.99 M ha (3.04% of the geographic area), thus the total forest and other tree cover is computed as 77.82 M ha, which is 23.68 per cent of its geographical area (FSI, 2003). In addition to this, about 25.72 M ha area is under various types of tree plantations such as agroforestry, social forestry and farm forestry.
In India, a social forestry programme started in 1976. Under this programme, trees were planted in and around agricultural fields, railway lines, roadsides, river and canal banks, village common land and government waste land. The goal of social forestry is plantations by the people who can meet the growing demand for timber, fuelwood, fodder and other uses. With the introduction of a social forestry scheme, emphasis was given on the involvement of community participation in order to initiative more drive towards afforestation and rehabilitation of degraded forests.
Under farm forestry, individual farmers are encouraged to plant trees on their own farmland to meet their domestic needs of the family. In most of the cases the farmers are interested planting trees to provide the shade for the agricultural crops, wind shelters and soil conservation.
In the community, forestry plantations of trees are made on government land and the government has responsibility of providing seedlings, fertiliser but the community has to take responsibility for protecting the trees. The government of India has adopted Joint Forest Management (JFM) as a principal approach for community-based forestry. This programme now covers 27% of the national forest area across 27 states, and encompasses 100,000 village committees. About 300 million poor rural people in India depend on forests for at least part of their subsistence and cash livelihoods, which they earn from fuelwood, fodder, sal leaves, and a range of non-timber forest products, such as fruits, flowers, and medicinal plants.
A tree-planting programme in India was launched in the late 1970s to create more awareness about the benefits of tree culture. It was initially believed that farmers would plant only a few trees on homesteads or on uncultivated lands, intending them to be a source of fuelwood and fodder for personal use. In fact the number of tree plantations other than forests reached unexpectedly high rates (FSI, 2000). Eucalypts (hybrids of Eucalyptus tereticornis) were highly favoured by farmers. The proportion of eucalypts among tree seedlings distributed by the Forest Department was 94% in Uttar Pradesh, 96% in Haryana, 84% in Gujarat, and 90% in the Punjab (National Council of Applied Economic Research 1987; Saxena, 1992). The State government of Uttar Pradesh had fixed an initial target of about 8 million seedlings to be distributed to the farmers in the State over the period 1979-1984. Due to unexpected demand for seedlings from farmers, about 350 million seedlings were distributed. Little information exists about the effect of the tree-planting programme on climate change.
Agroforestry systems in India include the use of trees grown on farms, community forestry and a variety of local forest management and ethnoforestry practices (Pandey, 1998). The Indian Council of Agricultural Research has classified systems used in different agro-climatic zones as silvipasture, agrisilviculture or agrihorticulture based on irrigated or rain-fed conditions. The practice of growing scattered trees on farmland is quite old. These trees are used for shade, fodder, fuelwood, food and medicinal purposes. Eucalypts and poplars are also grown in fields or on farm boundaries in the Punjab and Haryana. Traditional agroforestry systems include such practice of growing trees on farmlands used for fodder, fuelwood and vegetables etc. along with shifting cultivation in the Northeast India and Taungya cultivation. The Taungya2 cultivation system is used in Kerala, West Bengal, and Uttar Pradesh and to a limited extent in Tamil Nadu, Andhra Pradesh, Orissa, Karnataka, as well as in the Northeast hill regions. In addition, home gardens, tea plantation, wood lots and alder (Alnus spp.) -based agriculture are other kinds of agroforestry systems prevailing in India.
The first objective of the current study was examination of the carbon sequestration potential of agroforestry in different regions of India. Secondly, an attempt was made to show how agroforestry contributes to the well-being of people and their resilience to the impact of climate change. Lastly, some appraisal is made of programmes involving afforestation, reforestation, community forestry, social forestry and farm forestry introduced by the Government of India.
In Southeast Asia, agrisilvicultural systems have the capacity for storing 12-228 MgC ha-1 in humid tropical lands and 68-81 MgC ha-1 in dry lowlands (Murthy et al., 2013). The highest potential for carbon storage (90-198 MgC ha-1) is associated with North American silvipastoral systems. The potential for sequestering carbon in above-ground components of agroforestry systems is estimated to be 2.1 χ 10 9 MgC yr-1 in tropical and 1.9 χ 10 9 MgC yr-1 in temperate biomes (Oelbermann et al., 2004). Agroforestry systems have indirect effects on carbon sequestration because they reduce harvesting pressure on natural forests which are the largest sinks for terrestrial carbon. They also conserve soil characteristics, thereby enhancing carbon storage in both trees and soil. Study of the effects of agroforestry practice on the soil carbon pool has indicated a rate of increase of 2-3 MgC.ha-1 yr-1 (Garg, 1998). The carbon sequestration potential of tropical agroforestry systems is estimated to be 12-228 Mg ha-1 with a median value of 95 Mg ha-1 (Singh & Pandey (2011). Other estimates based on the global area suitable for agroforestry (585-1215 × 106 ha) suggest that 1.1-2.2 PgC could be stored in terrestrial ecosystems during the next 50 years (Albrecht and Kandji, 2003). Other estimates of the amount of carbon stored in agroforestry systems throughout the world range from 0.29 to 15.21 Mg ha-1.yr-1 aboveground, and from 30 to 300 Mg.ha-1.yr-1to 1 m depth in soil Ramchandran et al., 2010).
Carbon sequestration potential in India
Regional estimates of total carbon storage under different agroforestry systems in India.
Total carbon storage
Silvipasture aged 5 yr
Acacia nilotica + natural pasture
Rai et al. (2001)
A. nilotica + established pasture
Dalbergia sissoo + natural pasture
D. sissoo + established pasture
Hardwickia binata + natural pasture
H. binata + established pasture
North- western India
aged 6 yr
Acacia/Dalbergia/Prosopis + Desmostacya
Kumar et al. (2002)
Acacia/Dalbergia/Prosopis + Sporobolus
Block plantation aged 6 yr
Swamy et al. (2003)
aged 8 yr
Emblica officinalis + Vigna radiata
Hardwickia binata + Vigna radiata
Colophospermum mopane + Vigna radiata
Agrisilviculture aged 11 yr
Dalbergia sissoo + crop
Estimates of carbon sequestration potential under agroforestry in different agro-climatic regions in India.
Average carbon sequestration rate
Degraded forest land
1.1 t ha-1 yr-1
3.9 t ha-1 yr-1
8.5-15.2 t.ha-1 yr-1
Strip plantation aged 5.3 yr in Haryana
15.5 t ha-1 during the first rotation
Agricultural soils of Indo-Gangetic plains
12.4-22.6 t ha-1 yr-1
Estimates of net annual carbon sequestration by agroforestry components.
Carbon sequestration (Mg ha-1.yr-1)
Tropical home gardens
Koul et. al. (2011) estimated that soil organic carbon (SOC) was highest (17.69 t / ha) in natural forest of Shorea robusta Roth., followed by pure plantations of Terminalia arjuna (Roxb.) Wight & Arn. (13.29 t / ha), agri-horticulture agroforestry systems (12.14 t / ha), pure plantations of Dalbergia sissoo Roxb. (10.66 t / ha) and tea (Camellia spp.) gardens (10.45 t / ha). The lowest amount of SOC stock was present in fallow land (10.05 t / ha) 3.
India is noted for the existence of valuable local knowledge about tree planting. Small-holdings of less than 2 ha growing a combination of Acacia species and Oryza species (rice) in a traditional agroforestry system have been shown to have a benefit/cost ratio of 1.47 and an internal rate of return of 33% at an annual discount rate of 12% over a ten- year period (Singh and Pandey, 2011).
In the Northeast Indian state of Meghalaya, an agrihorticultural system based on Psidium spp. (guava) gave a 2.96-fold higher net return than a comparable system without trees (Bhattacharya and Mishra 2003). Using Assam lemon as a horticulture-product based system was found to increase the net return 1.98-fold. The net monetary benefit from the guava-based system was Rs. 20,610 ha-1 and that from Assam lemons was Rs. 3,787.60 ha-1. Similar systems are enhancing the livelihood of local people who were previously dependent on rain-fed agriculture. Estimates of net present value for different agroforestry systems in Haryana modelled on a six-year rotation varied between Rs. 26626 and Rs. 72705.ha-1.yr-1 (Kumar, Gupta and Gulati, 2004). The benefit/cost ratio was 2.35 to 3.73 and the internal rate of return 94 to 389%. These agrihoticultural agroforestry systems, such as farming systems which combine domesticated fruit trees and forest trees have potential for lifting the socioeconomic status of farmers and for contributing to the overall development of the region.
Employment generation potential of agroforestry in India.
Area (million ha)
Additional employment (person-days ha-1 yr-1)
Total annual employment
Tree-borne oil seeds
Rates of return from investment in agroforestry systems.
Ratio of rate of return to investment
Tree-borne oil seeds
West Bengal study
Thus, total number of sample households for four villages taken together was 191. Different socio-economic characteristics of the households were studied in terms of family size, age, sex, education, literacy rates and landholdings in the four villages. Secondary data were also taken from Forest Survey of India (FSI) and National Research Centre for Agro-forestry (NRCAF).
Socio-economic indicators in the West Bengal study area.
Name of the villages in Drought-prone region
Name of the villages in Mountain region
No. of households
No. of households
≤ 30 yr
( number of years)
Primary (to 4 yr)
Secondary (5-10 yr)
Number in family
Land holdings (in acre)
The Greening India mission under the National Climate Change Action Plan targets 1.5 Mha of degraded agricultural and fallow lands to be brought under agroforestry; about 0.8 Mha under improved agroforestry practices on existing lands and 0.7 Mha of additional lands under agroforestry (Puri &Nair 2004). Much of the opportunity to store carbon through afforestation in India will occur through agroforestry on agricultural lands due to the fact that majority of arable land in India is being cultivated (Ravindranath 2007). The total potential for agroforestry has been estimated at 25.36 Mha with almost half of it under tree borne oilseeds, silvipasture and others by 2025 (NRCAF, 2007).
The National Forest Policy defined by the Government of India in 1988 aims to increase forest and tree cover throughout the country, thereby enhancing forest ecosystem services to local communities. Such services include, but are not restricted to, provision of timber, NTFPs and carbon sequestration. Afforestation and reforestation are currently carried out under various programmes, namely the Farm Forestry Programme launched in the late 1970s; a Social Forestry Programme initiated in the early 1980s; a Joint Forest Management Programme started in 1990; afforestation carried out under National Afforestation and Eco-development Board programmes since 1992; and private farmer- and industry-initiated plantation forestry schemes.
The Farm Forestry Programme was launched to create awareness about the benefits of tree planting. Under this intitiative, more trees were planted in commercialised and agrarian regions. Greatest enthusiasm was witnessed in the northern states of Punjab, Haryana, and western Uttar Pradesh, known collectively as the "green revolution belt". Here good alluvial soils are cultivated under assured irrigation and most trees are planted on boundaries around annual crops. Woodlot planting has been attempted mainly by absentee landowners, or by farmers managing large areas of inferior soil. Farmers in the commercialised growing regions of western and southern India planted woodlots rather than risk-prone crops such as groundnut or cotton. This has been observed on a smaller scale in the deltas of the Mahanadi, Godavari, Krishna and Kaveri Rivers, and in other areas of intensive irrigation development in the lowlands of Gujarat, Maharashtra, and Tamil Nadu. The regions in which farm forestry has been most successful are the semi-arid areas of West Bengal. Districts such as Midnapur, Bankura and Purulia are agriculturally poor, the land holdings are small and most of the production at farm level is used for subsistence. Tree culture succeeded because the Government allotted land unsuitable for agricultural crops to poor agricultural labourers.
Developmental policy such as that underlying the 2005 Mahatma Gandhi National Rural Employment Guarantee Act aims to enhance not only livelihood security of people in rural areas (through guarantee of one hundred days' wage-employment) but addresses some environmental issues. These can contribute to the reduction of greenhouse gas emissions through plantation development and afforestation as well as horticulture, land development, well construction, renovation of ponds and the like. Production of biomass and wood and also carbon sequestration potential were envisaged for activities such as tree planting on crop and tank embankments and wastelands, using a potential conservation growth rate of 3 t ha-1 yr-1.
The average carbon sequestration potential associated with agroforestry in India is estimated to be 25 tC ha-1 over 96 million ha. Substantial regional variation is dependent on biomass productivity.
Agroforestry systems offer opportunities for the improvement of the livelihood of poor people through provision of economic and environmental security. Non-timber forest products have been recognised as important resources for both sustainable livelihood and ecosystem conservation purposes.
Agroforestry has a high employment-generation potential in India. Maximum potential has been noted in the cultivation of tree-borne oil seeds, followed by silvipasture systems.
Successful afforestation, reforestation and smaller tree planting programmes are being implemented by the Indian Government.
1 Carbohydrate can be of different types; monosaccharides (e.g. glucose), disaccharides (e.g. sucrose) and polysaccharides (e.g. starch) and others. Each carbohydrate can be estimated by different quantitative spectrophotometric methods. The carbohydrate content can be expressed in terms of "gramme of carbohydrate/gramme dry weight" of fruits etc, where dry weight = (original weight-water content).
2 The Taungya system is a modified form of shifting cultivation. "Tauang" means hill, "ya" means cultivation, i.e. hill cultivation. It involves cultivation of crops in forests or forest trees in crop fields and was introduced to the Chittagong and Bengal areas of colonial India in 1890. Later it spread throughout Asia, Africa and Latin America. This taungya system is predominant in North-Eastern India.
3 The study was conducted in Pundibari, West Bengal during September 2004 to August 2006, to understand the impact on carbon sequestration potential of different land sue systems like fallow land, agricultural field, pure plantation of Dalbergia sissoo, tea garden, agri-horticulture agroforestry system, pure plantations of Terminalia arjuna and natural forest of Shorea robusta at four soil depths (0-9, 10-20, 21-30, 31-40 cm).
I would like to thank the International Union of Forest Research Organisations for supporting me with a full scholarship that allowed me to present this paper in Ireland and Portugal.
Publication of this supplement was funded by the New Zealand Forest Research Institute Limited (trading as Scion).
This article has been published as part of JOURNAL Volume 44 Supplement 1, 2014: Proceedings of the Third International Congress on Planted Forests. The full contents of the supplement are available online at http://www.nzjforestryscience.com/supplements/44/S1.
- Albrecht A, Kandji ST: Carbon sequestration in tropical agroforestry systems. Agriculture, Ecosystems & Environment 2003, 99: 15–27. 10.1016/S0167-8809(03)00138-5View ArticleGoogle Scholar
- Bhattacharya BP, Misra LK: Production potential and cost-benefit analysis of agrihorticulture agroforestry systems in Northeast India. Journal of Sustainable Agriculture 2003, 22: 99–108.Google Scholar
- Brown S, Sathaye J, Cannell M, Kauppi P: Management of forests for mitigation of greenhouse gas emissions. In Climate Change 1995: Impacts, Adaptations and Mitigation of Climate Change: Scientific-Technical Analyses. Edited by: RT Watson, MC Zinyowera, & RH Moss. Cambridge, UK and New York, USA: Cambridge University Press; 1996. Contribution of Working Group II to the Second Assessment Report of the Intergovernmental Panel on Climate ChangeGoogle Scholar
- Dhyani SK, Sharda VN, Sharma AR: Agroforestry for water resources conservation: issues, challenges and strategies. In Agroforestry: Potentials and Opportunities. Edited by: PS Pathak, & Ram Newaj. Jodpur, India: Agribios; 2003.Google Scholar
- Dhyani SK, Sharda VN, Sharma AR: Agroforestry for sustainable management of soil, water and environmental quality: Looking back to think ahead. Range Management and Agroforestry 2005,26(1):71–83.Google Scholar
- Dwivedi MK: Apiculture in Bihar and Jharkhand: A study of costs and margins. Agricultural Marketing 2001,44(1):12–14.Google Scholar
- Forest Survey India (FSI): State of Forest Report 1999. Dehradun, India: Forest Survey of India; 2000.Google Scholar
- Forest Survey India (FSI): State of Forest Report 2003. Forest Survey of India, Ministry of Environment and Forests, Dehradun; 2003.Google Scholar
- Garg VK: Interaction of tree crops with a sodic soil environment:Potential for rehabilitation of degraded environments. Land Degradation and Development 1998, 9: 81–93. 10.1002/(SICI)1099-145X(199801/02)9:1<81::AID-LDR267>3.0.CO;2-RView ArticleGoogle Scholar
- International Panel on Climate Change (IPCC): IPCC Special Report on Land Use, Land Use Change and Forestry. Summary for Policy Makers. Geneva, Switzerland: IPCC; 2000.Google Scholar
- Jaiswal AK, Sharma KK, Kumar KK, Bhattacharya A: Household's survey for assessing utilisation of conventional lac host trees for lac cultivation. New Agriculturist 2002, 13: 13–17.Google Scholar
- Jose S: Agroforestry for ecosystem services and environmental benefits: an overview. Agroforestry Systems 2009, 76: 1–10. 10.1007/s10457-009-9229-7View ArticleGoogle Scholar
- Koul DN, Shukla G, Panwar P, Chakraborty S: Status of social carbon sequestration under different land use systems in Terai Zone of West Bengal. Environment and We: An International Journal of Science and Technology 2011, 6: 95–100.Google Scholar
- Kumar R, Gupta PK, Gulati A: Viable agroforestry models and their economics in Yamunanagar District of Haryana and Haridwar District of Uttaranchal. Indian Forester 2004, 130: 131–148.Google Scholar
- McCarthy JJ, Canziani OF, Leary NA, Dokken DJ, White KS: Climate change 2001: Impacts, adaptation and vulnerability. Cambridge, UK: Cambridge University Press; 2001:967.Google Scholar
- Murthy IK, Gupta M, Tomar S, Munsi M, Tiwari R, Hegde GT, Ravindranath NH: Carbon sequestration potential of agroforestry systems in India. Journal of Earth Science & Climate Change 2013,4(1):1–7.View ArticleGoogle Scholar
- National Council of Applied Economic Research (NCAER): Haryana Wood Balance Study (mimeo). New Delhi, India: NCAER; 1987.Google Scholar
- National Research Centre for Agroforestry (NRCAF): Vision-2025: NRCAF Perspective Plan. Jhansi, India; 2007.Google Scholar
- Newaj R, Dhyani SK: Agroforestry for carbon sequestration: Scope and present status. Indian Journal of Agroforestry 2008, 10: 1–9.Google Scholar
- Oelbermann M, Voroney RP, Gordon AM: Carbon sequestration in tropical and temperate agroforestry systems: a review with examples from Costa Rica and southern Canada. Agriculture Ecosystems and Environment 2004, 104: 359–377. 10.1016/j.agee.2004.04.001View ArticleGoogle Scholar
- Pandey DN: Ethnoforestry: Local knowledge for sustainable forestry and livelihood security. New Delhi, India: Himanshu/AFN; 1998.Google Scholar
- Planning Commission, Government of India: Report of the Task Force of Greening India for Livelihood Security and Sustainable Development. 2001.Google Scholar
- Puri S, Nair PKR: Agroforestry research for development in India: 25 years of experiences of a national program. Agroforestry Systems 2004, 61: 437–452.Google Scholar
- Quli SMS: Agroforestry for NTFPs conservation and economic upliftment of farmers. Indian Forester 2001, 127: 1251–1262.Google Scholar
- Ramachandran Nair PK, Nair VD, Mohan Kumar B, Showalter JM: Carbon sequestration in agroforestry systems. In Advances in Agronomy. Volume 108. Edited by: D. Sparks. Philadelphia PA, USA: Elsevier; 2010:237–307.Google Scholar
- Ravindranath NH: Mitigations and adaptation synergy in forest sector. Mitigation and Adaptation Strategies for Global Change 2007, 12: 843–853. 10.1007/s11027-007-9102-9View ArticleGoogle Scholar
- Sathaye JA, Ravindranath NH: Climate change mitigation in the energy and forestry sectors of developing countries. Annual Review of Energy & Environment 1998, 23: 387–437. 10.1146/annurev.energy.23.1.387View ArticleGoogle Scholar
- Saxena NC: Adoption of a long-gestation crop: Eucalyptus growers in N.W. India. Journal of Agricultural Economics 1992,43(2):257–267. 10.1111/j.1477-9552.1992.tb00220.xView ArticleGoogle Scholar
- Singh MP, Dayal N, Singh BS: Importance of genetic conservation of tasar host plants in agroforestry programme in Chhotanagpur region of Bihar. Journal of Palynology 1994, 30: 157–163.Google Scholar
- Singh VS, Pandey DN: Multifunctional agroforestry systems in India: Science-based policy options. RSPCB Occasional Paper No 4 2011, 2–35.Google Scholar
- Shit PV, Pati CK: Non-Timber Forest Products for Livelihood Security of Tribal Communities: A Case Study of Paschim Medinipur District, West Bengal. Journal of Human Ecology 2012,40(2):149–156.Google Scholar
- Solomon S, Qin D, Manning M, Chen Z, Marquis M, Averyt KB, Tignor M, Miller HL: Climate Change 2007: The Physical Science Basis. Contribution of Working Group I to the Fourth Assessment Report of the Intergovernmental Panel on Climate Change. Cambridge, UK and New York, NY, USA: Cambridge University Press; 2007.Google Scholar
- Sundriyal M, Sundriyal RC: Wild edible plants of the Sikkim Himalaya: Nutritive values of selected species. Economic Botany 2001, 55: 377–390. 10.1007/BF02866561View ArticleGoogle Scholar
- Torquebiau E: Are tropical agroforestry home gardens sustainable? Agriculture Ecosystem and Environment 1992, 41: 189–207. 10.1016/0167-8809(92)90109-OView ArticleGoogle Scholar
- Trexler MC, Haugen C: Keeping it Green: Tropical Forestry Opportunities for Mitigating Climate Change. Washington DC, USA: World Resources Institute; 1994.Google Scholar
- Van Ardenne-van der Hoeven A, Benn H, Malloch Brown M, Chino T, Johnston DJ, Kabbaj O, Nielson P, Töpfer K, Wieczorek-Zeul H, Zhang S: Poverty and climate change: Reducing the vulnerability of the poor through Adaptation. Paris: Organisation for Economic Co-operation and Development; 2003. [http://www.oecd.org/environment/cc/2502872.pdf]Google Scholar
- World Bank: Unlocking opportunities for forest-dependent people in India. New Delhi, India: The World Bank Agriculture and Rural Development Sector Unit, South Asia Region; 2006. [http://siteresources.worldbank.org/INDIAEXTN/Resources/Reports-Publications/366387–1143196617295/Forestry_Report_volume_I.pdf]Google Scholar
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