Parak Salibutan as an Agroforestry Model Supporting the SDGs and a Green Economy
Padang, 30 July 2026
Lubuk Alung – The community of Salibutan Village
in Lubuk Alung District, Padang Pariaman Regency, has a promising new economic
opportunity amid growing global concern over climate change. This opportunity
comes from Parak, a traditional mixed-garden or agroforestry system that has
been passed down through generations in Minangkabau society.
For many years, Parak has supported local
livelihoods by producing various commodities, including durian, areca nut,
candlenut, asam kandis, cocoa, mangosteen, petai, jengkol, medicinal plants,
and timber species. Beyond its economic value, however, Parak also provides
important ecological benefits, particularly through its capacity to absorb and
store carbon.
Unlike monoculture plantations, which are
dominated by a single crop, Parak consists of various perennial crops, fruit
trees, woody plants, spices, and natural vegetation. Its multilayered
vegetation structure resembles that of a natural forest, allowing it to absorb
and store relatively large amounts of carbon.
The existence of Parak demonstrates how
traditional agricultural practices can contribute to the Sustainable
Development Goals, particularly SDG 13 on Climate Action and SDG 15 on Life on
Land. The system helps maintain tree cover, store carbon, protect biodiversity,
and reduce pressure on surrounding forests.
Parak as a Carbon Storage System
Several studies have shown that complex
agroforestry systems have a significant capacity to store carbon. A study by
Siaruding et al. in 2021, as referenced in the Parak development assessment,
found that carbon stocks in mixed gardens may be comparable to those of
secondary forests, ranging from approximately 62.34 tonnes of carbon per hectare
to more than 108.9 megagrams per hectare.
Meanwhile, an initial assessment of Parak areas
in Salibutan Village recorded an estimated carbon stock of approximately 56.72
tonnes per hectare. This carbon is stored in various vegetation components,
including mature trees, poles, saplings, dead trees, and forest litter.
The agroforestry system in Salibutan is
classified as complex agroforestry because it contains approximately 28 plant
species from 17 families. These include fruit trees, timber species, spice
crops, and naturally occurring vegetation. This diversity gives Parak stronger
ecological functions than monoculture agricultural land.
Durian, areca nut, candlenut, petai, jengkol,
asam kandis, and various local tree species not only produce commodities that
can be sold by the community but also serve as sustainable carbon sinks.
These characteristics make Parak an
environmentally friendly agricultural model that supports SDG 12 on Responsible
Consumption and Production. Communities can continue generating agricultural
products without clearing new land or removing the existing tree cover.
The presence of food crops and fruit trees within
Parak also contributes to SDG 2 on Zero Hunger by protecting sustainable and
climate-resilient local food production systems.
Opportunities for Carbon Trading
The carbon stored within Parak represents an
important initial asset for developing a community-based carbon trading
project. Under such a scheme, the ability of an area to absorb or reduce
greenhouse gas emissions can be measured, reported, and verified before being
converted into carbon credits with economic value.
However, not all carbon stored in trees can
automatically be traded. A carbon project must meet various requirements,
including clearly defined boundaries, secure ownership or management rights,
baseline carbon data, long-term carbon storage, prevention of emissions
leakage, and evidence that the project creates additional carbon absorption or
emissions reductions.
Salibutan Village therefore requires a transparent
Measurement, Reporting, and Verification, or MRV, system. MRV is necessary to
ensure that carbon stocks and changes in the amount of carbon stored in Parak
vegetation can be accurately calculated and recognised according to applicable
carbon market standards.
The baseline data can be strengthened through
participatory mapping using geographic information systems, an inventory of
plant species and tree populations, measurements of tree diameter and height,
and calculations of carbon stocks across different parts of the landscape.
The resulting data can then be used to determine
the verified area of Parak, its emissions absorption potential, the feasibility
of a carbon project, and the estimated number of carbon credits that could be
generated.
If all requirements are met, the development of
carbon trading in Salibutan could contribute to Indonesia’s national emissions
reduction targets and the country’s FOLU Net Sink 2030 agenda, particularly by
increasing carbon absorption in the forestry and land-use sectors.
Combining Conservation and Community Economic
Development
The potential for carbon trading in Salibutan is
strengthened by the fact that the Parak area is part of the same landscape as
the 2,792.52-hectare Village Forest. The area is also connected to Nyarai
Ecotourism, one of the recognised nature-based tourism destinations in Padang
Pariaman Regency.
The village development planning document also
records the potential of approximately 10 hectares of asam kandis plantations
containing around 1,200 hardwood trees. Asam kandis provides multiple benefits
because the trees can absorb carbon over the long term while producing fruit
that can be processed and sold without cutting down the trees.
In the future, a carbon scheme could be
integrated with the development of non-timber forest products, such as trigona
honey, asam kandis, medicinal plants, forest fruits, and other agroforestry
products. This integration would allow the community to benefit from several
ecosystem services simultaneously.
This approach is known as the multiple ecosystem
services model, in which an area generates economic benefits through non-timber
forest products, agriculture, ecotourism, biodiversity conservation, and carbon
storage.
Carbon trading is therefore not intended to
replace the community’s existing sources of income. Instead, carbon-related
revenue can provide an additional source of income and create incentives for
local people to retain trees and maintain the sustainability of Parak.
This development supports SDG 1 on No Poverty and
SDG 8 on Decent Work and Economic Growth. Revenue from carbon credits,
agroforestry products, and ecotourism could strengthen household economies
while creating green business opportunities at the village level.
Salibutan Village could also develop a
tree-adoption programme for visitors to Nyarai Ecotourism. Through this
programme, tourists could participate in tree planting or maintenance
activities, while the community would receive economic benefits from tourism
and conservation services.
Products such as asam kandis, trigona honey,
spices, and forest fruits could also be marketed under environmentally friendly
labels. Such branding could increase the value of local products while
strengthening Salibutan’s identity as a village developing a green economy
based on local knowledge.
Local Institutions as the Foundation of Carbon
Governance
The opportunity for Parak to enter the carbon
market is determined not only by the condition of its vegetation but also by
the strength of local institutions. Salibutan Village already has a Village
Forest Management Institution, locally known as LPHN, Social Forestry Business
Groups or KUPS, farmer groups, a tourism awareness group, the village
government, and customary institutions.
The involvement of Niniak Mamak and other
customary leaders is particularly important because land and natural resource
management in Minangkabau society is closely associated with customary rules
and communal ownership. Community consent, management rights, and benefit-sharing
arrangements must therefore be clearly and openly established from the
beginning.
These institutions can provide the foundation for
establishing a village-based carbon business unit. Such a unit could manage
landscape data collection, carbon monitoring, cooperation with verification
bodies, revenue management, and the distribution of benefits to community
members.
Carbon trading is not merely about selling the
ability of trees to absorb emissions. It requires professional governance,
long-term monitoring, protection of community rights, and a fair and
transparent benefit-sharing mechanism.
Without clear regulations, carbon trading could
potentially create conflicts relating to land boundaries, carbon ownership,
beneficiaries, and the use of revenue. Agreements among customary institutions,
the village government, LPHN, KUPS, farmer groups, and Parak owners or managers
must therefore be developed through a participatory process.
Strengthening institutions and cross-sector
collaboration is closely linked to SDG 16 on Peace, Justice and Strong
Institutions and SDG 17 on Partnerships for the Goals. The success of a carbon
project requires cooperation among communities, government institutions,
universities, businesses, verification organisations, and social forestry
facilitators.
Community Engagement to Strengthen Parak
Community engagement programmes provide an
important initial step in preparing Salibutan Village for community-based
carbon management. These activities aim to improve community understanding of the
ecological functions of Parak, carbon measurement methods, carbon project
governance, and opportunities for developing green enterprises.
Continuous assistance is also required to ensure
that local people do not become merely the objects of carbon trading. The
community must be involved from the beginning, including in landscape mapping,
data collection, management planning, monitoring, and the development of
benefit-sharing arrangements.
Universities can contribute by providing
scientific assessments, preparing baseline data, calculating carbon stocks,
developing MRV systems, and strengthening the capacity of local institutions.
Local governments can provide regulatory support and facilitation, while
businesses may contribute through the purchase of carbon credits or the
development of environmentally friendly products.
Through such collaboration, the development of
Parak contributes directly to several Sustainable Development Goals. It
supports SDG 1 on No Poverty by diversifying and increasing community income,
as well as SDG 2 on Zero Hunger by protecting sustainable local food production
systems. It also contributes to SDG 8 on Decent Work and Economic Growth
through the creation of green enterprises, ecotourism activities, and the
management of non-timber forest products. The responsible use of natural
resources without damaging tree cover is aligned with SDG 12 on Responsible
Consumption and Production, while the ability of Parak to absorb and store
carbon directly supports SDG 13 on Climate Action. The protection of forests,
agroforestry systems, and biodiversity contributes to SDG 15 on Life on Land.
From a governance perspective, stronger local institutions and transparent
benefit-sharing arrangements support SDG 16 on Peace, Justice and Strong Institutions.
These efforts are further reinforced through partnerships among communities,
governments, universities, and businesses, as emphasised in SDG 17 on
Partnerships for the Goals.
Social Impact
The development of Parak as a community-based carbon management model can
strengthen social cohesion and encourage wider public participation in natural
resource governance. By involving customary leaders, village institutions,
farmer groups, women, young people, and local business groups, the programme
can create a more inclusive decision-making process. It also helps preserve
Minangkabau ecological knowledge by transferring traditional Parak management
practices to younger generations. Community participation in mapping, carbon
monitoring, product development, and benefit-sharing can increase local
capacity, strengthen collective responsibility, and reduce the risk of conflict
over land use and resource ownership.
Economic Impact
From an economic perspective, Parak can generate
additional income without replacing the community’s existing livelihoods.
Revenue may come from carbon credits, ecotourism, tree-adoption programmes, and
the sale of non-timber forest products such as asam kandis, trigona honey,
medicinal plants, spices, and forest fruits. The development of environmentally
friendly branding and value-added processing could also improve the
competitiveness of local products. These opportunities may create new green
jobs, strengthen small community enterprises, diversify household income, and
reduce economic dependence on activities that could lead to forest degradation.
Environmental Impact
Environmentally, maintaining and strengthening
the Parak system can increase carbon storage, protect tree cover, and support
efforts to reduce greenhouse gas emissions. Its multilayered vegetation also
provides habitats for various plant and animal species, improves soil
fertility, reduces erosion, protects water catchment areas, and increases
landscape resilience to climate-related hazards. By encouraging communities to preserve
trees rather than convert the land into monoculture plantations or other
intensive uses, Parak contributes to biodiversity conservation, sustainable
land management, and the long-term ecological stability of Salibutan Village
and the surrounding forest landscape.
Parak is ultimately more than a traditional
garden or an ancestral legacy of the Minangkabau people. It represents a
practical example of how local knowledge can respond to the challenges of
climate change while creating new economic opportunities for rural communities.
With appropriate assistance, accountable carbon
data, strong local institutions, and fair benefit-sharing arrangements,
Salibutan Village has the potential to become one of the pioneers of community-
and local-wisdom-based carbon trading in West Sumatra.
Through Parak, the people of Salibutan can
demonstrate that environmental conservation, food security, cultural
preservation, and community prosperity are not competing objectives. Instead,
they can grow together within a single sustainable landscape.
This activity is funded by the
Indonesian Endowment Fund for Education (LPDP) on behalf of the Indonesian
Ministry of Higher Education, Science and Technology and managed under the
EQUITY Program (1117/UN16.R/KPT/IX/2026.).