Enabling energy transitions: A policy guide – Part V: Advancing people-centred and inclusive transition
Energy access and rural electrification
Ensuring access to affordable, reliable, sustainable and modern energy for all – Sustainable Development Goal 7 in the United Nations Agenda for 2030 – remains a critical challenge in countries with incomplete grid coverage, particularly in rural and remote areas. The energy transition holds vast potential to benefit communities that continue relying on rudimentary, and often highly polluting energy sources, including kerosene (for lighting and cooking) and diesel generators.
Renewable energy solutions can significantly improve people’s livelihoods in previously underserved communities, particularly in isolated areas not connected to a national power grid. Off-grid renewables can also contribute to uninterrupted electricity for health, education and agriculture in remote regions.
Rural electrification increasingly relies on a combination of grid extension, mini-grids, and stand-alone off-grid systems, with each solution tailored to local demand, geography, and socio-economic conditions. The success of these efforts depends on effective planning that integrates least-cost electrification modelling, geospatial data, and community needs into coherent national strategies. As countries pursue both decarbonisation and development objectives, rural electrification has become a cornerstone of inclusive energy transitions, linking climate goals to human well-being, economic opportunities, and overall socio-economic resilience.
Off-grid systems – especially mini-grids and solar home systems – help deliver rapid, affordable and scalable access to electricity. Their deployment hinges on enabling policies, including streamlined licensing regimes, cost-reflective tariff structures that protect vulnerable households, and clear rules for interoperability and potential future grid integration.
Financing mechanisms are equally essential: concessional funds, results-based financing, guarantee schemes, and local financial sector engagement help reduce risks and bring down upfront costs that typically impede rural consumers and small-scale operators. When enabling policies and financing are in place, off-grid solutions can deliver reliable electricity more quickly than traditional grid expansion while complementing longer-term grid plans.
The value of rural electrification extends well beyond household lighting. Productive energy uses – such as agro-processing, cold storage, irrigation, and digital services – strengthen livelihoods, enhance food security, and enable rural communities to participate more fully in local and wider economies. Designing electrification programmes with productive uses in mind ensures that energy investments generate sustained economic and social returns.
Clean cooking technologies also remain a central component of energy-access initiatives, reducing indoor air pollution, improving health, and mitigating environmental degradation. Integrated policies that address both electricity and clean cooking needs are therefore essential to achieve universal energy access in a holistic and sustainable manner.
Effective, equitable, and economically viable rural electrification depends on specific policy architecture, with an interplay between grid and off-grid planning, dedicated financing, and well-designed regulatory frameworks for mini-grids and stand-alone systems. Productive uses and clean cooking must also be addressed to ensure that rural energy access translates into meaningful development gains. Together, these elements form the foundation of rural energy transitions that are robust, inclusive, and aligned with national development priorities.
Planning and tracking energy access
Governments can advance off-grid planning and measurement by establishing enabling policies, regulatory frameworks, and standards for sustainable, decentralised renewable energy systems. Governments must also coordinate data collection, monitor energy access, and track off-grid progress, along with promoting environmental sustainability and supporting local economic development.
Key mechanisms for energy-access planning and tracking include:
- Integrated electrification planning: Coordinated decision-making on grid extension, mini-grids, and off-grid solutions within a single national framework helps to optimise investment decisions, avoid duplication, and ensure that different delivery models contribute coherently to universal and inclusive energy access.
- Data-driven decision-making: Geospatial analysis, demand assessments, and regularly updated datasets enable governments to identify priority areas, match technologies to local conditions, and track implementation. Open data platforms and outcome-based indicators also strengthen transparency, accountability and investor confidence.
- Time-bound access pathways: Clearly articulated connection milestones and timelines provide a shared reference for governments, utilities and development partners, helping to align implementation efforts and signal long-term commitment to universal energy access.
- Multi-tier frameworks for access measurement: Using a multi-tier framework allows energy access to be assessed beyond simple connection rates, capturing dimensions such as reliability, affordability, quality and duration of electrical supply, enabling more nuanced policy evaluation.
- National electrification data platforms: Centralised systems for collecting and reporting data on connections, service quality, and system performance support consistent monitoring across technologies and localities, improving accuracy in planning while enhancing coordination among institutions.
- Local capacity and institutional development: Strengthening local entrepreneurship, technical skills, and institutional capacity – particularly within local governments and with attention to gender inclusion – supports sustainable operation for off-grid systems and ensures that energy access contributes to broader social and economic development.
Case study: Universal electrification in the Philippines
The Department of Energy of the Philippines has adopted the 2024–2033 National Total Electrification Roadmap (NTER) as the country’s central strategy to achieve universal access, combining grid extension, off-grid solutions, and renewable-based minigrids to reach underserved and remote communities.
The roadmap integrates geospatial mapping and leastcost electrification planning tools to identify where grid extension, mini-grids, or standalone systems offer the most cost-effective and reliable solutions, with a particular focus on islands and hardto reach areas. Implementation is underpinned by regular monitoring and data collection, including offgrid energy access surveys and reporting from electric cooperatives (ECs), which track connections, service quality, and reliability to inform adjustments to the programme.
The Renewable Energy Act of 2008 (RA 9513) provides the broader regulatory and incentive framework, including feedin tariffs and a package of fiscal and nonfiscal incentives, which. This supports private and communitydriven renewable energy projects in remote and underserved areas, including so-called “missionary areas” being newly electrified or stabilised under a special initiative by the National Power Corporation.
Legislation and policy documents
NGCP (Philippines). Transmission Development Plan 2024-2050. National Grid Corporation of the Philippines.
Secondary literature
Salac, Arizeo C., Jairus Dameanne C. Somera, Michael T. Castro, Maricor F. Divinagracia-Luzadas, Louis Angelo M. Danao, and Joey D. Ocon. “Off-Grid Electrification Using Renewable Energy in the Philippines: A Comprehensive Review.” Smart Cities [7(3), pp.1007–1043]. 2024.
Bertheau, Paul, and Caterina Cader. Electricity sector planning for the Philippine islands: Considering centralized and decentralized supply options. Reiner-Lemoine-Institut. 2019.
Further reading
UNDP and ETH Zürich. Derisking Renewable Energy Investment: Off-Grid Electrification: A Framework to Support Policymakers in Selecting Public Instruments to Promote Private Investment in Solar PV-Battery Mini-Grids in Developing Countries. United Nations Development Programme and ETH Zurich. 2018.
IRENA. Off-grid renewable energy solutions to expand electricity access: An opportunity not to be missed. International Renewable Energy Agency. 2019.
GOGLA. Providing Energy Access Through Off-Grid Solar: Guidance for Governments. Global OffGrid Lighting Association. 2024.
Mini-grid policies
Renewable mini-grid deployment requires governments to ensure regulatory clarity and provide tariff frameworks and financing mechanisms that make projects bankable and feasible for private developers. Mini-grid policies give communities and private developers essential information, technology quality standards, and regulatory certainty, including transparency about future grid expansion.
Key features of mini-grid policies include:
- Integrated planning: National electrification and energy transition plans can set quantitative deployment targets, ensuring mini-grids are treated as a core pillar rather than a niche add-on. Such targets strengthen planning, regulation and financing for renewable-based mini-grids.
- Clear legal and regulatory frameworks: Legal and regulatory frameworks for mini-grids must clarify the respective roles and responsibilities of developers and operators, setting out simple, proportional licensing rules so projects can move forward with regulatory certainty. Mini-grid laws and regulations also provide planning certainty for developers and communities.
- Clear governance structures: A clear division of responsibilities is needed among government offices for procurement, permitting, planning and community engagement at both national and sub-national levels to send clear investment signals to the private sector.
- Quality, safety, and reliability standards: Technical and service standards for equipment, installation, and operations – including regulations on operator maintenance – help ensure a reliable supply, protect consumers, and build trust in mini-grids as a long-term solution.
- Dedicated tariff regimes: A predictable, transparent tariff framework that allows cost-reflective or partially subsidised tariffs – tailored to mini-grid realities – can support community-benefit models that ensure financial viability while protecting consumers.
- Clear rules for interconnection: Policies should specify technical standards and commercial arrangements for mini-grid interconnection with the national power system, including what happens when the main grid arrives and under what terms power can be bought or sold.
- Community engagement and consumer protection: Participatory planning, transparent information on tariffs and service levels, and dedicated finance for community-owned projects ensure that mini-grids respond to local needs and remain socially and politically robust.
- Guidelines and regulations for e-waste disposal. Clear guidelines and regulations are also needed for the disposal of electronic waste, such as disused batteries, inverters or panels, to uphold environmental protection amid the development and operation of mini-grids.
Case study: Mini-grid deployment in Nepal
Nepal has long faced gaps in national grid expansion, with access to electricity in remote and mountainous regions remaining limited. To address this, the government has promoted off-grid electrification through village-based mini-grids led by the Alternative Energy Promotion Centre (AEPC). The programme and related initiatives have supported more than 3,000 community-managed micro-hydro plants and close to one million solar home systems nationwide, significantly expanding access in hard-to-reach areas.
Democratically elected Electricity User Committees and similar bodies take responsibility for project planning, financing, operation, and management, helping to ensure transparency and local ownership. Nepal’s approach also integrates gender and social inclusion, with an AEPC framework promoting participation by women and marginalised groups in the governance and management of local energy systems, even if implementation varies by in different areas.
Supported by non-governmental organisations and cooperatives, these decentralised renewable energy projects have enhanced equity, resilience and livelihoods, creating new income opportunities, made affordable electricity more accessible to remote communities, and improving health outcomes through clean lighting and reductions ined indoor air pollution, and making affordable electricity more accessible to remote communities.
Legislation and policy documents
Ministry of Energy, Water Resources and Irrigation (Nepal). वैकल्पिक ऊर्जा विकास समिति (गठन) आदेश, २०५३ (संशोधन सहित) [Order on the Formation of the Alternative Energy Development Board, 2053 B.S. (as amended)]. Government of Nepal. 1997.
Secondary literature
Butchers, Joe, Sam Williamson, and Julian Booker. “Micro-Hydropower in Nepal: Analysing the Project Process to Understand Drivers that Strengthen and Weaken Sustainability.” Sustainability (13, 1582). 2021.
GESI Working Group. A Common Framework for Gender Equality & Social Inclusion. Gender Equality and Social Inclusion (GESI) Working Group, International Development Partners Group, Nepal. 2017.
Mainali, Brijesh, and Samida Silveira “Renewable energy markets in rural electrification: Country case Nepal.” Energy for Sustainable Development (Vol. 16, issue 2, pp. 168–178). 2012.
UNDP. “Lighting Up Lives in Nepal’s Mountains.” United Nations Development Programme. 2025.
Further reading
IRENA. Policies and regulations for renewable energy mini-grids. International Renewable Energy Agency. 2018.
IRENA. Quality infrastructure for smart mini-grids. International Renewable Energy Agency. 2020.
Mini-Grids Partnership. State of the Global MiniGrids Market Report 2020. BloombergNEF and Sustainable Energy for All (SEforALL). 2020.
ESMAP. Mini Grids for Half a Billion People: Market Outlook and Handbook for Decision Makers. Energy Sector Management Assistance Program (ESMAP) report published by the International Bank for Reconstruction and Development / World Bank Group. 2019.
Off-grid solar home systems and solar energy kits
Solar home systems (SHS) and solar energy kits provide a cost-effective and rapidly deployable solution for electrifying remote and sparsely populated areas where grid extension is not viable. These distributed energy solutions have become a key component of rural electrification strategies in the past decade, as roll-out can advance local communities rapidly from basic or limited access to more robust, higher-quality service.
Key considerations for off-grid SHS and solar energy kits include:
- Integration into national electrification planning: Embedding SHS and solar energy kits within national and rural electrification strategies helps ensure that off-grid solutions complement grid expansion, reach remote populations efficiently, and contribute coherently to universal access goals.
- Innovative and inclusive financing models: Flexible payment mechanisms such as mobile money, pay-as-you-go, and pay-as-you-use arrangements lower affordability barriers, expand access for low-income households, and support sustainable market growth for off-grid solutions.
- Quality and performance standards: Minimum technical standards for equipment, combined with warranty and after-sales service requirements, protect consumers from low-quality products, build trust in off-grid technologies, and safeguard long-term system performance.
- Targeted fiscal incentives: Exemptions from value-added tax (VAT) and import duties for off-grid components and appliances can reduce system costs, improve affordability, and stimulate private investment across the off-grid value chain.
- Support mechanisms for vulnerable groups: Dedicated programmes for low-income households and other vulnerable users enhance equity in energy access and ensure that off-grid solutions contribute to poverty reduction and social inclusion.
- Workforce development and local capacity: Vocational training and skills development for installation, maintenance and repair strengthen local service ecosystems, create jobs, and improve the reliability and longevity of solar energy systems.
- E-waste management and environmental safeguards: Clear guidelines for the collection, recycling, and disposal of batteries, panels, and electronic components help mitigate environmental risks and ensure that off-grid electrification remains environmentally sustainable over time.
Case study: Solar home systems in Cameroon
Solar home systems, or SHS, have emerged as a key electrification solution in Cameroon, driven by frequent load shedding, limited grid reliability, and a dispersed population. In rural and peri-urban areas, grid extension is often technically complex and economically unviable, making decentralised solar solutions a practical alternative for improving household energy access.
Cameroon has adopted a series of fiscal measures to reduce the upfront cost of SHS and accelerate market uptake. Since January 2012, solar products – including photovoltaic cells and modules, inverters, transformers, and batteries – have been exempt from VAT, lowering consumer prices and supporting market development.
The 2024 Finance Law introduced a temporary exemption from customs duties and certain taxes on solar products for an initial period of around 24 months starting in 2024, aiming to further reduce import costs, improve affordability, and stimulate short-term deployment of solar technologies.
More recent policy measures include direct tax incentives and installation subsidies for households adopting solar energy systems, such as a 30% tax break on installation costs and an additional 15% direct financial subsidy, significantly reducing the initial investment required for SHS adoption.
Legislation and policy documents
Cameroon. Loi n° 2011/022 du 14 décembre 2011 régissant le secteur de l'électricité au Cameroun [Law No. 2011/022 of 14 December 2011 Governing the Electricity Sector in Cameroon]. Journal Officiel de la République du Cameroun. 2011.
Ministry of Finance (Cameroon). Circulaire n° 001/CF/MINEFI/CAB du 09 janvier 2012 relative aux modalités d'application des exonérations fiscales prévues à l'article 128 (6) et (17) du Code général des impôts [Circular No. 001/CF/MINEFI/CAB of 9 January 2012 on the Procedures for Applying the Tax Exemptions Provided for in Article 128(6) and (17) of the General Tax Code]. 2012.
Directorate General of Customs (Cameroon). Circulaire n° 125/MINFI/DGD du 21 mars 2024 précisant les modalités d'application des exonérations douanières prévues par l'article 5 de la loi de finances 2024 [Circular No. 125/MINFI/DGD of 21 March 2024 Clarifying the Procedures for Applying the Customs Exemptions Provided for in Article 5 of the 2024 Finance Law]. 2024.
Secondary literature
Power Africa Off-Grid Project. Off-Grid Market Assessment: Cameroon. United States Agency for International Development (USAID) / Power Africa. 2019.
Further reading
Lighting Global/ESMAP, PPIAF, DDP. The Off-Grid Solar Policy Toolkit: Supporting Inter-Ministerial Collaboration to Advance Energy Access, Digital Transformation, and Financial Inclusion. World Bank. 2024.
ESMAP. GOGLA and Dalberg. Off-Grid Solar Market Trends Report 2024. World Bank. 2024.
GOGLA. Global Off-Grid Solar Market Report: Annual Sales & Impact Data H2-2024. Amsterdam: GOGLA. 2025.
Productive energy uses
Productive uses of electricity – such as agro-processing, irrigation, cold storage, and rural enterprise activities – enable households and communities to generate income, add value to local resources, and improve local livelihoods. By anchoring demand and improving the financial viability of energy systems, productive uses make rural electrification sustainable and scalable while helping drive social and economic development.
Key policy considerations to promote productive energy uses include:
- Identification of productive-use opportunities: Integrating an assessment of potential productive uses into mini-grid and rural electrification planning helps align system size and service design with local economic activities, socio-economic conditions, and community needs, increasing electricity uptake and local value creation.
- Affordability of productive appliances: Reducing upfront costs for productive-use equipment – through measures such as VAT or import-duty exemptions for certified appliances – lowers an entry barrier for small businesses and farmers, accelerating adoption and improving the economic viability of electrification.
- Targeted financing instruments: Concessional loans, grants, and results-based financing can address capital constraints faced by micro-enterprises and rural users, enabling investment in productive technologies that would otherwise remain out of reach.
- Market access and value-chain integration: Ensuring access to input and output markets for businesses and farmers using electricity in productive activities can strengthen the business case for electrification, increase income and boost local employment.
- Skills development and capacity building: Training and technical support for users and local service providers can enhance the establishment, maintenance and expansion of productive energy uses, supporting longer-term economic sustainability and resilience.
Case study: Productive uses of solar energy in Kenya
Kenya’s energy policy framework explicitly recognises Productive Use of Energy (PUE), with a strong emphasis on solar energy, as a lever for rural economic development. In 2021, the Ministry of Energy established the National Roadmap for Scaling up Productive Uses of Renewable Energy (PURE) in Kenya. Additionally, the Inter-Governmental Committee on PURE was established in 2024 to lower barriers and create opportunities for scaling up PURE.
The framework targets productive applications such as agricultural processing, irrigation, cold storage and refrigeration, as well as energy-enabled services for small businesses. By linking energy access to economic activities, the policy seeks to increase demand for electricity, improve the financial viability of rural energy systems, and strengthen local economies.
Regulatory interventions have facilitated business models suited to productive uses, including pay-as-you-go solar systems, tax incentives (import duties and VAT) on solar PV products, and community mini-grids, as well as mini-grids anchored by productive loads. These approaches reduce upfront costs for users, improve affordability, and create more predictable revenue streams for energy providers.
Productive-use assessments are incorporated into mini-grid planning and design, ensuring that generation capacity, network sizing, and service offerings reflect both household and productive demand. The resulting integration supports more efficient system design and reduces the risk of underutilised infrastructure.
Kenya has developed roadmaps for scaling up productive uses in rural areas through inter-ministerial coordination and public-private dialogue. Complementary measures include improving tax conditions for productive technologies, enforcing quality standards, and aligning energy policy with agriculture, water, and industrial development strategies.
Legislation and policy documents
- Mission 300. Kenya National Energy Compact 2025–2030..
- Ministry of Energy and Petroleum (Kenya). National Road Map on Scaling Up Productive Use of Renewable Energy: Powering Agriculture and Enterprise with Climate-Smart Technologies. 2023.
- Ministry of Energy and Petroleum (Kenya). National Energy Policy 2025-2034 – final draft.
- Ministry of Energy. Kenya National Energy Efficiency and Conservation Strategy. 2020.
Secondary literature
- Endev. Productive Uses of Solar Energy in Kenya: Policy Action Plan. RISE, World Bank/ESMAP. 2021.
Further reading
ESMAP. Accelerating the productive use of electricity: Enabling energy access to power rural economic growth. World Bank. 2023.
GOGLA. Powering Lives and Livelihoods: Scaling Productive Uses of Renewable Energy (PURE) – Handbook for Governments & Development Partners. GOGLA. 2024.
WRI. Unlocking local private capital to finance the productive use of renewable energy (PURE) sector in Africa: A look at East African local financial institutions (LFIs). World Resources Institute. 2024.
Clean cooking
Clean cooking is an important component of energy access, with an estimated 2.1 billion people worldwide lacking access to clean cooking solutions. Cooking on three-stone fires is a major source of indoor air pollution in many countries and contributes to deforestation. It also perpetuates gender inequality, as women and children usually collect the firewood for cooking.
Various clean cooking solutions are available in the market. Improved cookstoves are a step up from the traditional three-stone fire and can achieve thermal efficiencies of up to 30%. Briquettes (from sustainable materials) and pellets offer better energy efficiency than firewood as cooking fuels. Liquefied petroleum gas (LPG) and biogas are cleaner, but they depend on supply chains.
Biogas also depends on substrate, i.e. a steady supply of organic feedstock such as animal manure, crop residues, or food waste, which must be collected, fed into digesters, and maintained over time. Some cultures also reject biogas in principle due to reservations about cooking with animal or human waste.
Electricity use remains expensive for cooking, especially in off-grid areas, where clean solutions compete with firewood that is readily available at no cost. However, e-cooking is becoming a viable option in urban and peri-urban areas.
Clean cooking policy should consider:
- National strategy: Clean cooking strategies must take account of a range of technological solutions, such as LPG and biomethane fuels, e-cooking, more efficient cookstoves and other options.
- Financial incentives: Subsidies, tax incentives, result-based finance, pay-as-you-go, bulk procurement programmes and other financial incentives can all support clean cooking.
- E-cooking strategy: Dedicated strategies can promote cooking with electricity in peri-urban and rural areas.
- Quality standards: Clean cooking appliances require effective and enforceable quality standards.
- Local manufacturers and distributors: Support for local stove manufacturers can strengthen their supply chains, reduce costs, and create local jobs.
Case study: Expanding access to clean cooking in Tanzania
In 2021, only 6.9% of Tanzanians had access to clean cooking solutions, with most of the population relaying on firewood and charcoal for cooking. The Tanzanian National Clean Cooking Strategy and Action Plan (2021-2031) laid out strategies to promote clean cooking solutions, aiming to safeguard health as well as the environment, including by improving kiln efficiency, expanding community-based forest management, formalising markets, and promoting alternative livelihoods.
The updated Tanzanian National Clean Cooking Strategy (2024-2034) lays out strategies to promote clean cooking solutions with an aim to safeguard health as well as the environment and achieve 80% adoption of clean cooking solutions by 2034. It positions electric cooking as a key solution for grid-connected households.
The strategy outlines eight objectives, namely: increasing public and institutional awareness of clean cooking; enhancing access to raw materials and infrastructure for clean cooking; reducing costs for clean cooking solutions; developing enabling policies and guidelines; promoting investment; fostering research and innovation; providing capacity development for project implementers; and incorporating gender equality considerations.
Legislation and policy documents
Ministry of Natural Resources and Tourism (Tanzania). The National Charcoal Strategy and Action Plan (2021–2031). United Republic of Tanzania. 2022.
Secondary literature
Leary, J., S. Batchelor, S. Sago, A. Minja, K. Chepkurui, E. Sawe, and J. Shuma, M. Leach, N. Scott, E. Brown, and F. Yamba. Policy & National Markets Review for eCook in Tanzania – October 2019 Working Paper. TaTEDO, Loughborough University, University of Surrey & Gamos Ltd. supported by Innovate UK, UK Aid (DfID) & Gamos Ltd. 2019.
Further reading
Bisaga, Dr Iwona, Esméralda Sindou, Jamie Stevenson, Professor Fernando de Cuadra, Dr Eduardo Sanchez Jacob, Professor Matthew Leach, and Dr Alexandros Korkovelos. Integrating Clean Cooking into National Energy Access Planning. Report commissioned by Sustainable Energy for All (SEforALL) and the Modern Energy Cooking Services (MECS) programme, with support from Comillas Pontifical University. SE4ALL. 2024.
Ministry of Energy and Petroleum (Kenya). Kenya National Cooking Transitions Strategy 2024-2028. Republic of Kenya. 2024.
Clean Cooking Alliance. 2023 Clean cooking industry snapshot. 2023.
IRENA. Renewables-based electric cooking: Climate commitments and finance. International Renewable Energy Agency. 2023.