RENEWABLE ENERGY FOR REMOTE COMMUNITIES

The document outlines strategies for extending electricity access to 'last mile' remote communities—including indigenous, displaced, and mountain populations—using decentralized renewable energy (DRE). It argues that off-grid solutions, particularly solar PV and hybrid systems, are often more cost-effective than grid extension in low-demand, remote areas. The guide emphasizes community engagement, local capacity building, and the transition from grant-based funding to market-based impact investment to ensure long-term sustainability. It details various delivery mechanisms, such as solar co-operatives and micro-utilities, and provides comparative data on renewable technologies and government program models from Brazil, Malaysia, and Canada.

• Grid extension is often financially unviable for remote areas due to high infrastructure costs and low electricity demand; for example, a rural household connection in Tanzania costs USD 2,300, nearly double the cost in urban areas.
• Off-grid renewable solutions generally require lower investment than grid extension, with forecast scenarios showing cost reductions of 30% for low-demand estimations and 5% for high-demand estimations.
• Solar PV is the most widely adopted off-grid technology due to its modularity, ease of deployment, and scalability, though hybrid renewable energy sources (HRES) are used to ensure reliability by combining renewables with batteries and diesel generators.
• Sustainable project operations depend on early and continuous community engagement, which includes co-designing projects, setting realistic tariffs, and training local youth and women in operations and maintenance (O&M).
• The document identifies several successful community-centric delivery models, including solar co-operatives, electric co-operatives, and village federations, which foster local ownership and financial sustainability.
• Most remote energy projects rely heavily on grants for upfront capital expenditure (Capex), with beneficiary equity contributions typically remaining low at 1% to 3%.
• To achieve scalability, there is a need to shift from pure aid to market-based solutions, utilizing 'patient capital'—which prioritizes poverty alleviation and accepts higher risk and longer return horizons—and blended grant-debt capital.
• Government programs like Brazil's 'Luz para Todos', Malaysia's 'SARES', and Canada's 'CERRC' demonstrate different institutional approaches to universal access, ranging from fully subsidized models to those using power purchase agreements (PPAs).

APA

Narayanswamy, C., & Siddiqui, K. (2023). RENEWABLE ENERGY FOR REMOTE COMMUNITIES. Alliance for Renewable Electrification. https://www.renewelec.org/wp-content/uploads/2024/09/IRENA_Remote_Communities_2023.pdf

Chicago

Narayanswamy, Chitra, and Kamran Siddiqui. RENEWABLE ENERGY FOR REMOTE COMMUNITIES. Alliance for Renewable Electrification, 2023. https://www.renewelec.org/wp-content/uploads/2024/09/IRENA_Remote_Communities_2023.pdf.

Wikipedia

{{cite report |last1=Narayanswamy |first1=Chitra |last2=Siddiqui |first2=Kamran |title=RENEWABLE ENERGY FOR REMOTE COMMUNITIES |publisher=Alliance for Renewable Electrification |date=2023 |url=https://www.renewelec.org/wp-content/uploads/2024/09/IRENA_Remote_Communities_2023.pdf |access-date=23 October 2026 |via=Climate Insights Directory}}

BibTeX

@techreport{narayanswamy2023renewable, author = {Narayanswamy, Chitra and Siddiqui, Kamran}, title = {{RENEWABLE ENERGY FOR REMOTE COMMUNITIES}}, institution = {Alliance for Renewable Electrification}, year = {2023}, url = {https://www.renewelec.org/wp-content/uploads/2024/09/IRENA_Remote_Communities_2023.pdf}, urldate = {2026-10-23}, note = {Indexed by Climate Insights Directory} }