Health Facility Capital Landscape

The report identifies a significant investment gap in health facility electrification across seven priority markets, estimating a total need of $2.6 billion, with $1.4 billion for public and $1.2 billion for private facilities. It argues that the current dominance of donor-funded 'Design, Build, Operate, Transfer' (BOT) models is unsustainable due to a lack of funding for ongoing operation and maintenance (O&M). The analysis suggests a shift toward 'Energy as a Service' (EaaS) models, which would require new financial de-risking instruments—such as sovereign credit guarantees, liquidity pools, and performance-linked grants—to attract private capital and ensure long-term sustainability.

• There is a substantial investment deficit for health facility electrification (HFE) in the analyzed markets, totaling approximately $2.6 billion, with $1.4 billion required for public facilities and $1.2 billion for private facilities. India and Nigeria alone account for roughly 70% of this total need.
• The report estimates a global funding gap for HFE of at least $3.6 billion, based on a conservative extrapolation from the seven analyzed countries.
• Current HFE deployment is heavily reliant on donor grants, with approximately 95% of identified investments in the seven analyzed countries taking the form of capex grants. This creates a systemic failure in long-term sustainability because funding is geared toward installation rather than ongoing operation and maintenance (O&M).
• The prevailing 'Design, Build, Operate, Transfer' (BOT) model is deemed unsustainable because assets are transferred to public facilities that lack the technical expertise and budget for maintenance, often leaving systems neglected after the donor's short-term O&M budget expires.
• Public health facilities face severe bankability challenges due to unreliable government payors, bureaucratic inertia, and strained national budgets, which limit the private sector's willingness to enter into long-term contractual arrangements.
• Private health facilities, while generally having a higher ability to pay than public ones, still struggle with bankability due to thin operating margins, high fixed costs, and an inability to cover upfront capex costs.
• To scale HFE, the report recommends transitioning to 'Energy as a Service' (EaaS) models. For these to be viable, developers require specific de-risking tools: guarantees to limit default risk, performance-linked grants to ensure capex payback, and concessional debt to reduce breakeven time.
• Demand aggregation is identified as a critical intervention to make HFE sustainable, particularly for remote Tier 1 facilities that are too small to serve as anchor loads for mini-grids on their own. Aggregating demand allows O&M costs to be shared across multiple customers.

APA

Sustainable Energy for All (2023). Health Facility Capital Landscape. https://www.seforall.org/system/files/2024-02/Health%20Facility%20Electrification%20Capital%20Landscape%20Final%20Report_SEforALL.pdf

Chicago

Sustainable Energy for All. Health Facility Capital Landscape. 2023. https://www.seforall.org/system/files/2024-02/Health%20Facility%20Electrification%20Capital%20Landscape%20Final%20Report_SEforALL.pdf.

Wikipedia

{{cite report |author=Sustainable Energy for All |title=Health Facility Capital Landscape |date=October 2023 |url=https://www.seforall.org/system/files/2024-02/Health%20Facility%20Electrification%20Capital%20Landscape%20Final%20Report_SEforALL.pdf |access-date=23 October 2026 |via=Climate Insights Directory}}

BibTeX

@techreport{sustainableenergyforall2023health, author = {{Sustainable Energy for All}}, title = {{Health Facility Capital Landscape}}, institution = {Sustainable Energy for All}, year = {2023}, month = oct, url = {https://www.seforall.org/system/files/2024-02/Health%20Facility%20Electrification%20Capital%20Landscape%20Final%20Report_SEforALL.pdf}, urldate = {2026-10-23}, note = {Indexed by Climate Insights Directory} }