2025-01-19-IRENA-可再生能源电气化_加强莫桑比克的医疗服务（英）_68页_6mb

Electrification with Renewables: Enhancing Healthcare Delivery in Mozambique

Executive Summary Overview

• Challenges: Mozambique's healthcare system faces high disease burden (e.g., HIV/AIDS, malaria), limited reliable energy access, and frequent climate disasters impacting service delivery.
• Solution: Decentralized renewable energy (DRE) systems can improve healthcare services, especially in remote areas, by providing reliable power for medical equipment, diagnostics, and vaccination programs.
• Key Findings:
  • Energy Needs: Primary healthcare facilities (Level I) require tailored DRE solutions, with designs based on load profiles (critical vs. non-critical).
  • Cost Estimates: USD 16.5 million needed for primary healthcare electrification across 1,649 facilities. Health centers with backup solar systems would cost an additional USD 7.7 million.
  • Staff Quarters: Electrification for staff quarters would cost USD 4,023 per quarter, totaling USD 6.6–17.4 million annually.
  • Recommendations: Strengthen government coordination, conduct site-specific assessments, develop blended financing, build capacity, and establish robust O&M frameworks.
• Impact: DRE integration can reduce healthcare costs, improve service reliability, and enhance resilience to climate events.

## Key Technical and Financial Insights

### **System Designs (Solar PV Focus)**
- **Rural Health Centres (RHCs)**:  
  - Type I: 10–15 kWp capacity for critical loads; Type II: 3–4 kWp for backup power.  
  - Components: High-capacity LiFePO₄ batteries (4–35 kWh) and inverters support autonomy.  
- **Urban Health Centres (UHCs)**:  
  - Type A/B/C: 14–28 kWp capacity with integrated backup systems, focusing on maternal care and diagnostics.  
- **Staff Quarters**: Configured for basic lighting, fans, and refrigeration, capacity scaling with occupancy.  

### **Cost Estimations (USD)**
- **Total Investment**:  
  - Primary healthcare (all loads backup): ~USD 16.5M for 1,649 facilities.  
  - Critical loads backup: ~USD 7.7M.  
  - Staff quarters: ~USD 13M annually.  
- **Breakdown**: Panels (66%), installation (4%), batteries and inverters (total ~16%), O&M (10%).  

### **Funding & Business Models**
- **Options**:  
  1. CAPEX subsidy + private operator O&M.  
  2. Public sector funding + energy-as-a-service models.  
  3. Blended finance (grants, loans, private equity).  
- **Recommendation**: Long-term O&M contracts and dedicated sustainability funds are crucial.  

## Operational Recommendations

1. **Strengthen Coordination**: Establish an inter-ministerial task force (Health + Energy) for policy alignment.  
2. **Financing**: Use blended financing; explore Public-Private Partnerships (PPPs).  
3. **Capacity Building**: Train healthcare staff and technicians in DRE system maintenance.  
4. **Monitoring**: Implement remote monitoring systems for real-time performance tracking.  
5. **O&M Funds**: Allocate dedicated budgets for spare parts, battery replacements, and emergency repairs.  

## Strategic Implications

- **Sustainability**: DRE reduces reliance on diesel and enhances climate resilience, aligning with SDG7 (renewable energy) and SDG3 (health).  
- **Economic Efficiency**: Reduces energy costs, improves healthcare service delivery, and creates local jobs.  
- **Scalability**: The modular design framework allows phased adoption across regions.  

This summary distills over 100 pages of technical details into actionable insights, emphasizing policy, finance, and operational strategies for DRE in healthcare.