Agrivoltaics in Pakistan — Solar Panels + Farming on the Same Land
Agrivoltaics — the practice of combining solar power generation with agricultural production on the same land — is gaining serious attention as a solution for Pakistan’s dual challenges of energy poverty and water-stressed agriculture. Panels are raised above crops, providing shade that reduces crop water needs, while the land below remains productive. Globally, agrivoltaic installations have demonstrated 60–70% more combined land-use value than solar or farming alone. Here’s what this technology could mean for Pakistan.
What Is Agrivoltaics?
In a standard ground-mounted solar installation, the land under and around panels is wasted — typically covered with gravel or grass. Agrivoltaics changes this by elevating panels 2–4 meters above ground on taller mounting structures, allowing crops, livestock, or greenhouses to operate beneath. The panels provide partial shade, and the crops provide a cooling effect that actually improves panel efficiency (solar panels perform better in cooler conditions).
Why Agrivoltaics Is Particularly Relevant for Pakistan
| Pakistan Challenge | How Agrivoltaics Helps |
|---|---|
| Water scarcity in agriculture | Panel shade reduces crop evapotranspiration by 20–50% — same yield with less water |
| Extreme summer heat damaging crops | Partial shade protects heat-sensitive crops during 45°C+ days |
| High electricity cost for tube wells | On-site solar powers irrigation pumps directly — eliminates WAPDA electricity for farming |
| Land competition (food vs energy) | Same land produces both food and energy — no trade-off required |
| Rural energy poverty | Agrivoltaic systems power rural homes and farm operations off-grid |
Crops That Benefit Most From Agrivoltaic Shade in Pakistan
- Vegetables: Tomatoes, chilies, spinach, and leafy greens — all benefit from partial shade in Pakistan’s heat. Studies show 10–20% yield increase under panels in hot climates
- Herbs and spices: Coriander, mint, and fenugreek are shade-tolerant and can thrive under agrivoltaic panels
- Fodder crops: Alfalfa and other fodder plants maintain yield under partial shade while benefiting from reduced water consumption
- Fruit orchards: Mango, guava, and citrus trees can coexist with raised panels — the trees provide additional cooling for panels
- Livestock grazing: Goats and sheep can graze under panels — their presence helps with weed control and provides panel cooling through humidity
Pakistan Agrivoltaics — Current Status (2026)
Pakistan’s agrivoltaics sector is at very early stages. The concept is understood in academic and policy circles but large-scale commercial deployment hasn’t happened yet. Key early movers:
- Several pilot projects in Bahawalpur and Multan regions combining solar tube well power with crop cultivation under elevated panels
- AEDB and PSDP discussions on agrivoltaic policy framework as part of 2030 renewable energy planning
- Private farm owners in Khanewal and Faisalabad experimenting with solar-shaded greenhouse cultivation
ℹ️ The solar tube well opportunity: Pakistan has over 1.2 million agricultural tube wells — most running on diesel or WAPDA electricity at enormous cost. Converting even 10% to solar agrivoltaic systems would dramatically reduce agricultural energy costs and water consumption. This is arguably the single largest practical agrivoltaics application in Pakistan’s context.
Challenges for Pakistan Agrivoltaics
- Higher installation cost: Elevated mounting structures cost 30–50% more than standard ground-mount racking — a barrier for small farmers
- Financing gap: Pakistan’s agricultural finance sector lacks specific agrivoltaic loan products
- Technical knowledge: Farmers and installers lack training on combined agrivoltaic systems
- Land tenure: Much Pakistani farmland is leased — tenants can’t install permanent infrastructure
Frequently Asked Questions
❓ Can a small farmer in Pakistan afford an agrivoltaic system?
A small farmer with 1–2 acres could install a 5–10kW agrivoltaic system for Rs. 800,000–1,500,000 including elevated racking. This is currently beyond most small farmers’ independent means, but agricultural loan programs from ZTBL (Zarai Taraqiati Bank) and commercial banks can be structured to cover this cost with repayment from reduced electricity and water costs. Payback periods of 4–7 years are realistic for tube well replacement applications.
❓ Do agrivoltaic panels produce less electricity than standard ground-mount?
Often more, not less. Crops and soil beneath panels transpire moisture, which cools the panels compared to a bare gravel ground-mount installation. Cooler panels are more efficient. Studies in hot climates show agrivoltaic panels producing 5–10% more electricity than equivalent ground-mount panels on bare soil, because panel temperatures are 5–10°C lower due to crop cooling effects.
❓ Is there any government support for agrivoltaics in Pakistan?
As of 2026, there is no specific agrivoltaic subsidy or policy framework in Pakistan. AEDB’s general solar subsidy programs apply, but no agricultural-specific agrivoltaic support exists. Agrivoltaics falls under both the Ministry of Energy and the Ministry of National Food Security, creating jurisdictional complexity. Policy advocates are pushing for a dedicated agrivoltaic pilot program under CPEC agricultural development frameworks.
❓ Which part of Pakistan is most suitable for agrivoltaics?
Punjab and Sindh’s agricultural heartland — Bahawalpur, Multan, Hyderabad, and Larkana districts — offer the highest combined agrivoltaic potential. These areas have maximum solar radiation, severe heat stress on crops, critical water scarcity, and high dependence on diesel and WAPDA tube well electricity. The combination of energy cost savings and water efficiency benefits is most compelling in these regions.
☀️ Solar for agriculture — see system prices
Sources & references
Tariff, net-metering, and policy details on this page draw on the following official sources. Rates change often, so confirm current figures with the relevant authority or a licensed installer before you decide.
- NEPRA — National Electric Power Regulatory Authority: electricity tariffs and the 2026 shift from net metering to net billing.
- AEDB — Alternative Energy Development Board: solar policy, installer standards, and net-metering guidance.
- Your local distribution company (DISCO) — for example LESCO, K-Electric, IESCO, MEPCO, PESCO or QESCO — for area-specific tariffs and the net-metering application process.
