Pakistan Avoids LNG Shocks Due to Iranian Bombing With Solar Panels

Support CleanTechnica’s work through a Substack subscription or on Stripe.

The disruption of LNG flows through the Strait of Hormuz due to the United States and Israel attempting to bomb Iran into regime change quickly exposes how dependent many countries remain on imported fuels. Japan, South Korea, Bangladesh, and several Southeast Asian economies rely on steady cargo deliveries to keep gas turbines running and lights on. When shipments stop or even slow, the result is a scramble for replacement cargoes in the global spot market. Prices rise quickly. Governments intervene to prioritize supply for power generation. Utilities burn through foreign currency reserves. Energy security becomes a daily concern instead of an abstract planning exercise.

In the middle of this type of crisis, Pakistan appears in a different position than expected. The country has historically struggled to secure LNG cargoes and pay for them. Yet during the recent disruptions it has faced less immediate pressure than other countries. The explanation does not lie in a new domestic gas discovery or a major pipeline project. It lies in solar panels that have spread across rooftops and industrial facilities over the past two years.

Pakistan installed roughly 17 GW of solar capacity in 2024. That surge brought the country’s total solar capacity to about 22 GW according to import data and industry assessments reported by Ember and other energy analysts. In 2025 the expansion continued with another 15 GW installed. In two years Pakistan added 32 GW of solar generation.

To put that scale in perspective, 32 GW of solar operating at a 20% capacity factor generates about 56 TWh of electricity per year. Pakistan’s total electricity generation in recent years has been around 150 TWh annually. The new solar installations therefore represent energy equal to more than one third of annual national electricity demand if they operated at that average output. Solar of course produces only during daylight hours. During those hours, however, the effect is much stronger than annual averages suggest. Midday electricity production from solar can now rival the output of several large gas power stations combined.

Most of the capacity added during this surge is distributed rather than centralized. Large utility scale projects account for some installations, but the majority appear on factory rooftops, commercial buildings, warehouses, and homes. Businesses facing unreliable grid electricity and rising tariffs began installing their own solar systems. Module prices had fallen to roughly $0.10–$0.12 per watt for mainstream Chinese panels in global markets. A 1 MW rooftop installation in emerging markets could be built for roughly $600,000 to $800,000 including inverters and mounting equipment, although costs are often closer to $1.3 million in advanced economies.

Factories with annual electricity consumption of 2 GWh could offset a large share of that demand during daylight hours. The economics are straightforward. If grid electricity costs $0.13 to $0.16 per kWh, the typical range in Pakistan, and rooftop solar produces electricity at roughly $0.03 to $0.05 per kWh over the life of the system, each kWh generated locally saves about $0.08 to $0.12. For a facility producing 1.5 GWh per year from solar, the annual savings range from about $120,000 to $180,000. Payback periods fall well below seven years in many cases. These economics spread quickly through commercial and industrial sectors.

As solar generation spreads across rooftops, the daily load profile of the electricity system changes. Gas power plants that once ran steadily through the day now see demand drop during midday hours. Electricity demand from the grid falls as factories self generate. If a region previously required 10 GW of generation at noon and distributed solar now provides 4 GW locally, grid demand falls to 6 GW. Gas plants reduce output or shut down temporarily. Capacity factors decline. A combined cycle gas plant designed to run 70% of the time may find itself operating only 40% of the time. When that occurs across a national system, gas consumption falls even if total electricity demand continues to grow.

Pakistan’s LNG import strategy was designed during a period when policymakers expected steady increases in gas demand. Long term contracts with suppliers such as Qatar were structured around rising electricity consumption and the assumption that gas would provide a growing share of generation. LNG import terminals and pipelines were built to support this trajectory. A typical LNG cargo carries about 3 TWh of energy equivalent. If a country imports 10 cargoes per month, that represents roughly 30 TWh of annual gas energy. Power plants convert about 50% of that energy into electricity, yielding around 15 TWh of generation. When distributed solar begins displacing daytime gas generation, some of those planned imports become less necessary.

Evidence of this shift began appearing in Pakistan’s LNG procurement decisions during 2024 and 2025. Reports from Reuters and other outlets indicated that Pakistan sought to defer or reschedule several LNG cargoes. Domestic gas demand had softened during daylight hours, and utilities faced difficulty absorbing contracted volumes. LNG contracts often include flexibility clauses that allow cargoes to be deferred to later delivery windows. Pakistan made use of those provisions. The situation illustrates a broader energy transition dynamic. Infrastructure contracts built around expectations of rising fossil fuel demand can become difficult to manage when renewable generation expands faster than planners expected.

The disruption of LNG supply routes then intersected with this changing demand landscape. Countries heavily dependent on LNG imports suddenly faced reduced availability and rising prices. For power systems relying on gas for a large share of generation, the risk of electricity shortages increases quickly when shipments are delayed. Pakistan still depends on LNG for part of its electricity supply. Gas remains important for balancing and evening demand. The difference is that solar generation now covers a significant share of daytime electricity consumption. If midday demand from the grid falls by several gigawatts because factories and commercial buildings generate their own electricity, the amount of gas required to keep the system operating declines. In practical terms, a 4 GW reduction in midday grid demand can reduce gas consumption by roughly 70 million cubic feet per hour assuming combined cycle plant efficiencies. Over a 10 hour daytime period that equates to about 700 million cubic feet of gas saved. Multiply that across hundreds of days each year and LNG requirements fall.

This outcome resembles a form of energy security strategy even though it emerged through market decisions rather than national planning. Distributed solar generation reduces dependence on imported fuels. It lowers the amount of foreign currency required to purchase energy. It spreads generation capacity across millions of rooftops rather than concentrating it in a few large power stations. If a gas shipment is delayed, the electricity system still faces challenges during evening hours when solar output declines. During daylight hours, however, the system can operate with far less imported fuel. That partial independence reduces vulnerability to disruptions in shipping lanes or commodity markets.

The story does not end with Pakistan. Global solar manufacturing capacity continues to expand rapidly. China dominates this industry. Chinese factories produced well over 600 GW of solar modules in 2025 according to data from the International Energy Agency and industry groups. Domestic installations within China absorb a large portion of that output, but not all of it. When China’s internal market slows due to grid constraints or policy changes, with one big shift occurring in September 2025, excess modules enter export markets. Solar module prices have fallen repeatedly during periods of oversupply. In recent quarters, global spot prices for solar modules have fallen to roughly $0.08 to $0.12 per watt. At that price level, the cost of solar electricity falls further, and installations accelerate in markets where energy costs remain high.

These waves of low priced solar hardware often move toward emerging economies. Many developing countries face the same structural conditions that drove Pakistan’s solar expansion. Electricity demand grows quickly as populations urbanize and industrialize. Grid infrastructure struggles to keep up with demand. Imported fuels such as LNG, diesel, or fuel oil impose large costs on national budgets. When solar modules become cheap enough, businesses and households install them regardless of national planning strategies. The technology is modular. A single rooftop system of 10 kW can generate around 15,000 kWh per year in sunny regions. A factory installing 1 MW can produce around 1.5 GWh annually. Thousands of such installations aggregate into gigawatts of generation capacity.

Africa provides an example of where this dynamic is accelerating next. The continent installed only a few gigawatts of solar annually until recently. Import data compiled by Ember showed that African countries imported more than 15 GW of solar panels in the twelve months leading into 2025, with growth rates exceeding 60% year over year. If global solar manufacturing continues producing hundreds of gigawatts per year and domestic Chinese demand fluctuates, a portion of that supply will flow into African markets. As internal African barriers to trade continue to decline under the continent’s free trade agreement, cheap Chinese solar panels will flood the continent. That level of deployment would represent a major shift for a continent whose electricity systems historically depended on hydro, diesel generation, and limited coal or gas infrastructure.

Solar generation rarely expands alone. Battery storage tends to follow. Lithium iron phosphate battery costs have declined to around $100 per kWh at the pack level in many global markets, and well under that in China. A commercial facility installing a 1 MW solar array might pair it with a 2 MWh battery system costing roughly $200,000 to $250,000 depending on local installation costs. The battery allows excess solar generation produced during the afternoon to supply electricity during evening hours. If a factory consumes 3 MWh per evening shift, a battery can shift daytime solar production into those hours. The economics again depend on energy prices. If grid electricity costs $0.15 per kWh and solar electricity costs $0.05 per kWh, storing and shifting solar energy still produces savings even after accounting for battery losses.

Notably, Pakistan would have been in an even better position if its tariffs on Chinese batteries were as low as the ones on Chinese solar. Instead, the 40% tariffs on batteries compared to 10% for solar meant that battery imports and deployment were much lower than solar. Avoiding oil and gas shocks and fragile energy markets means sensible tariff reductions on technologies that avoid them.

Transportation electrification begins appearing once cheap electricity becomes widely available. Two wheelers dominate personal transportation in much of the developing world. Electric motorcycles and scooters already dominate two wheeler markets in parts of Asia. In several African countries electric motorcycles are beginning to replace gasoline models in delivery and taxi fleets. A typical electric motorcycle consumes about 40 Wh per kilometer. If it travels 100 kilometers per day, it uses 4 kWh of electricity. Solar panels generating 1 kW of peak output can produce about 5 kWh of electricity per day in sunny regions. That means a single rooftop panel installation can supply most of the daily energy needed for an electric motorcycle. When fleets of such vehicles operate using locally generated electricity, oil demand declines.

Electric buses and delivery vehicles follow similar patterns in larger urban markets. A city bus traveling 200 kilometers per day may consume around 1.2 kWh per kilometer, requiring roughly 240 kWh daily. A solar installation of 50 kW producing 250 kWh per day could supply that energy. Charging infrastructure then becomes an extension of the electricity system rather than a separate fuel supply chain. The connection between distributed solar and electric mobility becomes stronger as electricity prices fall relative to petroleum fuels.

This sequence of solar generation, battery storage, and electric mobility represents a departure from historical development patterns. Industrializing countries traditionally built centralized coal or gas power plants, expanded transmission networks, and then gradually electrified transportation over decades. Modular clean technologies allow a different pathway. Countries can deploy distributed solar quickly using private capital. Batteries smooth supply variations and reduce dependence on centralized grid reliability. Electric vehicles convert locally generated electricity into transportation energy. The sequence compresses decades of infrastructure development into shorter timeframes.

Pakistan’s experience offers an early example of this shift. The country did not plan a 32 GW solar expansion over two years. Businesses and households responded to price signals and reliability concerns. The resulting generation capacity now produces tens of terawatt hours of electricity annually and displaces significant volumes of imported fuel during daylight hours. When geopolitical disruptions affect fuel supply chains, the impact on the electricity system becomes smaller than it would have been before the solar surge.

The same economic drivers exist in many other regions. High electricity tariffs, expensive imported fuels, and falling costs for solar modules and batteries create conditions for rapid adoption. Global manufacturing capacity ensures that hardware supply remains large. When panel prices drop during periods of oversupply, installations accelerate. The combination of cheap solar, affordable batteries, and growing electric mobility could allow developing economies to move directly toward electricity systems with lower fuel dependence. Pakistan provides a clear demonstration of how quickly this transformation can begin once the economics align.

The takeaway for policy makers globally over the latest oil and gas price shocks is that there is an alternative. Lower tariffs on Chinese solar, batteries and EVs and aggressively decarbonize electricity and transportation. Take advantage of the Chinese glut to move technology into your countries which eliminates the need for volatile fossil fuels. One container ship of solar panels eliminates the need for 50 tankers of LNG.