Why Pakistan’s Energy Crisis Isn’t Just About Mismanagement: The Hidden Cost of Geography and Climate

The real cost of living in Pakistan isn’t just about electricity tariffs or gas prices. It is built into the way we design our homes, businesses, cities, and energy infrastructure.

Walk into a house in Bangkok and you’ll notice something: the walls are thinner, ventilation is simple, and air conditioning runs at a steady hum throughout the year. It works because Thailand’s temperatures remain relatively stable. From January to December, much of the country experiences temperatures between 15°C and 35°C. Much of its residential infrastructure is optimized primarily for cooling rather than seasonal heating.

Now walk into a house in Berlin. Thick walls. Heavy insulation. Powerful heating systems. The infrastructure is designed to retain heat because winter temperatures regularly fall below freezing while summers are generally mild. For decades, heating has been the primary climate challenge.

Pakistan? We have both problems. At the same time.

The Geography Trap

In Islamabad, winter temperatures can fall below 5°C, while June temperatures often approach 45°C. Karachi ranges from around 15°C to nearly 45°C. Lahore has recorded temperatures from below freezing in winter to above 47°C in summer.

That isn’t just a wide temperature range. It is a structural challenge.

A house designed for Thailand would struggle during Pakistan’s winters. A house designed for Germany would struggle during Pakistan’s summers. Pakistan needs buildings that can remain warm during cold months and cool during hot months. That means better insulation, effective ventilation, heating systems, cooling systems, and construction standards that perform throughout the year.

The cost is significantly higher because we are solving two opposite problems.

Consider the investment required. In Thailand, a typical residential cooling system may cost the equivalent of a few hundred US dollars because cooling is the primary requirement. In Germany, households invest heavily in heating systems and insulation because that is where most of the energy demand lies.

In Pakistan, families often need both. A quality split air conditioner costs between PKR 100,000 and PKR 200,000. Heating equipment such as geysers, room heaters, or boilers adds another PKR 20,000 to PKR 200,000. Proper insulation, which makes both systems more efficient, can add hundreds of thousands of rupees to construction costs.

You’re not just paying for equipment. You’re paying to solve two opposite seasonal problems.

The Western Advantage

Recent European summers have repeatedly broken temperature records. Southern France has exceeded 40°C. Spain has experienced infrastructure damage during extreme heat. Even cities like London, where temperatures above 30°C were once rare, have struggled with overheating transport systems and buildings.

The reason is simple. Much of Europe’s infrastructure was designed primarily for cold weather. Cooling was never a major design consideration.

Pakistan has lived with extreme summer temperatures for centuries. Long before electricity, civilizations across the Indus Valley and the Mughal era developed architectural and lifestyle adaptations to survive the heat. Homes were built with thick masonry walls, high ceilings, courtyards, verandas, and carefully placed openings to encourage natural ventilation. Wealthier households used water features, ponds, fountains, and channels to cool surrounding air, while servants manually operated large fans, known as punkahs, to provide relief during the hottest months. These were not luxuries born out of preference; they were practical responses to a climate that demanded adaptation.

In contrast, much of Northern and Western Europe evolved around retaining heat rather than removing it. Buildings emphasized insulation, smaller windows, fireplaces, and compact layouts to endure long, harsh winters.

Today’s buildings, electricity demand patterns, and daily routines continue that long tradition, although modern air conditioners and electric fans have largely replaced architectural and human-powered cooling.

That adaptation came with a cost that many Western countries are only beginning to face. As global temperatures continue to rise, they must retrofit buildings, upgrade cooling systems, and modernize electrical grids. These investments will cost hundreds of billions of dollars over the coming decades.

The Energy Bill Reality

Climate control accounts for roughly 40 to 50 percent of residential energy consumption worldwide. However, the distribution depends heavily on geography.

In Germany or Canada, heating dominates. Heating systems account for most household energy use during long winters.

In Thailand or Malaysia, cooling dominates. Air conditioning operates throughout much of the year, but it addresses one consistent demand.

Pakistan experiences both.

During winter, residential heating through geysers and room heaters becomes a major contributor to electricity and gas consumption. During summer, fans and air conditioners become the primary drivers of demand.

A household consuming 300 kWh of electricity during summer, roughly one-third of that consumption goes to cooling. During winter, a similar share of household energy can go toward heating.

Compare this with countries that optimize for only one climate challenge, and the difference becomes clear. Pakistan pays more per household for climate control because it must manage two opposing seasonal demands.

The Manufacturing Cost

The same dynamic affects industry.

Many manufacturing facilities in Pakistan need to manage both seasonal heating and cooling. Heating is required for industrial processes during colder months, while cooling is necessary to maintain working conditions and protect equipment during summer.

This increases capital investment, operating costs, and overall energy consumption compared with countries optimized for a single dominant climate.

Energy economics, not just labour costs, influence manufacturing competitiveness. Infrastructure investment matters. Utility costs matter. Geography shapes both.

The Power Generation Consequence

The challenge becomes even larger when viewed at the national level.

During summer, millions of households switch on fans and air conditioners, pushing electricity demand to its annual peak. In winter, the pressure shifts. Space heating, water heating, and cooking significantly increase demand for natural gas, while electric heaters also add to electricity consumption in areas with limited gas availability or frequent gas shortages. The energy mix changes, but the overall demand on the country’s energy infrastructure rises once again.

Germany’s electricity system has historically been designed around a dominant winter peak. Thailand prepares for a dominant summer peak.

Pakistan experiences substantial demand peaks in both seasons.

Summer stretches the electricity grid, while winter places enormous pressure on the natural gas network and still increases electricity demand in many households. Managing two seasonal peaks across different energy systems makes planning, infrastructure investment, and energy supply significantly more complex than in countries primarily optimized for a single climate challenge.

That means generation, transmission, and distribution infrastructure must accommodate two different periods of elevated demand. Capacity built for seasonal peaks often remains underutilized during milder months, increasing the overall cost of the system.

This reality contributes to higher infrastructure costs, more complex planning, and ultimately higher electricity prices.

What We Don’t Talk About

Pakistan’s heating and cooling challenge is not solely the result of poor planning.

It is shaped by geography.

Located between roughly 23° and 37° North latitude, influenced by the Himalayas, monsoon systems, and diverse terrain, Pakistan experiences genuine seasonal extremes that many countries simply do not.

Every country has geographic constraints. Germany has long winters. Thailand has tropical heat. Australia experiences both, and its infrastructure costs reflect that reality.

Yet discussions about Pakistan’s energy crisis often focus exclusively on theft, corruption, transmission losses, and governance failures. Those issues are real and demand urgent attention.

They are not, however, the complete picture.

Our geography creates structural costs that would exist even under significantly better governance.

The Global Warming Angle

There is another important implication.

As global temperatures rise, countries historically optimized for cold climates face increasing adaptation costs. Germany, Canada, and the Nordic countries must invest heavily in cooling infrastructure, building retrofits, and modernized urban planning.

Pakistan has long operated under extreme summer conditions. Many of the infrastructure investments now being debated across Europe have been part of our reality for decades.

That does not eliminate Pakistan’s challenges. We still face water scarcity, energy shortages, aging infrastructure, and financial constraints.

But it reminds us that climate adaptation is not a future expense for Pakistan. It has been an ongoing cost for generations.

What This Means

Pakistan’s energy crisis has many causes: electricity theft, transmission losses, aging infrastructure, policy failures, and political mismanagement among them.

But there is another layer that receives far less attention.

The structural cost of managing both heating and cooling is built into the economics of our country. It affects households, businesses, factories, and the national power grid.

Recognizing this changes how we think about solutions.

Building more power plants alone will never be enough. Better insulation standards, stronger building codes, energy-efficient appliances, demand management, and smarter electrical grids become even more important when a country must support two opposing seasonal demands.

Understanding that distinction changes how we think about energy policy. Better governance can reduce losses, improve efficiency, and modernize infrastructure. Geography, however, cannot be changed.

The challenge for Pakistan is building an energy system that accepts this reality instead of pretending it does not exist.

About the author

Tahir Shahzad

Tahir Shahzad is a Product Manager, Product Owner, and technology consultant with over a decade of experience helping startups and organizations build products people actually use. If you are working on a product problem worth solving, reach him at tahirshahzad.com/contact/