The Future Nation is the Nation that Controls Energy Surplus

In the long history of humanity, the progress of civilisation has almost always begun when humans succeeded in producing something that exceeded their basic needs. When agrarian societies were able to produce a food surplus, some people could leave their work in the fields to become traders, soldiers, administrators, artisans, or scientists.

As humans found ways to utilise water, wind, animal, and subsequently fossil fuel power on an increasingly large scale, production capacity increased far beyond subsistence needs. Cities grew, trade expanded, industries were born, and nations became increasingly complex.

Therefore, one of the most interesting ways to read the history of civilisation is through the concept of surplus. Civilisations do not develop simply because humans possess resources, but because humans are able to produce an excess that can then be reinvest and reinvested to create new capabilities.

In a modern context, energy is one of the most decisive forms of surplus. A nation that is able to provide more energy—cheaper, more reliable, and more flexible than its minimum requirement—has greater room to build industry, technology, and prosperity.

Consequently, the strategic question for Indonesia is not merely whether we have enough energy to meet today’s needs, but whether we are capable of building an energy surplus to create the economy of the future.

The concept of surplus has been part of the human journey since the dawn of civilisation. Agriculture transformed solar energy into food and created a food surplus. This surplus allowed for the birth of cities and the division of labour. Not everyone had to be a farmer; some could become builders, soldiers, traders, philosophers, or administrators. In a sense, every advancement in civilisation is a process of converting surplus into new capabilities.

Just as food surpluses produced cities, and cities produced trade, and trade produced wealth, which in turn could finance infrastructure, leading to increased production capacity, a similar reinforcing loop occurs with energy. When a society possesses energy beyond the minimum requirement for survival, that energy can be used to power machinery, expand production, build infrastructure, develop technology, and create new economic activities.

The Industrial Revolution is one of the clearest examples of how energy surplus can transform the world structure. For thousands of years, most human energy came from human labour, animals, biomass, water, and wind. Production capacity was limited by the amount of physical labour available. Coal then broke those limits. Energy stored for millions of years in fossil resources could be converted into mechanical power through steam engines. Humans gained the ability to generate work on a much larger scale than before.

Factories could operate at unprecedented capacities, railways could connect distant regions, ships could transport massive amounts of goods, and steel production could increase dramatically. What actually occurred was not just a change in energy sources, but a change in the limits of human productivity. Energy surplus became productivity surplus, and that productivity subsequently became economic and geopolitical power.

The United States provides another example. The 20th century demonstrated how the availability of large and relatively cheap energy could shape a modern economy. Oil, gas, coal, and later electricity allowed America to build manufacturing industries on a massive scale. Energy supported the production of steel, vehicles, petrochemicals, aviation, modern agriculture, and various forms of mass consumption.

However, America’s strength did not stem solely from its energy reserves. More importantly, it was its ability to connect energy with capital, technology, infrastructure, education, and markets. Energy became an input, but productivity became the output. From this, we see an important principle: energy surplus only becomes power when it can be converted into a productivity surplus.

China is demonstrating a new form of this logic today. As a nation with enormous energy needs, China is not only striving to ensure energy availability for its industries; it is also building massive capacity in power generation, electrical grids, batteries, electric vehicles, solar panels, manufacturing, and energy technology.

Energy is not treated merely as a consumption necessity, but as part of an industrial strategy. When energy, technology, and manufacturing are built simultaneously, an ecosystem emerges that allows the nation to master more parts of the value chain.

This is what makes energy competition in the 21st century different from the past. Nations are not just competing to secure energy sources; they are competing to gain the ability to transform energy into technology, industry, and economic power.

This shift is becoming increasingly vital as the global economy enters a highly energy-intensive era. Artificial intelligence, data centres, cloud computing, electric vehicles, advanced manufacturing, and various digital technologies may appear to be economic sectors increasingly disconnected from physical resources. However, the reality is quite the opposite. The more digital an economy becomes, the more critical its energy foundation becomes. A data centre requires large amounts of stable electricity. A semiconductor factory requires…