Ahmad Naeem Cheema
Every war fought in the last century has ultimately been decided not by the courage of soldiers alone, but by the technological superiority of the side that could build, sustain, and innovate faster than its adversary. This is not a controversial observation. It is the recorded verdict of modern military history, from the industrial carnage of the First World War to the precision strikes of the twenty-first century. The progression is consistent and unambiguous: superior weapons determine battlefield outcomes, superior technology produces superior weapons, and superior technology emerges from one source above all others. Education. Scientific development. The long, patient, expensive investment in human knowledge.
Strip away the rhetoric surrounding any major military power on earth today, and beneath the aircraft carriers and missile systems and satellite networks, you will find the same foundation: a nation that decided, decades before the weapons were built, to invest seriously in its universities, its research institutions, its scientific culture, and its engineering capacity. The weapon is the final product. The classroom is where it begins.
The evidence for this argument is not theoretical. It is historical, specific, and overwhelming.
Consider the United States. Its military dominance in the post-Second World War era did not arise from patriotism alone. It arose from a deliberate, government-backed investment in scientific and technological infrastructure. The National Defense Education Act of 1958, passed in direct response to the Soviet Sputnik launch, poured federal resources into science, mathematics, and engineering education across American universities. The Defense Advanced Research Projects Agency, DARPA, established in the same year, became the institutional engine that would eventually produce the internet, GPS, stealth technology, and unmanned aerial systems. These are not incidental achievements. They are the direct consequences of a government that understood the relationship between academic investment and military capability. The F-35 fighter, the Predator drone, the Tomahawk cruise missile: each of these traces its lineage not to a general’s vision alone but to decades of federally funded research conducted in laboratories attached to universities.
The Soviet Union understood the same principle, and for several decades matched American technological ambition through an extraordinary commitment to scientific education. The USSR produced more engineers per capita than any nation on earth during the height of the Cold War. Its space programme, its nuclear weapons development, its advances in rocketry were all products of a state that treated scientific education as a national security priority of the highest order. When the Soviet economy began to deteriorate and its educational and research infrastructure weakened alongside it, the military consequences followed. The correlation was not coincidental.
Germany’s military-technological trajectory tells the same story from a different angle. In the late nineteenth and early twentieth centuries, Germany’s investment in technical universities and applied sciences made it the most scientifically productive nation on earth. Its chemical industry, its optical precision manufacturing, its electrical engineering were all world-leading. These civilian scientific capacities translated directly into military advantage. Germany introduced poison gas, developed the first jet aircraft, produced the most advanced tank designs of the Second World War, and pioneered rocketry through the V-2 programme. The scientists behind these weapons were products of a German educational culture that had invested heavily in chemistry, physics, and engineering for generations. The weapons came later. The education came first.
The most instructive contemporary case may be Israel. A nation of nine million people surrounded by adversaries with vastly larger populations and territories, Israel has sustained military technological superiority through one primary mechanism: relentless investment in science, technology, engineering, and mathematics education, combined with deep structural links between its universities, its military, and its defence industries. The result is a military innovation ecosystem of remarkable productivity. The Iron Dome missile defence system, developed through a partnership between government, military, and academic research, represents one of the most significant advances in defensive military technology in recent decades. Israel’s Unit 8200, its elite military intelligence and cyber unit, functions as a national technology incubator. Its alumni go on to found some of the most significant technology companies in the world. The military capability and the technological economy are not separate achievements. They are the same achievement, rooted in the same educational culture.
China’s contemporary military expansion cannot be understood apart from its educational investment either. Between 2000 and 2020, China increased its annual production of STEM graduates at a rate that dwarfed every other nation on earth. By 2020, Chinese universities were producing approximately 1.4 million engineering graduates annually, compared to roughly 600,000 in the United States. China now ranks among the top producers of peer-reviewed scientific research globally. Its military modernisation, including advances in hypersonic missiles, quantum communication, artificial intelligence-driven weapons systems, and its expanding naval capacity, is the direct product of this educational transformation. The People’s Liberation Army of 2024 is not the same institution it was in 1980, and the difference is not primarily one of budget. It is one of scientific and technological capacity, built through educational investment across two generations.
Pakistan’s own position within this framework deserves direct confrontation. A nation facing genuine and documented security challenges on multiple fronts, possessing nuclear capability but struggling to sustain conventional military modernisation, spending significant portions of its national budget on defence while investing comparatively little in the scientific and educational infrastructure that would make that defence spending truly effective. The question is not whether Pakistan can afford to invest in education and scientific development. The question is whether Pakistan can afford not to. A military that cannot produce its own advanced technology remains permanently dependent on what it can purchase or receive as aid. Dependency is not sovereignty. Dependency is a vulnerability dressed as capability.
The pattern across every case is identical. Nations that built strong scientific education systems built strong militaries. Nations that neglected their universities and research institutions found themselves purchasing weapons they could not maintain, operating technologies they could not innovate, and fighting wars they could not sustain.
There is no shortcut in this equation. There is no alternative route. The battlefield of the twenty-first century is a product of decisions made in classrooms and laboratories decades before the first shot is fired. Nations that understand this will shape the future. Nations that do not will be shaped by those that do.
The lesson is not complicated. It is simply demanding. And demanding lessons have a way of being ignored until the cost of ignoring them becomes impossible to bear.
