The Subversive Nature of Science: Challenging Conventional Wisdom

Science is often presented as a steady, orderly march toward truth. But history tells a different story. Time and again, scientific discoveries have shaken the very foundations of what people believed about the world, their place in it, and even their relationship with the divine. Science, at its core, is subversive-it questions, challenges, and sometimes dismantles the established order. This subversive quality is not a flaw; it is the engine of progress.

What does it mean for science to be subversive? 🔗

To call science “subversive” is to recognise that its primary function is not merely to accumulate facts. Science works by systematically doubting what is already believed. It asks uncomfortable questions, tests assumptions that society takes for granted, and replaces comfortable certainties with new-and often unsettling-truths.

This process of questioning is built into the scientific method itself. Observation, hypothesis, experimentation, and revision are all steps that presuppose the possibility that current understanding is wrong. As Thomas Kuhn argued in his landmark work The Structure of Scientific Revolutions (1962), science does not advance in a smooth, linear fashion. Instead, it moves through periods of stability-what Kuhn called “normal science”-followed by dramatic upheavals known as paradigm shifts, where old frameworks are replaced by entirely new ones.

A paradigm, in Kuhn’s sense, is a shared set of theories, methods, and assumptions that guide a scientific community’s work. Scientists operating within a paradigm do not typically question its foundations. They solve problems-or “puzzles,” as Kuhn put it-within the existing framework. But when anomalies accumulate and the framework can no longer account for them, a crisis emerges. A new paradigm then replaces the old, often in ways that are deeply disruptive to the scientific and social establishment.

Galileo and the Church: a classic case of scientific subversion 🔗

No discussion of science as subversive can ignore the story of Galileo Galilei. In the early 17th century, Galileo used his telescope to observe the phases of Venus and the moons of Jupiter-observations that directly contradicted the geocentric model that had dominated European thought for centuries. The geocentric model, rooted in the physics of Aristotle and the astronomy of Ptolemy, placed the Earth at the centre of the universe. The Roman Catholic Church had adopted this view as part of its theological framework.

Galileo’s support for the Copernican heliocentric model-which placed the Sun at the centre-was not simply a scientific disagreement. It was a direct challenge to institutional authority. The conflict was not really between science and religion in a simple sense. As historians have pointed out, the real tension was between Copernican science and the Aristotelian science that the Church had absorbed into its teachings. The Church could not easily separate Aristotle from Christian doctrine; if Aristotle was wrong, it seemed as though Christianity itself might be wrong.

In 1616, the Church declared heliocentrism to be contrary to scripture. Galileo was warned not to advocate for it. When he published his Dialogue Concerning the Two Chief World Systems in 1632, he was brought before the Inquisition, found guilty of heresy, forced to recant, and placed under house arrest for the rest of his life. His book was banned. It took more than 300 years for the Church to officially acknowledge that Galileo had been right.

What makes the Galileo affair so instructive is not simply that a scientist was punished for his ideas. It is that his observations, grounded in empirical evidence, threatened an entire worldview-a worldview that was deeply embedded in political, religious, and social structures. Science was subversive precisely because it exposed the limitations of accepted truth.

Darwin and the disruption of human self-understanding 🔗

If Galileo displaced the Earth from the centre of the universe, Charles Darwin displaced humanity from its pedestal as a unique creation. When Darwin published On the Origin of Species in 1859, he proposed that all species-including humans-had evolved through natural selection from common ancestors. This was a direct challenge to the prevailing belief, rooted in scripture, that species were fixed and had been created in their present form by God.

The resistance was enormous, and it came from multiple directions. The scientific community itself was initially divided. While many scientists accepted the idea of evolution and common descent within a few decades, Darwin’s specific mechanism of natural selection took much longer to gain acceptance. In the late 1800s, many researchers who called themselves Darwinists actually preferred Lamarckian explanations. It was not until the development of genetics in the 20th century that natural selection became firmly established.

Religious opposition was even more intense. Darwin’s theory contradicted the Genesis account of creation, and religious leaders argued that it undermined core Christian teachings. Darwin himself had anticipated this backlash-he delayed publishing his ideas for 20 years, partly out of fear of the response. His materialism-the idea that biological complexity could be explained through natural mechanisms alone, without divine intervention-was deeply disturbing to his contemporaries.

Darwin’s theory also raised uncomfortable implications for human identity. If humans evolved from other animals through random variation and natural selection, then there was no built-in purpose or direction to evolution. Humanity was not the goal of the process; it was merely one outcome among many. This was-and for many people, still is-a deeply subversive idea.

Why do societies resist scientific change? 🔗

The examples of Galileo and Darwin raise a broader question: why is revolutionary science so often resisted? The answer lies partly in how knowledge systems work.

Kuhn’s analysis offers a structural explanation. During periods of normal science, the existing paradigm is not just a set of ideas-it is a social institution. Scientists are trained within the paradigm; their careers, reputations, and professional identities are built upon it. When anomalies arise, the natural instinct is to explain them away or to modify the existing framework rather than abandon it. As Kuhn observed, normal science actively discourages revolutionary initiatives because these threaten the stability of the paradigm.

But resistance goes beyond the scientific community. When scientific claims conflict with religious doctrine, political ideology, or cultural identity, the pushback can be fierce. The geocentric model was not just an astronomical theory; it was part of a theological worldview. Evolutionary theory did not just challenge a scientific hypothesis; it challenged what it meant to be human. In both cases, the subversive power of science lay in its ability to undermine beliefs that people held not just intellectually but emotionally and spiritually.

The role of institutional power 🔗

It is also important to recognise that resistance to science is often a matter of power. Institutions-whether religious, political, or academic-have a vested interest in maintaining the status quo. New ideas that threaten existing authority structures are rarely welcomed with open arms. The Church’s response to Galileo was not purely theological; it was also about control over who had the right to interpret truth. Similarly, resistance to evolution was not just about scripture; it was about who got to define what it means to be human.

The philosopher Paul Feyerabend took this insight even further. He argued that the established image of science as a purely rational, methodical enterprise was itself a kind of ideology. In his controversial work Against Method (1975), Feyerabend contended that there is no single “scientific method” and that the history of successful science shows researchers regularly breaking supposed methodological rules. He argued that rigid adherence to any one method was more likely to inhibit progress than to promote it.

Feyerabend’s point was not that science is irrational. Rather, as scholars have clarified, he was critical not of science itself but of misleading images of science that gave it an exaggerated authority. When science is treated as a monolithic, infallible institution, Feyerabend warned, it can become its own form of tyranny-not because scientific knowledge is dangerous, but because uncritical deference to any authority stifles the very questioning that makes science productive.

Science and the habit of doubt 🔗

At the heart of science’s subversive nature lies a simple but powerful habit: doubt. Science works because it institutionalises scepticism. Every theory, no matter how well-established, is in principle open to revision. Every observation is subject to replication. Every authority can be questioned.

This is what separates science from dogma. Dogma demands acceptance; science demands evidence. Dogma punishes dissent; science, at its best, rewards it-eventually, if not immediately. The scientists who overthrew the geocentric model, the theory of fixed species, or Newtonian physics were all, in a sense, dissidents. They looked at the world and saw something that did not fit the accepted story. And they had the tools-observation, experimentation, mathematical reasoning-to make their case.

But it is important not to romanticise this process. The transition from one paradigm to another is rarely smooth or painless. Kuhn noted that scientists with different paradigms engage in fundamentally different kinds of research, and that the conversion of scientists to a new paradigm is often influenced by social and psychological factors, not just evidence. Max Planck’s famous observation-that science advances one funeral at a time-captures the uncomfortable truth that established scientists often cling to the frameworks they grew up with.

The slow acceptance of revolutionary ideas 🔗

History is full of examples where revolutionary scientific ideas took decades or even centuries to gain acceptance. The Copernican model was proposed in 1543 but did not become widely accepted until the work of Kepler and Newton in the 17th century. Darwin published in 1859, but the full integration of his ideas with genetics did not occur until the modern evolutionary synthesis of the 1930s and 1940s. Even Einstein’s theory of relativity, published in 1905 and 1915, faced scepticism from established physicists for years.

This slow pace of acceptance is not simply a matter of stubbornness. New scientific ideas often require new tools, new mathematical frameworks, or new experimental techniques before they can be fully evaluated. The Copernican model, for instance, did not initially offer more accurate predictions than the Ptolemaic system. It was only with Galileo’s telescopic observations, Kepler’s laws of planetary motion, and Newton’s mechanics that the heliocentric model became genuinely superior in predictive power.

The ongoing subversion: science in the modern world 🔗

Science’s subversive role did not end with the Scientific Revolution or the acceptance of evolution. In the 20th and 21st centuries, scientific findings have continued to challenge deeply held beliefs-about race, gender, consciousness, the nature of matter, and even the structure of the universe itself.

Quantum mechanics, for example, overturned the deterministic worldview of classical physics. The discovery of DNA revealed the molecular basis of heredity and opened up profound ethical questions about genetic engineering. Climate science has challenged assumptions about the relationship between economic growth and environmental sustainability.

In each case, the pattern is familiar: new evidence undermines established beliefs, institutions resist, and eventually-sometimes after painful struggle-the new understanding prevails. The subversive power of science lies precisely in this capacity to force us to revise what we thought we knew.

Is subversion always productive? 🔗

It is worth asking whether science’s subversive tendency is always a good thing. The overthrow of established knowledge can be disorienting and even dangerous. Feyerabend himself was concerned about the social consequences of unchecked scientific authority. He argued that in a free society, science should be treated as one tradition among many, not as the sole arbiter of truth.

At the same time, the history of science shows that the suppression of subversive ideas-as in the case of Galileo or the resistance to evolutionary theory-ultimately does more harm than good. When institutions try to protect established beliefs from scientific scrutiny, they delay the advancement of knowledge and sometimes cause real suffering.

The key, perhaps, is to recognise that science’s subversive power is inseparable from its creative power. The same habit of doubt that overturns old certainties also generates new understanding. The same willingness to question authority that causes social disruption also drives human progress. Science subverts-and in doing so, it builds.

What do you think? Is science’s tendency to challenge established beliefs an unqualified good, or does it carry risks that need to be managed? Can a society fully embrace scientific inquiry without being destabilised by its conclusions?

References

1. https://plato.stanford.edu/entries/thomas-kuhn/
2. https://www.pewresearch.org/religion/2009/02/04/darwin-and-his-theory-of-evolution/
3. http://www.inquiriesjournal.com/amp/1675/2/copernicus-galileo-and-the-church-science-in-a-religious-world
4. https://newsroom.ucla.edu/releases/the-truth-about-galileo-and-his-conflict-with-the-catholic-church
5. https://evolution.berkeley.edu/the-history-of-evolutionary-thought/1800s/natural-selection-charles-darwin-alfred-russel-wallace/
6. https://www.pewresearch.org/science/2019/02/06/darwin-in-america-2/
7. https://plato.stanford.edu/entries/scientific-revolutions/
8. https://plato.stanford.edu/entries/feyerabend/
9. https://pmc.ncbi.nlm.nih.gov/articles/PMC3186788/