ETG General Paper
2025 A-Level GP · Paper 1 · Question 3

Science and curiosity

What this question asks

This question asks whether a scientist's main purpose is simply to discover and understand the world, or whether other aims, like solving problems or acting responsibly, matter more.

Question type: Evaluate

An ETG General Paper original study guide to the 2025 A-Level GP Paper 1 essay on science & technology. Not affiliated with, or endorsed by, UCLES, Cambridge Assessment or SEAB. A study aid, not an official answer.

Read the question first
Define these terms
  • most important: the single highest aim, which forces a ranking against rivals like utility and responsibility
  • a scientist: the individual researcher, or science as an enterprise, which may have different aims
  • satisfy human curiosity: knowledge for its own sake, as opposed to solving problems or serving interests
The hidden assumption

The claim assumes curiosity and usefulness are separable and that one aim can be ranked highest for all scientists, when curiosity-driven and applied work feed each other and different scientists serve different aims.

The calibration axis

conditions: curiosity is the most important aim for basic science and as the engine of discovery, but not where research carries dangerous power or where society funds it to solve problems, so the ranking is context-dependent.

Two ways to argue it

How to approach it. Judge whether curiosity is the scientist's most important aim against rival aims, defining 'most important' and 'a scientist' and resisting both pure idealism and pure utility.

Option A · Conditions: pure science vs funded, dangerous science

Curiosity is rightly the most important aim of basic science, because the deepest discoveries come from asking why rather than chasing a use; but it cannot be the most important aim where research carries the power to harm, or where society funds it to meet specific needs, so the claim holds for the lab bench and fails at the frontier and the budget.

The argument, point by point
  • Curiosity is the most important aim of basic science because the breakthroughs that matter most usually begin as pure inquiry, not applied projects.
    Why Useful applications often emerge unpredictably from research that had no use in view, so a science governed only by known problems would never reach the discoveries that redefine what is possible.
    Example The study of bacterial immune systems pursued out of curiosity produced CRISPR gene-editing, now a transformative tool no applied programme set out to invent (widely documented, as_of 2026-06).
    Then evaluate But this defends curiosity as the most productive aim, not the most important one in every situation, which is a different claim once power and funding enter.
  • Curiosity becomes a dangerous master aim the moment research carries the power to cause irreversible harm.
    Why When inquiry can produce weapons, pandemics or unalterable changes to the human germline, pursuing knowledge for its own sake without weighing consequences makes the scientist responsible for what curiosity unleashes.
    Example The 2018 announcement of gene-edited babies in China drew near-universal condemnation precisely because curiosity and ambition outran ethical limits (widely documented, as_of 2026-06).
    Then evaluate Here curiosity must yield: the most important aim becomes responsibility, because some questions are not worth the answer if the answer cannot be contained.
  • Curiosity also cannot be the most important aim when society funds science to solve its problems, since the funder's purpose competes with the scientist's.
    Why Public and private money is given to cure disease, secure energy or grow the economy, so a scientist drawing on it serves an applied aim whether or not personal curiosity drives the day-to-day work.
    Example Singapore's SkillsFuture and research strategy frame science as a driver of economic resilience, funding inquiry for national capability rather than for curiosity alone (SkillsFuture Singapore framing, as_of 2026-06).
    Then evaluate Yet treating utility as the master aim has its own cost: a system that funds only the immediately useful starves the curiosity-driven work that produced the useful in the first place.
  • The deeper point is that curiosity and utility are not really rivals, which weakens any attempt to crown one as most important.
    Why Curiosity-driven discovery becomes tomorrow's application and applied problems pose new fundamental questions, so the two aims cycle into each other rather than competing for a single top rank.
    Example The renewables cost collapse rests on decades of basic physics and materials research that no single application originally commissioned, now solving an urgent applied problem (IRENA; widely documented, as_of 2026-06).
    Then evaluate The honest position: ranking curiosity 'most important' is misleading because the aims are interdependent, though curiosity has the better claim to being the irreplaceable one.
Strongest counter & rebuttal

Almost every transformative technology traces back to someone asking a question with no application in mind, and a research culture that demands a use before it funds a study would have killed the inquiries that gave us electricity, antibiotics and the internet, so curiosity has a real claim to be the aim that matters most. But this is an argument for protecting curiosity, not for ranking it above responsibility when research can harm or above utility when society is paying to survive, since a scientist who pursues a dangerous question purely to satisfy curiosity has mistaken a virtue for a licence.

Measured conclusion

Curiosity deserves its place as the engine of science and the most important aim of pure inquiry, and a world that funded only the useful would be poorer for it; but it cannot be the single most important aim of every scientist, because where research carries the power to harm, responsibility outranks it, and where society funds science to meet its needs, utility shares the throne, so the claim is true of the lab and false of the frontier.

What makes this Band 1: Reaches the top band by ranking curiosity against rival aims rather than just praising it, by making the danger and funding conditions the hinge, and by showing curiosity and utility are interdependent rather than opposed.
Option B · Domain: the individual scientist vs science as an enterprise

The claim's force depends on whether 'a scientist' means the individual or the enterprise: for the individual researcher, curiosity often is the most important aim and the truest motivation, but for science as a collective enterprise funded by and accountable to society, the most important aim must be the public good, so the claim is psychologically true and institutionally false.

The argument, point by point
  • For the individual scientist, curiosity is frequently the most important aim because it is what actually sustains the work.
    Why Discovery demands years of failure that no salary or social benefit fully explains, so the drive to know is what keeps a researcher at a problem long after a rational utility-maximiser would quit.
    Example The decades-long basic research behind gene editing and mRNA technology was carried by scientists pursuing fundamental questions long before any payoff was visible (widely documented, as_of 2026-06).
    Then evaluate But the individual's motivation is not the same as the aim that should govern science, so curiosity being the truest driver does not make it the most important aim of the enterprise.
  • For science as an enterprise, the most important aim must be the public good, because society is the funder and the bearer of the consequences.
    Why When the public pays for research and lives with its results, the enterprise owes its priorities to human welfare, so the collective aim is set by responsibility and benefit, not by the curiosity of any one researcher.
    Example The Boeing 737 MAX disasters, where 346 died after commercial pressure overrode safety, show what happens when an enterprise's governing aim drifts from the public good, even if individual engineers were curious and capable (widely documented, as_of 2026-06).
    Then evaluate The complication: the public good is contested and slow to define, which is why curiosity-driven freedom must be protected inside an enterprise that answers to society.
  • Collapsing the two domains is how both idealists and cynics go wrong, because each takes one domain's aim for the whole.
    Why Romanticising curiosity ignores who pays and who is harmed; reducing science to utility ignores what actually drives discovery, so the truth requires holding the individual and institutional aims apart.
    Example The EU AI Act, in force from 2024, regulates the enterprise of AI for public safety while leaving room for the curiosity that drives the research, an attempt to honour both domains at once (EU AI Act, as_of 2026-06).
    Then evaluate This is the resolution: protect curiosity in the individual, govern by the public good in the institution, and the apparent conflict dissolves.
  • The claim is most misleading when it implies the scientist's aim and society's aim are the same, because the gap between them is exactly where ethics lives.
    Why If satisfying curiosity were automatically the most important aim, there would be no need to ask whether a line of research should be pursued, so the claim quietly erases the ethical question that the funding and danger conditions force.
    Example Debate over dual-use and gain-of-function research turns precisely on the gap between what a curious scientist wants to know and what society can safely allow (global pattern, as_of 2026-06).
    Then evaluate The payoff of the split: the claim describes a real and valuable motivation, but mistakes a motivation for an aim that should override responsibility, which it cannot.
Strongest counter & rebuttal

The record suggests that curiosity-driven freedom produces more public benefit over time than directed research, so the enterprise's aim of serving society and the individual's aim of satisfying curiosity may largely coincide, which would make the distinction academic. But the coincidence is contingent and breaks exactly where it matters most, at the dangerous and the dual-use, where the curious individual and the cautious society want different things, so the institutional aim of the public good must be able to overrule curiosity even if it usually need not.

Measured conclusion

The claim is true of the scientist as a person and false of science as an enterprise: curiosity is often the individual's deepest and most important motivation, and protecting it serves us all, but the aim that must govern science is the public good, because society funds the work and lives with its results, so curiosity is the engine and responsibility is the steering, and a view that crowns the engine forgets who is in the car.

What makes this Band 1: Earns the top band by splitting 'a scientist' into the individual and the enterprise, defending curiosity in one domain and the public good in the other, and locating ethics precisely in the gap the claim erases.
How the two approaches differ

Option A runs on conditions, ranking curiosity highest for basic science but below responsibility at the dangerous frontier and below utility where society funds the work. Option B runs on domain, separating the individual scientist (for whom curiosity often is the most important aim) from science as an enterprise (which must serve the public good). Both are defensible: A is the rank-against-rivals Evaluate answer; B reframes by distinguishing motivation from governing aim, which scores higher if the split is held.

Common pitfalls
FAQ
Does the 2025 curiosity question want me to defend or attack curiosity in science?
Neither flatly. 'Evaluate' and 'most important' want a ranking, so the strong answer defends curiosity as the engine of basic science while showing it cannot be the highest aim where research can harm or where society funds it to solve problems. Argue for a context-dependent ranking, not a slogan.
What is the best example that curiosity drives the most important discoveries?
CRISPR. The gene-editing revolution grew out of curiosity-driven study of bacterial immune systems that no applied programme set out to commercialise. It shows that the most transformative tools often begin as pure inquiry, which is the strongest case for curiosity as an aim, before you turn to where it must yield.
How do I bring ethics into the curiosity question without going off topic?
Use the danger condition. The 2018 gene-edited babies case shows curiosity outrunning ethical limits, which is exactly where the scientist's most important aim becomes responsibility rather than knowledge. The ethics is not a separate topic; it is the test of whether curiosity can really be 'most important' in every case.
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