In this blog post, we will examine how science can be distorted by political, economic, and social interests through various examples, including the Hwang Woo-suk scandal, and explore how such distortions affect the nature of science and society.
- Introduction
- The Hwang Woo-suk Scandal and the Political Distortion of Science
- Distortions Within the Scientific Community
- Media Distortion
- Government Distortion
- The Fundamental Reason Distortions Are Possible
- The Problems with Political Distortion
- The Core Values of Science and Our Expectations
- Energy Policy Debates and the Distortion of Science
- The Dangers of One-Sided Policies
Introduction
Although science is a discipline that pursues objective truth, scientific activities in the real world are not entirely free from political, economic, and social interests. The Hwang Woo-suk scandal and other cases serve as prime examples of how science can be distorted. Through these cases, we need to examine how science is manipulated or exaggerated and what society stands to lose in the process.
The Hwang Woo-suk Scandal and the Political Distortion of Science
In February 2004, when Hwang Woo-suk’s research team announced a groundbreaking achievement in human embryonic stem cell research, the domestic and international media reported on it extensively. Expectations spread that this would open up possibilities for treating incurable diseases and that the biotechnology industry would become a future growth engine driving the national economy. The government also pledged to actively support the research, and the public began to harbor hopes for cures for diseases and improvements in national competitiveness.
However, the situation changed dramatically when it was revealed that research results had been fabricated and research ethics had been violated. The scientist, once revered as a national hero, instantly became the target of criticism. This incident was not merely a case of one researcher’s misconduct; it exposed a structural problem involving a complex interplay between science, politics, the media, and the public.
Science is the most powerful system of knowledge humanity has created, and it will continue to provide solutions to countless problems. At the same time, however, there are reasons why it is difficult to believe that science always operates objectively and neutrally. This is because political and economic interests intervene in the process by which science is communicated to society. The entities that distort science can be broadly categorized into the scientific community itself, the media, and the government.
Distortions Within the Scientific Community
First, let’s examine the scientific community from within. While scientists place great importance on peer review, they often display a relatively closed attitude toward external criticism. Because modern science is extremely specialized, it has become very difficult for an expert in one field to fully understand and verify research in another field.
For example, consider string theory, one of the leading research areas in modern theoretical physics. The original papers on string theory can be fully understood by only a very limited number of experts, and many researchers grasp the content through review articles or follow-up studies. However, it is not uncommon for interpretations of the same research results to differ among scholars. Ultimately, debates arise among scientists over what the original research findings actually mean.
This phenomenon is not limited to string theory. Across the entire spectrum of cutting-edge science and technology—including artificial intelligence, gene editing, quantum information science, and new drug development—the barriers to expertise are becoming even higher. As a result, verifying research findings has become more difficult than in the past, and some researchers even exploit these structural problems. Acts such as exaggerating research results or selectively presenting data—and even research fraud or plagiarism—continue to occur.
A prime example is the research fabrication scandal involving German physicist Jan Hendrik Schön. He garnered worldwide attention in the early 2000s by publishing groundbreaking research in the fields of semiconductors and nanotechnology, but it was later revealed that many of his papers had been fabricated, sending shockwaves through the scientific community.
Media Distortion
Distortion also occurs in the process of conveying scientific findings through the media. Because modern science is highly complex and specialized, it is difficult for journalists to accurately understand and evaluate research content. As a result, the media tends to focus on achievements and symbolic significance rather than the substance of the research.
Expressions such as “world’s first,” “Korea’s first,” “innovative discovery,” and “game-changer” frequently appear in science articles. However, in reality, scientific research usually progresses gradually through countless failures, revisions, and verification processes.
Because the media must capture readers’ attention within a limited timeframe, it tends to emphasize dramatic achievements rather than explaining complex research processes. In this environment, journalists rely on researchers’ explanations, and there is an increasing tendency to report based on authority rather than scientific verification.
Even during the Hwang Woo-suk scandal, a significant number of media outlets focused on creating a hero rather than verifying the research itself. Even after suspicions were raised, there were numerous reports that prioritized emotional reactions or a patriotic narrative over examining the validity of the research. As a result, the media ended up playing a role in amplifying and reproducing the prevailing social sentiment rather than objectively conveying science.
Government Distortion
The government, which determines science policy, can also be a key driver of scientific distortion. It is difficult for the government to completely exclude political considerations when allocating research and development budgets and establishing national science and technology policies.
Politicians want to show the public tangible results. Consequently, attention tends to focus on projects that yield short-term results rather than basic science research, which requires a long period of trial and error. Furthermore, when massive budgets are concentrated on specific technologies or research fields, alternative approaches or competing theories may be relatively marginalized.
The driving force behind scientific progress is, by nature, the competition among diverse hypotheses and theories. The private sector also develops by investing in various ideas and then selecting the direction with the highest probability of success. However, when government support is concentrated in specific fields, competition may be stifled, and it may become difficult for new approaches to emerge.
Of course, national investment in research and development is essential for the advancement of modern science and technology. However, it must be clearly recognized that if diverse perspectives and critical review are not sufficiently guaranteed in the research funding process, this can hinder the healthy development of science.
The Fundamental Reason Distortions Are Possible
So why is science so easily subject to distortion?
The fundamental reason lies in the uncertainty of the future. While science offers explanations and predictions based on evidence gathered to date, it cannot know the future with absolute certainty. This uncertainty is both a limitation of science and a space where political and economic interests can intervene.
Scientific discourse that presents extreme fear or excessive optimism about the future must always be critically examined. This is because, while actual scientific research is a process of acknowledging uncertainty and repeated verification, politics and the media often prefer simple, powerful messages.
The Problems with Political Distortion
The biggest problem when science is politically distorted is that the interests of specific groups take precedence over objective verification. This risk is particularly acute in fields where enormous economic stakes are at play, such as biotechnology, the pharmaceutical industry, artificial intelligence, and the energy sector.
In the case of Hwang Woo-suk’s research team, massive amounts of research funding were invested. Because the expected economic benefits of a successful outcome were so great, an atmosphere developed across society in which people focused on the “success myth” rather than conducting rigorous verification.
Conflicts of interest between companies and researchers are also a significant issue. For example, if a researcher conducting research on a specific drug or technology shares an economic interest with the relevant company, the objectivity of the research results may be called into question. Today, many countries operate conflict-of-interest disclosure systems to mitigate such problems.
Furthermore, as various investigations and document disclosures have confirmed that some fossil fuel companies attempted to influence climate change-related research in the past, social wariness regarding the relationship between corporations and science is also on the rise.
The Core Values of Science and Our Expectations
Science is a body of knowledge that systematically explores natural and social phenomena to discover principles and laws. The core values of science lie in objectivity, reproducibility, and verifiability.
Through science, we hope to cure diseases, increase average life expectancy, and enjoy safer and more prosperous lives. However, if science becomes overly subservient to political or commercial interests, these core values may be compromised.
If securing research funding and organizational survival are overemphasized, there is a risk that public relations and expanding influence will take precedence over verification and debate. The media amplifies these messages, and politicians exploit them for policy purposes. If scientific verification procedures are not fully carried out in this process, citizens will ultimately be exposed only to biased information.
The crux of the issue is not whether a specific conclusion is right or wrong. What matters is whether the process leading to the conclusion has been verified according to scientific standards.
Energy Policy Debates and the Distortion of Science
Energy policy serves as an example illustrating the relationship between science and politics.
The nationwide power outage that occurred on September 15, 2011, highlighted the importance of managing electricity supply and demand. Since then, as extreme heat waves in summer and cold snaps in winter have recurred, electricity demand has been steadily increasing.
In recent years, South Korea’s average temperature has shown a long-term upward trend, and reports indicate that the number of days with extreme heat is also on the rise. Industrial activity, data centers, and the expanding adoption of electric vehicles are also contributing to the increase in electricity demand.
Various options exist for expanding energy supply, including fossil fuels, nuclear power, solar power, wind power, hydropower, and hydrogen energy. However, each technology has both advantages and limitations, and no single technology offers a perfect solution.
Nuclear power has the advantage of very low carbon emissions and high energy density. On the other hand, there are concerns regarding safety, the disposal of spent nuclear fuel, and the risks associated with accidents.
Renewable energy is also continuously advancing, but challenges remain, such as intermittency, storage technology, and the construction of transmission grids. Therefore, modern energy policy is evolving toward pursuing a balance among various energy sources rather than selecting just one technology.
What matters is not whether one supports or opposes a specific technology, but rather an environment where all arguments are openly discussed after being backed by sufficient data and verification.
The Dangers of One-Sided Policies
I am not arguing that nuclear power is absolutely right or that renewable energy is absolutely right. What we must guard against is a situation where only a specific position is permitted and other viewpoints are not even discussed.
Science inherently advances through counterarguments and verification. However, once a particular theory or policy gains political authority, opposing views are easily marginalized. Ordinary citizens end up accepting a single conclusion without ever being exposed to the debate itself.
In modern society, science influences nearly every field, including healthcare, education, the environment, energy, and information technology. Therefore, citizens have the right to be informed about scientific debates and the verification process.
For a long time, we have accepted the words of scientists and the judgments of experts as nearly absolute authority. However, various cases—including the Hwang Woo-suk scandal—have shown that science is, after all, a human endeavor and is not entirely free from error, bias, or conflicts of interest.
This does not mean we should distrust science itself. Rather, it means we must place even greater importance on the principles of verification, reproducibility, criticism, and debate—the very principles that make science what it is.
We need to reflect on which of the vast body of knowledge we have come to regard as “science” we have actually understood as verified facts, and which we have merely believed based on authority. At the same time, we must constantly ask ourselves what makes science truly scientific, where modern science is headed, and what is necessary for science to maintain its inherent objectivity and critical spirit.