Sunday, December 13, 2015

Scientific Distortion in Political Campaigns



Politicians lie. This statement should not come as a shock to anyone who hears it, since the beginnings of civilization, it’s just been the nature of the game. However, as the relentless march of scientific and technological advances continue, our society must adapt and assume greater responsibility for the use of such technology, and the consequences of our actions. While politics may be largely philosophical and sociological discussions, scientific issues such as climate change, stem-cell research, and evolution are becoming increasingly common, and the same strategies cannot be applied to these discussions. Science is not meant to be political; it is in principle the human effort to unearth the truth about the world we live in, without consideration to agendas, nations, religion, etc. Unfortunately, the lack of scientific literacy among the general public of the United States, as well as the culture of lying so deeply ingrained into politics, has created a political atmosphere where lying about and distorting scientific reports, or even worse, dismissing them altogether to pursue a political agenda has become commonplace.
At the root of this issue is the lack of information, and abundance of misinformation, presented to, and believed by the American public. In the sciences, arguably more than any other field, the knowledge gap between the general population, and scientists is evident. A survey conducted by the Association for the Advancement of Science (AAAS) illustrates this perfectly. They surmise that while “science holds an esteemed place among citizens and professionals”, on many issues “a sizable opinion gap exists between the general public and scientists” (Funk 8). The study included a myriad of topics and measured the differences in opinion between citizens and scientists. Both parties agreed that STEM education in the U.S is lacking in K-12, with large percentages ranking the U.S as “below average” in this regard (Funk 5-6). STEM is an acronym used to refer the subjects of Science, Technology, Engineering and Mathematics. This is no coincidence. In a survey I conducted for the purposes of this paper, 52.63% of respondents described their background in scientific subjects as “high school level”, therefore the publics opinion on scientific studies is heavily based on what they learned from grades K-12. The discrepancy between scientists and the public on many issues is no surprise then. Indeed, within the same study, scientists responded that: “the public’s knowledge about science — or lack thereof — is widely considered to be a major (problem)”, and that “too little K-12 STEM education is a major factor” (Funk 10). These discrepancies, while inconvenient, are harmless on their own, but as a general trend within the study, the population tends to believe that there is limited or no scientific consensus on many topics, while the surveyed scientists demonstrated overwhelming consensus. This is suggestive of a failure to communicate findings, and current ideas to the public by the scientific community. This failure is key to political distortion of science.
Taking advantage of this knowledge gap, political candidates often use incorrect or half-correct information, presented in a manner that supports and gives credit to their platform. In a 2010 survey conducted after the year’s election by the University of Maryland, over 90% of voters reported “encountering information that seemed misleading or false” (Ramsay 3). Politicians of both major parties are guilty of spreading misinformation, as the reported rates were extremely similar when broken down by party affiliation. The idea that misinformation is a tool to support particular political positions is supported through the findings of this survey. When the responses were sorted by party affiliation, trends emerged with voters of one party holding more incorrect information regarding certain topics, and vice versa on other topics. For example, the study found that Republican voters were much more likely to believe that “most scientists do not agree that climate change is occurring”, while Democratic voters were more likely to believe that “the US Chamber of Commerce was spending large amounts of foreign money to support Republican candidates” (Ramsay 17). Topics that are likely targets for incorrect information are often ominous in their implications. The emotional appeal of the possible positions on these topics allow for fear to become a tool of persuasion.
            A key component to these “misinformation campaigns” is the use of fear as a tool to persuade the general public to support the politician in question. An article in The American Journal of Political Science applies economic theories to try and understand how fear may be applied into politics. The authors found that in order for an appeal to fear to work for a politician, a few conditions must be met. The first is that the politician must be a strategic, and not a benevolent actor, although the authors made the assumption that all politicians are strategic in some regard. The second condition, is that the politician “has private information about the presence (or absence) of a threat.” (Lupia 91). Based on these two, and a few more conditions, the authors’ model determines if the use of fear would benefit the politician. The important detail here is the model’s dependency on the lack of information available to the citizen. The conclusions drawn from this model, as well as the previously established knowledge gap among the public in scientific fields, suggest that fear would be an applicable tool for politicians on these issues. The use of fear in this case is itself dependent on the use of misinformation, because the model assumes the politician knows the true nature of the issue he is misrepresenting. Fear loses its power of persuasion after the citizen receives feedback on the true nature of the issue. In this particular case, the implications are especially important, because scientific education for the most part ends after high school, and natural feedback on scientific issues, particularly the one’s intertwined with politics, can take decades or centuries to manifest itself.
            Thus the three studies create a framework describing the current state of the American population as well as considering the motives behind the distortion of scientific research by its politicians. However, some would argue that governments have many things to consider, and serve a higher purpose than what can merely be described scientifically. A nation’s government is regularly forced to make moral and ethical decisions on behalf of its citizens. While science is very good at unearthing the hidden truths of the world around us, it makes no assertions about the truths we make for ourselves. To further decrease political regard for science, the public does not seem to prioritize the importance of scientific accuracy. In a survey conducted for this study, 57.89% of respondents did not prioritize or prioritized other issues over even a basic understanding of scientific concepts from their political candidates. This apathetic attitude towards accuracy removes a burden of honesty from politicians. Over 89% of respondents claimed to prefer an honest candidate, so the discrepancy between the public’s preferences, and priorities is an interesting one to explore. The data seems to suggest that the public does not perceive scientific inaccuracy as dishonesty. This is partly explained by the faltering science education, but an even greater contributor to this phenomenon is that Americans see science not as a community dedicated to unearthing the truth of the universe, but a group of “elites” pushing just another philosophy to choose from.
 In his article exploring the role of science as a moral authority in the U.S Christopher P. Toumey found that at the turn of the 20th century: “'Science' was generally reported to be the pronouncements  of authorities, and it was widely accepted” (Toumey 689). People saw science as the driving force behind most if not all technological and social change. Unfortunately, the growth in popularity of the benefits of science did not include the rigor of the scientific method. As Toumey put it “The American people respected science much more than they understood it” (Toumey 689). This in turn had unfortunate consequences for the role of science in government. Due to the perception of science as a monolithic “movement” or political philosophy, many atrocities committed in the 20th century were blamed on “the pursuit of science”, resulting in a growing “counter-movement”. Taking advantage of the general population’s shallow understanding of scientific principles, many groups used scientific symbols “so as to confer some of the moral authority of science on ideologies which are not necessarily scientific” (Toumey 692). This is the basis of many candidates’ perversions of scientific research. Appealing to some universally accepted/revered body is a basic tactic of persuasion most learn in introductory speech or rhetoric classes. Whether that body be religion, ethics, or in our case science, the technique is universal.
In a paper on the morality of science, a professor of sociology at the University of Chicago noted that: “It is argued that science is just another "ideology," a manifestation of Western culture” (Ben-David 24). In the 1970’s, when the paper was written, science in America was facing a similar crisis as today, with a general distrust of science prevalent among the public, as well as movements within political circles to push forward anti/pseudo-scientific philosophies as just as valid as “real” science. As Robert Socolow mentions on a discussion panel focused on scientific response to distortion: “our opponents present science as dogma and construct a symmetric conflict: their dogma vs. our dogma” (Socolow 4). However, this is a false dichotomy, as it requires one to regard scientific consensus as “dogma”. This is one of the ways politicians distort science, apart from presenting incorrect data, or deriving unfounded conclusions from otherwise benign scientific studies, they abuse the public perception of science, to simultaneously support their own positions, as well as discredit science. Socolow goes on to dispel this notion stating that “There is no such symmetry. Science is not just another point of view. Science is a process of searching, always incomplete” (Socolow 4). While Socolow and his panel, and many others in the scientific community work constantly to counter scientific distortion and apathy in the public, they are woefully unequipped to tackle the issue. The nature of the scientific community results in very individualistic members, with small groups formed. The largest organizations are only the loosely cohesive laboratories or the large and slow committees. Randy Olson, on the same panel notes: “The overall effect is slow, limited leadership, leaving the science community vulnerable to attack” (Olson 7). The panel notes that science educators are working hard to communicate the advancements science has made but that it would be worth the effort to start educating people about the aspects of science that lend it credibity, such as the rigor of the peer review process so engrained into the scientific community.
 The case for political distortion seems almost redundant to make, resting on premises that most would take for granted. However, seeing as that a key component of the problem is public perception, as well as the abundance of misinformation circulating, it is prudent to definitively make a case against it. Taking into consideration the education gap, and the political incentive to be dishonest, it comes as no surprise to see studies quantizing the sheer amount of misinformation utilized during election campaigns. The problem with this same paradigm of dishonesty being applied to science, is that it harms our society. As we have mentioned before, even with the publics limited understanding of science, it holds a revered position in society, being associated with many social, technological, and medical advances through the years. This is unfortunately being taken for granted, by both the scientists, and the public. We cannot rely on this always being the case, and if science were ever to fall out of prominence in our society, many things would change; innovation would stagnate, technology would peak, etc. With this in mind it is important to acknowledge the problem areas, so that they may be addressed. STEM education amongst the general public is unfortunately low, leading to misinformation and fear being used to manipulate voters. This issue is further complicated, by the failure to respond by a lack of scientific leadership and a misunderstanding of scientific philosophy, fostering distrust of the “mainstream”, and promoting the rise of pseudo-scientific philosophies that give the public “the moral meanings they require, and it sets them upon a stage of scientific sanctification decorated with test tubes…white lab coats, monographs, geological expeditions, …and secular credentials” (Scientific American 1). To let the reputation of science degrade would be a tragic loss to society. The distortion of science by politicians is therefore not only dishonest, but morally reprehensible.

























Works Cited
Ben-David, Joseph. “On the Traditional Morality of Science”. Newsletter of the Program on Public        Conceptions of Science 13 (1975): 24–36. Web...
Funk, Cary, and Lee Rainie. "Public and Scientists' Views on Science and Society." Pew Research  Center Internet Science Tech RSS. N.p., 29 Jan. 2015. Web. 06 Nov. 2015.
Lupia, Arthur, and Jesse O. Menning. “When Can Politicians Scare Citizens into Supporting Bad    Policies?” American Journal of Political Science 53.1 (2009): 90–106. Web.
Ramsay, Clay, Steven Kull, Evan Lewis, and Stefan Subias. "Misinformation and the 2010 Election."             WorldPublicOpinion.org. N.p., 10 Dec. 2010. Web. 29 Oct. 2015.
"Science versus Antiscience?" Scientific American. Scientific American, 1 Jan. 1997. Web. 25 Nov.    2015.
Smith, Leonard A., and Nicholas Stern. “Uncertainty in Science and Its Role in Climate Policy”.     Philosophical Transactions: Mathematical, Physical and Engineering Sciences 369.1956 (2011): 4818–      4841. Web.
Socolow, Robert, Roger A. Pielke, Jr., and Randy Olson. "When Politicians Distort Science."          Bulletin of the Atomic Scientists. N.p., 20 Oct. 2011. Web. 29 Oct. 2015.
Toumey, Christopher P. "Modern Creationism and Scientific Authority." Social Studies of   Science21.4 (1991): 681-99. JSTOR. Web. 06 Nov. 2015.             <http://www.jstor.org/stable/10.2307/285344?ref=search-            gateway:3883c65cfbe9fd571bbc4e3ad601bad2>.

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