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The Politicization of Science and Technology: Its Implications for Nanotechnology

Published online by Cambridge University Press:  01 January 2021

Extract

Nanotechnology represents, in part, a technological revolution in the sense that it allows highly innovative applications of various areas of the physical and life sciences. The development of nanotechnology and nanoscience, however, intensifies challenges to the traditional understanding of how to pursue scientific and technological knowledge. Science (in its broad meaning) can no longer be construed simply as the ideal of the quest for truth (i.e., “pure science”). Science, through its technological applications, has become the source of economic power and, by extension, political power. Science, with its political implications, has entered what John Ziman calls the era of “post-academic science.”

In this paper, I argue that nanotechnology is a cardinal exemplar of this politicization, that is, the convergence of science, technology, politics, and economics for social and governmental purposes. At the same time, I assert that this new scientific ethos offers the possibility of a better integration of ethical and philosophical reflections at the core of scientific and technological development.

Type
Symposium
Copyright
Copyright © American Society of Law, Medicine and Ethics 2006

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References

Ziman, J., Real Science: What it Is, and What it Means (New York: Cambridge University Press, 2002).Google Scholar
I am indebted to Wartofsky, M. W., “Technology, Power, and Truth: Political and Epistemological Reflections on the Fourth Revolution,” in Winner, L., ed., Democracy in the Technological Society (Dordrecht: Kluwer, 1992) for my analysis. Other scholars have different categories of technological revolutions. See particularly Brooks, R. A., Flesh and Machines: How Robots Will Change Us (New York: Vintage Books, 2002) in which he provides the following categories: agricultural revolution (10,000 years ago); civilization revolution (5,500 years ago); industrial revolution (18th century – invention of the steam engine); information revolution (19th century – invention of the telegraph); robotics revolution (current); and biotechnology revolution (current). Although these categories are helpful they do no constitute the basis of my analysis.Google Scholar
Values are not specifically mentioned by Wartofsky but as I will point out they play an important role in the current research culture of post-academic science, see Ziman, supra note 1, at 73.Google Scholar
Wartofsky, supra note 2, at 28.Google Scholar
The role played by politics (and economics) in contemporary (post)-academic scientific culture is as important as science and technology themselves. As Ziman observes, “state patronage inevitably brings politics into science – and science into politics…The emergence of science policy – more generally, science and technology policy – is a major factor in the transition to a new regime for science”, see Ziman, supra note 1, at 74–75, emphasis in original.Google Scholar
Ziman, supra note 1, at 73.Google Scholar
Ziman, supra note 1, at 68. The characterization by Ziman of contemporary science as post-academic is meant to capture the social concern to apply pure scientific knowledge to practical problems, i.e., industrial applications. As Ziman remarks, “[h]aving observed the revolutionary capabilities of this knowledge in medicine, engineering, industry, agriculture, warfare, etc., people have become very impatient with the slow rate at which it diffuses out of the academic world. Governments, commercial firms, citizen groups and the general public are all demanding much more systematic arrangements for identifying, stimulating and exploiting potentially useful knowledge”, supra note 1, at 73. In other words, socio-economic constraints move scientists away from pure science and closer to pragmatic concerns. For an account of the dialectic between pure science and applied science, see Johnson, A., “The End of Pure Science? Science Policy from Bayh-Dole to the NNI,” Discovering Nanotechnology II, International Conference at Darmstadt Technical University, October 9–12, 2003, available at <http://www.ifs.tu-darmstadt.de/phil/nanopapers.html> (last visited Septmeber 19, 2006).+(last+visited+Septmeber+19,+2006).>Google Scholar
Cilliers, P., Complexity & Postmodernism (New York: Routledge, 1998): at 1.Google Scholar
It is true that scientific projects and discoveries are evaluated from various economic and scientific angles. However, it must be stressed that discoveries are first evaluated commercially before they are validated scientifically. That is, research with no scientific or social value will be difficult to justify unless it can be proven to have potential economic benefits, see Ziman, supra note 1, at 74.Google Scholar
Ziman, supra note 1, at 74.Google Scholar
Gibbons, M. Limoges, C. Nowotny, H. Schwartzman, S. Scott, P., and Trow, M., The New Production of Knowledge (London: Sage Publications, 1994).Google Scholar
Gibbons, et al., supra note 11, at 19.Google Scholar
Nowotny, H., Helga on the Internet, The Potential of Transdisciplinarity, at <http://www.interdisciplines.org/interdisciplinarity/papers/5/24> (last visited September 11, 2006).+(last+visited+September+11,+2006).>Google Scholar
Gibbons, et al., supra note 11, at 19.Google Scholar
Gibbons, et al., supra note 11, at 50.Google Scholar
Gibbons, et al., supra note 11, at 24.Google Scholar
Ziman, J., “‘Postacademic Science’: Constructing Knowledge with Networks and Norms,” Science Studies 9 (1996): 6780, at 78–79.Google Scholar
Ziman, supra note 1, at 74.Google Scholar
Ziman, supra note 1, at 210.Google Scholar
Gibbons, et al., supra note 11, at 36.CrossRefGoogle Scholar
Lyotard, J., The Postmodern Condition: A Report on Knowledge (Minneapolis: University of Minnesota Press, 1984): at 45. (Translation from the French by G. Bennington and B. Massumi).Google Scholar
Lyotard, supra note 20, at 46.Google Scholar
Nowotny, H. Scott, P., and Gibbons, M., Re-thinking Science (Cambridge: Polity Press, 2001): at 23.Google Scholar
Theis, T. N., “Information Technology Based on a Mature Nanotechnology: Some Societal Implications,” in Roco, C. M. and Bainbridge, W. S., eds., Societal Implications of Nanoscience and Nanotechnology (Boston: Kluwer, 2001): 7484.Google Scholar
See Faraday Partnership website, “Electronics Glossary,” at <www.eppic-faraday.com/glossary.html> (last visited September 11, 2006).+(last+visited+September+11,+2006).>Google Scholar
Although this discussion needs further developments, it is noteworthy to look at Theis' understanding of nanotechnology. As noted above, for him nanotechnology is more than just the ability to build things at the atomic level. In his view, nanotechnology is “about the creation and the manipulation of information… Information is now understood to be a measurable, rigorously defined, fundamental construct of physics, on the same conceptual level as energy or entropy.” Theis, supra note 25, at 61.Google Scholar
NASA Ames Research Center (2004), Center for Nanotechnology webpage, at <http://www.ipt.arc.nasa.gov/nanotechnology.html> (last visited September 11, 2006).+(last+visited+September+11,+2006).>Google Scholar
Jones, Richard asserts that our ability to observe and manipulate matter at the nanoscale is novel and not in dispute. As he remarks “what is now not in dispute is that scientists have an unprecedented ability to observe and control matter on the tiniest scales. Being able to image atoms and molecules is routine, but we can do more than simply observe; we can pick molecules up and move them around. Scientists also understand more about the ways in which the properties of matter change when it is structured on these tiny length scales. Technologists are excited by the prospects of exploiting the special properties of nanostructured matter. What these properties promise are materials that are stronger, computers that are faster, and drugs that are more effective than those we have now.” Jones, R., Soft Machines (New York: Oxford University Press, 2004): at 2.Google Scholar
Roco, and Bainbridge, supra note 25, at 1.Google Scholar
Roco, M. C. Williams, R. S., and Alivisatos, P., Nanotechnology Research Directions: Vision for Nanotechnology in the Next Decade (Boston: Kluwer, 2000): at xii.CrossRefGoogle Scholar
Khushf, G., “The Ethics of Nanotechnology: On the Vision and Values of a New Generation of Science and Engineering,” in National Academy of Engineering, Emerging Technologies and Ethical Issues in Engineering (Washington, D.C.: National Academies Press, 2004): 2956.Google Scholar
National Institutes of Health, Department of Health and Human Services, 2003, Statement for the Record on Nanotechnology, statement given before the Senate Committee on Commerce, Science, and Transportation, May 1, 2003.Google Scholar
Interestingly, in Germany a cleansing product called “Magic Nano” was recalled after at least 77 people reported severe respiratory problems according to the Federal Institute for Risk Assessment in Berlin. See Weiss, R., “Nanotech Product Recalled in Germany,” Washington Post, April 6, 2006, at A02.Google Scholar
Woodrow Wilson International Center for Scholars, Nanotechnology Consumer Products Inventory, 2006. Available at <http://www.nanotechproject.org/index.php?id=44Report> (last visited September 11, 2006).+(last+visited+September+11,+2006).>Google Scholar
N. Gordon and U. Sagman, Nanomedicine Taxonomy, Canadian Institutes of Health Research & Canadian NanoBusiness Alliance (2003).Google Scholar
Ziman, supra note 1, at 327.Google Scholar
For an overview of the debate, see Baum, R., “Nanotechnology: Drexler and Smalley Make the Case for and against ‘Molecular Assemblers’,” Chemical and Engineering News 81 (2003): 3742. In a series of open letters between Drexler and Smalley, exchanged in Chemical and Engineering News, each scientist defends a particular view as to what nanotechnology (qua molecular assemblers) can accomplish. Smalley argues from the standpoint of chemistry and sees limitations to applications. On the other hand, Drexler argues from a mechanical perspective and believes that there are no limits to nanotechnology and molecular assemblers.Google Scholar
See Moor, J. and Weckert, J., “Nanoethics: Assessing the Nanoscale from an Ethical Point of View,” at <http://www.ifs.tu-darmstadt.de/phil/Moor.pdf> (last visited September 19, 2006); and Grunwald, A., “Nanotechnology –A New Field of Ethical Inquiry?” Science and Engineering Ethics 11 (2005): 187201.Google Scholar
Khushf, supra note 33.Google Scholar
Khushf, supra note 33, emphasis added.Google Scholar
Shamoo, A. E. and Resnik, D. B., Responsible Conduct of Research (Oxford: Oxford University Press, 2003): at 4.Google Scholar
Salomon, J., “Science, Technology and Democracy,” Minerva 38 (2000): 3351, at 38.CrossRefGoogle Scholar
Cilliers, supra note 8, at 2, emphasis added.Google Scholar
See Mnyusiwalla, A. Daar, A. S., and Singer, P. A., “‘Mind the Gap’: Science and Ethics in Nanotechnology,” Nanotechnology 14 (2003): 913; Khushf, supra note 33; and Grunwald, supra note 40, at 198.CrossRefGoogle Scholar