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GM Food and Nanotechnology

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In Pursuit of Nanoethics

Part of the book series: The International Library of Ethics, Law and Technology ((ELTE,volume 10))

Abstract

In matters characterized by a high degree of complexity or uncertainty, such as the social and ethical dimensions of an emerging technology, it is often useful to begin with historical analogies (Steinbruner 2002). In the case of nanotechnology, one of the favored analogs is genetically modified (GM) foods. Even a cursory read of the first generation of social and ethical issues (SEI) literature on nanotechnology reveals that the GM food analogy plays prominently in motivating and framing the discourse, if not the agenda of SEI research. This chapter offers critical reflections on the comparisons between nanotechnology and GM foods. The aim is to identify the respects in which the comparisons are helpful in clarifying and responding to the SEI associated with emerging nanotechnologies, as well as the respects in which the comparisons are unhelpful or misleading. After reviewing several similarities and dissimilarities between the two types of technologies, three potential lessons from the GM food experience for emerging nanotechnologies are evaluated: a lesson on public engagement; a lesson on technological fixes; and a lesson on case by case assessment.

Portions of this chapter originally appeared in Sandler and Kay (2006) and Sandler (2007a, b, 2009).

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Notes

  1. 1.

    The analogy appears in scholarly articles, congressional testimonies, popular articles, public lectures, opinion pieces, and government publications. For example: Colvin (2003, April 9), Mnyusiwalla et al. (2003), Woodhouse (2004), Wilsdon (2004), Gorman et al. (2004), Moore (2002), The Royal Society (2004), Mehta (2004), Kulinowski (2004), Sweeney et al. (2003), Geoff Brumfiel (2003, July 17), Giles (2003, December 18/25), Wilsdon and Willis (2004), President’s Council of Advisors on Science and Technology (2005), National Research Council (2002), Thompson (n. d.), Marchant (2007), Burube (2006).

  2. 2.

    This point is emphasized by Moore (2002), who highlights the following: affluences levels sufficient to allow discriminating decisions about new technologies; the pervasiveness of technologies; the high rate of technological change; widespread acceptance of the importance of individual choice; public demandingness for greater accountability and evidence on unintended and unwanted consequences of new technologies; and the rapid pace at which SEI discussion can proceed and opposition form. Also relevant is reduced (and trending downward) levels of public trust in industry and government.

  3. 3.

    Prominent among these are Greenpeace and the ETC Group, formerly Rural Advancement Foundation International (RAFI), which has advocated shutting down research and development of molecular manufacturing and a moratorium on the commercial production of new nanomaterials (ETC Group 2003).

  4. 4.

    This is not to deny either that many food related technologies are widely accepted without any public scrutiny or that when there is public scrutiny a majority of consumers are not among those concerned (Thompson n. d.). The claims above are comparative and qualified. Food related technologies are more exposed to public opposition for the reasons given than technologies in fields that are already conceptualized by the public as technologically dominated and artificial; and among those who are concerned about food related technologies their concerns often are grounded in the role that food plays in human life/affairs, conceptions/expectations regarding naturalness, and so on.

  5. 5.

    “[E]arly and open discussions of the societal and ethical impacts of new technologies improve their staying power, save taxpayers money, and benefit our society” (Colvin 2003, April 9).

  6. 6.

    Here are a couple representative statements of this lesson:

    We believe that there is a danger of derailing NT if serious study of NT’s ethical, environmental, economic, legal, and social implications…does not reach the speed of progress in the sciences…The only way to avoid such a moratorium [on nanotechnology] is to immediately close the gap between the science and ethics of NT. The lessons of genomics and biotechnology make this feasible. Either the ethics of NT will catch up, or the science will slow down (Mnyusiwalla et al. 2003, pp. R9, R12).

    No nanotechnologist wants the field to go the way of GM foods, which are largely viewed as the poster child for misguided public policy. With sound technical data about nanomaterials’ health and environmental impacts and a commitment to open dialogue about potential social and ethical implications with all stakeholders, nanotechnology could avoid traveling along the wow-to-yuk trajectory (Kulinowski 2004, p. 19).

  7. 7.

    It is possible that opposition to GM foods carries over to nanotechnology through social and psychological inertia. The point here is not to deny this possibility, but to show that it is significantly less likely than has standardly been supposed.

  8. 8.

    In addition, it is not clear that increased knowledge or awareness of nanotechnology is associated with increases acceptance or support of it (Kahan et al. 2007).

  9. 9.

    Exceptions include Hillie and Hlophe (2007), Salamanca-Buentello et al. 2005, Project on Emerging Nanotechnologies (2007), and Invernizzi and Foladori (2005).

  10. 10.

    Ongoing efforts and possible pathways to overcome some of these barriers for nanotechnology are described in Rodrigues et al. (2007).

  11. 11.

    Other GM crops being developed or in the field that might be acceptable upon evaluation, depending upon how they are situated within broader approaches to resolving the relevant agricultural challenges, include rice with the capacity to fix nitrogen, cassava (a staple food in much of Africa) with resistance to the cassava mosaic virus, corn with resistance to the stem borer (which takes about 15 % of Kenya’s corn crop each year), crops with high salinity tolerance, and potatoes, canola, bananas, sorghum, and cassava with nutritional (e.g., protein, vitamin, or mineral) enhancement.

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Sandler, R. (2014). GM Food and Nanotechnology. In: Gordijn, B., Cutter, A. (eds) In Pursuit of Nanoethics. The International Library of Ethics, Law and Technology, vol 10. Springer, Dordrecht. https://doi.org/10.1007/978-1-4020-6817-1_4

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