The Science Industry Nexus

Canadian Science, Technology, and Innovation Policy presents new critical analysis about related developments in the field such as significantly changed concepts of peer review, merit review, the emergence of big data in the digital age, and the rise of an economy and society dominated by the internet and information. The authors scrutinize the different ways in which federal and provincial policies have impacted both levels of government, including how such policies impact on Canada's natural resources. They also study key government departments and agencies involved with science, technology, and innovation to show how these organizations function increasingly in networks and partnerships, as Canada seeks to keep up and lead in a highly competitive global system. The book also looks at numerous realms of technology across Canada in universities, business, and government and various efforts to analyze biotechnology, genomics, and the Internet, as well as earlier technologies such as nuclear reactors, and satellite technology. The authors assess whether a science-and-technology-centred innovation economy and society has been established in Canada - one that achieves a balance between commercial and social objectives, including the delivery of public goods and supporting values related to redistribution, fairness, and community and citizen empowerment. Probing the nature of science advice across prime ministerial eras, including recent concerns over the Harper government's claimed muzzling of scientists in an age of attack politics, Canadian Science, Technology, and Innovation Policy provides essential information for academics and practitioners in business and government in this crucial and complex field.

"The impact of science and technology on world affairs is shaped by politics, economics, business, ethics, law, psychology, and culture. This nexus is a neglected aspect of international affairs. It cuts across and unites diverse issues critical to human survival: climate change, global health, nuclear weapons, Internet governance, cybersecurity, jobs, competitiveness, poverty, hunger, and the management of new technologies like autonomous weapons, hypersonic missiles, geoengineering, and gene drivers. Advances in science and technology promise both great benefits and critical threats. Appropriate policies can stimulate and guide scientific and technological advance to create new ways to achieve a healthy environment, sustainable energy systems, equitable growth, full employment, and reduced poverty. But we are allowing technology to push ourselves into uncharted and dangerous territory. Long-standing modes of international cooperation are under increasing pressure, and we are making too little effort to strengthen and update them. Nor are we building the strong global norms that we need to manage new technologies. Underlying all of the global problems discussed in this book are considerations of basic ethics: our willingness to respect scientific facts, to act today to forestall long-run dangers, and to ensure equitable sharing of the benefits, costs, and risks from advances in science and technology"--

Many deep concerns in the life sciences and medicine have to do with the enactment, ordering and displacement of a broad range of values. This volume articulates a pragmatist stance for the study of the making of values in society, exploring various sites within life sciences and medicine and asking how values are at play. This means taking seriously the work scientists, regulators, analysts, professionals and publics regularly do, in order to define what counts as proper conduct in science and health care, what is economically valuable, and what is known and worth knowing. A number of analytical and methodological means to investigate these concerns are presented. The editors introduce a way to indicate an empirically oriented research program into the enacting, ordering and displacing of values. They argue that a research programme of this kind, makes it possible to move orthogonally to the question of what values are, and thus ask how they are constituted. This rectifies some central problems that arise with approaches that depend on stabilized understandings of value. At the heart of it, such a research programme encourages the examination of how and with what means certain things come to count as valuable and desirable, how registers of value are ordered as well as displaced. It further encourages a sense that these matters could be, and sometimes simultaneously are, otherwise.

The changing relationships between science and industry in the late nineteenth and early twentieth centuries, illustrated by the career of the “father of plastics.” The Belgian-born American chemist, inventor, and entrepreneur Leo Baekeland (1863–1944) is best known for his invention of the first synthetic plastic—his near-namesake Bakelite—which had applications ranging from electrical insulators to Art Deco jewelry. Toward the end of his career, Baekeland was called the “father of plastics”—given credit for the establishment of a sector to which many other researchers, inventors, and firms inside and outside the United States had also made significant contributions. In Beyond Bakelite, Joris Mercelis examines Baekeland's career, using it as a lens through which to view the changing relationships between science and industry on both sides of the Atlantic in the late nineteenth and early twentieth centuries. He gives special attention to the intellectual property strategies and scientific entrepreneurship of the period, making clear their relevance to contemporary concerns. Mercelis describes the growth of what he terms the “science-industry nexus” and the developing interdependence of science and industry. After examining Baekeland's emergence as a pragmatic innovator and leader in scientific circles, Mercelis analyzes Baekeland's international and domestic IP strategies and his efforts to reform the US patent system; his dual roles as scientist and industrialist; the importance of theoretical knowledge to the science-industry nexus; and the American Bakelite companies' research and development practices, technically oriented sales approach, and remuneration schemes. Mercelis argues that the expansion and transformation of the science-industry nexus shaped the careers and legacies of Baekeland and many of his contemporaries.

This volume tackles head-on the controversy regarding the tensions between the principles underlying Academe on the one hand, and the free market on the other. Its outspoken thesis posits that seemingly irresistible institutional pressures are betraying a core principle of the Enlightenment: that the free pursuit of knowledge is of the highest value in its own right. As ‘market principles’ are forced on universities, inducing a neoteric culture of ‘managerialism’, many worry that the very characteristics that made European higher education in particular such a success are being eroded and replaced by ideological opportunism and economic expediency. Richly interdisciplinary, the anthology explores a wealth of issues such as the phenomenon of bibliometrics (linking an institution’s success to the volume and visibility of publications produced). Many argue that the use of such indicators to measure scientific value is inimical to the time-consuming complexities of genuine truth-seeking. A number of the greatest discoveries and innovations in the history of science, such as Newton’s laws of mechanics or the Mendelian laws of inheritance, might never have seen the light of day if today’s system of determining and defining the form and content of science had dominated. With analytical perspectives from political science, economics, philosophy and media studies, the collection interrogates, for example, the doctrine of graduate employability that exerts such a powerful influence on course type and structure, especially on technical and professional training. In contrast, the liberal arts must choose between adaptation to the dictates of employability strategies or wither away as enrollments dwindle and resources evaporate. Research projects and aims have also become an area of controversy, with many governments now assessing the value of proposals in terms of assumed commercial benefits. The contributors argue that these changes, as well as ‘reforms’ in the managerial and administrative structures in tertiary education, constitute a radical break with the previous ontology of science and scholarship: a change in its very character, and not merely its form. It shows that the ‘scientific thinking’ students, researchers, and scholars are encouraged to adopt is undergoing a rapid shift in conceptual content, with significant consequences not only for science, but also for the society of which it is a part.

Materials science institutions have always been crucial to the development of materials research. Even before materials science emerged as a discipline in the 20th century, these institutions existed in various forms. They provided specialized facilities for research, educated new generations of researchers, drafted policies and funded programs, enabled valuable connections between research groups, or played any other role which were needed to further the progress of materials science.This volume, the third in a series of volumes covering the development and history of materials science, presents illuminating perspectives on material science institutions. Twenty chapters are organized into six comprehensive parts of which each cover a characteristic aspect or historical feature. True to the topic they write about, the contributors to this volume have varied backgrounds. Some are materials scientists and engineers, but others are historians, philosophers of science, sociologists, or even directors of institutions themselves. This comprehensive, unified collection is a valuable resource for undergraduates, graduate students, academics, policymakers and professionals who are actively interested in materials science and its development from the past to the future.

The changing relationships between science and industry in the late nineteenth and early twentieth centuries, illustrated by the career of the “father of plastics.” The Belgian-born American chemist, inventor, and entrepreneur Leo Baekeland (1863–1944) is best known for his invention of the first synthetic plastic—his near-namesake Bakelite—which had applications ranging from electrical insulators to Art Deco jewelry. Toward the end of his career, Baekeland was called the “father of plastics”—given credit for the establishment of a sector to which many other researchers, inventors, and firms inside and outside the United States had also made significant contributions. In Beyond Bakelite, Joris Mercelis examines Baekeland's career, using it as a lens through which to view the changing relationships between science and industry on both sides of the Atlantic in the late nineteenth and early twentieth centuries. He gives special attention to the intellectual property strategies and scientific entrepreneurship of the period, making clear their relevance to contemporary concerns. Mercelis describes the growth of what he terms the “science-industry nexus” and the developing interdependence of science and industry. After examining Baekeland's emergence as a pragmatic innovator and leader in scientific circles, Mercelis analyzes Baekeland's international and domestic IP strategies and his efforts to reform the US patent system; his dual roles as scientist and industrialist; the importance of theoretical knowledge to the science-industry nexus; and the American Bakelite companies' research and development practices, technically oriented sales approach, and remuneration schemes. Mercelis argues that the expansion and transformation of the science-industry nexus shaped the careers and legacies of Baekeland and many of his contemporaries.