On 4 and 5 April 1983 the Chicago Museum of Science and Industry celebrated its 50th anniversary with an invited conference titled, “Where Are We Going?;—Critical Issues in Science and Technology.” This article is a slightly revised version of Professor Marx's talk given there.—Ed.

Introduction -- Repression, ignorance, and undone science -- The epistemic dimension of the political opportunity structure -- The politics of meaning: from frames to design conflicts -- The organizational forms of counterpublic knowledge -- Institutional change, industrial transitions, and regime resistance politics -- Contemporary change: liberalization and epistemic modernization -- Conclusion.

This paper examines public conflict over the rapid growth of the Tasmanian salmon aquaculture industry and associated environmental and social impacts. By conducting a media analysis, triangulated...

The life and work of Renaissance man Leo Beranek: scientist, professor, engineer, busisess leader, inventor, entrepreneur, musician, television executive, philanthropist, and author.

Academic entrepreneurship and the commercialization of science have transformed higher education in recent decades. Although there is ample research on the topic, less is known about how individual scientists experience and perceive the transformation. Drawing on a narratological approach to sensemaking, this study examines how entrepreneurial scientists in Finland and Israel make sense of and narrate the perceived changes in the interface between science, university, and industry. An analysis of 53 semi-structured interviews reveals three sensemaking narratives demonstrating how (...) scientists’ interactions with the industry have engendered perceived shifts in ‘regimes of value’ in universities. These narratives focus on: (1) bi-directional learning between academy and industry; (2) the use of new valuation devices and practices; and (3) changing relationships between scientists and universities. Our findings advance research on academic entrepreneurship by highlighting the coexisting regimes of value and the consequences they have for science, value, and power. (shrink)

This article reviews empirical and conceptual material from two distinct research traditions: on the science-technology relation and on industrial innovation. It aims both to shed new light on an old debate—the distinction between scientific and technological knowledge—and to refine our conceptualizations of the knowledge used by companies in the course of research and development leading to innovation. On the basis of three empirical studies, a composite categorization of different types of knowledge used in innovation is proposed, as part of (...) a broader framework encompassing two further taxonomic dimensions. It is hoped that this typology and framework might provide useful research tools in furthering our understanding of the knowledge transfers and transformations that occur in the course of innovation. It could also prove useful for organizations and groups facing difficult strategic choices about technology. (shrink)

Riding the Waves: A Life in Sound, Science, and IndustryManhattan Project to the Santa Fe Institute: The Memoirs of George A. Cowan by Leo Beranek; George A. Cowan.

This paper takes Franco's Spain to be a powerful case study for analyzing the ways in which power shapes science and technology and is shaped by them in return. Spain was the last country in Western Europe to establish closer links with any of the international cooperative institutions emerging after WWII. As such, developments internal to Spanish society were quite autonomous and relatively free from foreign influences. The paper focuses first on the brand new, powerful institution that the Francoist (...) regime created to promote scientific research under tight political control, the Consejo Superior de Investigaciones Científicas. Next it turns to applied science and technology, top priorities for the regime's state-supported programs of industrialization. They were implemented through the politically and financially powerful Instituto Nacional de Industria. Using diplomatic sources, the paper next argues that, until the late 1950s, Spain maintained substantial political and economic isolation essentially because the regime bet on autarkic policies and a model of largely isolated development. In this model, it was crucial for the regime to develop its own technological and scientific resources. Finally, the paper examines how the regime fostered a new Spanish identity in which science had a new role. (shrink)

ArgumentWhile science and economy are undoubtedly interwoven, the nature of their relationship is often reduced to a positive correlation between economic and scientific prosperity. It seems that the modern scholarship focusing on “success stories” tends to neglect counterintuitive examples such as the impact of economic crises on research. We argue that economic difficulties, under certain circumstances, may also lead to the prosperous development of scientific institutions. This paper focuses on a particular organism, the Pine Institute in Bordeaux in France. (...) Not only was it a key actor in the process of defining the discipline of resin chemistry, but also it remained for years at the heart of the local resin producing industry. Interestingly, there is an actual inverse correlation between the Institute's budgets and the prices and production of resinous products. The Pine Institute's existence seemed to have been driven by the crisis of the resin industry. (shrink)

First published in 1927, _Science and Philosophy: And Other Essays_ is a collection of individual papers written by Bernard Bosanquet during his highly industrious philosophical life. The collection was put together by Bosanquet’s wife after the death of the writer and remains mostly unaltered with just a few papers added and the order of entries improved. The papers here displayed consist of various contributions Bosanquet made to _Mind_, the _Proceedings of the Aristotelian Society_, the _International Journal of Ethics_ and other (...) periodicals, as well as work from volumes of lectures and essays under his own or other editorship. Throughout the collection, Bosanquet considers the relationship between science and philosophy. The two subject areas became increasingly intertwined during Bosanquet’s lifetime as scientific writers grew more interested in the philosophical investigation of the concepts which underlined their work and philosophical thinkers recognised the importance of the relationship between mathematics and logic as well as that between physics and metaphysics. The first essay in this volume discusses this idea explicitly and all subsequent articles may be regarded as essays in support of the main discussion with which the volume opens. (shrink)

An introduction to the new area of ignorance studies that examines how science produces ignorance—both actively and passively, intentionally and unintentionally. We may think of science as our foremost producer of knowledge, but for the past decade, science has also been studied as an important source of ignorance. The historian of science Robert Proctor has coined the term agnotology to refer to the study of ignorance, and much of the ignorance studied in this new area is (...) produced by science. Whether an active or passive construct, intended or unintended, this ignorance is, in Proctor's words, “made, maintained, and manipulated” by science. This volume examines forms of scientific ignorance and their consequences. A dialogue between Proctor and Peter Galison offers historical context, presenting the concerns and motivations of pioneers in the field. Essays by leading historians and philosophers of science examine the active construction of ignorance by biased design and interpretation of experiments and empirical studies, as seen in the “false advertising” by climate change deniers; the “virtuous” construction of ignorance—for example, by curtailing research on race- and gender-related cognitive differences; and ignorance as the unintended by-product of choices made in the research process, when rules, incentives, and methods encourage an emphasis on the beneficial and commercial effects of industrial chemicals, and when certain concepts and even certain groups' interests are inaccessible in a given conceptual framework. Contributors Martin Carrier, Carl F. Cranor, Peter Galison, Paul Hoyningen-Huene, Philip Kitcher, Janet Kourany, Hugh Lacey, Robert Proctor, Londa Schiebinger, Miriam Solomon, Torsten Wilholt. (shrink)

Philosophers of science have argued that epistemic diversity is an asset for the production of scientific knowledge, guarding against the effects of biases, among other advantages. The growing privatization of scientific research, on the contrary, has raised important concerns for philosophers of science, especially with respect to the growing sources of biases in research that it seems to promote. Recently, Holman and Bruner ( 2017 ) have shown, using a modified version of Zollman ( 2010 ) social network (...) model, that an industrial selection bias can emerge in a scientific community, without corrupting any individual scientist, if the community is epistemically diverse. In this paper, we examine the strength of industrial selection using a reinforcement learning model, which simulates the process of industrial decision-making when allocating funding to scientific projects. Contrary to Holman and Bruner’s model, in which the probability of success of the agents when performing an action is given a priori, in our model the industry learns about the success rate of individual scientists and updates the probability of success on each round. The results of our simulations show that even without previous knowledge of the probability of success of an individual scientist, the industry is still able to disrupt scientific consensus. In fact, the more epistemically diverse the scientific community, the easier it is for the industry to move scientific consensus to the opposite conclusion. Interestingly, our model also shows that having a random funding agent seems to effectively counteract industrial selection bias. Accordingly, we consider the random allocation of funding for research projects as a strategy to counteract industrial selection bias, avoiding commercial exploitation of epistemically diverse communities. (shrink)

Scholars in science and technology studies (STS) have recently been called upon to advise governments on the design of procedures for public engagement. Any such instrumental function should be carried out consistently with STS’s interpretive and normative obligations as a social science discipline. This article illustrates how such threefold integration can be achieved by reviewing current US participatory politics against a 70-year backdrop of tacit constitutional developments in governing science and technology. Two broad cycles of constitutional adjustment (...) are discerned: the first enlarging the scope of state action as well as public participation, with liberalized rules of access and sympathetic judicial review; the second cutting back on the role of the state, fostering the rise of an academic-industrial complex for technology transfer, and privatizing value debates through increasing delegation to professional ethicists. New rules for public engagement in the United Sates should take account of these historical developments and seek to counteract some of the anti-democratic tendencies observable in recent decades. (shrink)

This article examines how chemists contributed to the technological reorganization in France at the end of the eighteenth century and the beginning of the nineteenth century, how they justified using potentially harmful or polluting processes by stating that this would contribute to national prosperity, and how the idea of improvement helped to legally and rhetorically build a production regime that disqualified traditional precautionary attitudes to certain artisanal and industrial processes. This resulted in the establishment of a new environmental governance regime (...) devoted to the advancement of chemistry and of industrial production. While this shift was clearly perceptible from the 1770s with the first regulatory exceptions for strategic products, the 1810 decree, which was imagined, designed, and implemented by chemists, perpetuated chemistry’s role as an environmental regulator. (shrink)

Promoting collaboration between university researchers and practitioners from the business and public sectors has emerged as an important tool of science policy. This article examines the discourses that policy makers employ in promoting this strategy by analyzing the narratives about the social relevance of science and its role vis-à-vis the industrial sector in the context of strategic research funding in Sweden. Four dominant discourses on science are identified and discussed. It is argued that these policy frames construct (...) a boundary between research and practice, which is in turn used as rhetorical justification for research funding policies that seek to increase business influence and input to university research at the expense of academic autonomy in this sphere. (shrink)

This book deals with the problem of dual-use science research and technology. It first explains the concept of dual use and then offers analyses of collective knowledge and collective ignorance. It goes on to present a theory of collective responsibility, followed by four chapters focusing on a particular scientific field or industry of dual use concern: the chemical industry, the nuclear industry, cyber-technology and the biological sciences. The problem of dual-use science research and technology arises because such research (...) and technology has the potential to be used for great evil as well as for great good. On the one hand, knowledge is a necessary condition, and perhaps a constitutive feature, of technologies that contribute greatly to individual and collective well-being. Consider, for example, nuclear technology that enables the generation of low cost electricity in populations without obvious alternative energy sources. So technological knowledge is a good thing and ignorance of it a bad thing. On the other hand, these same technologies can be extremely harmful to individuals and collectives, as with the atomic bombs dropped on Hiroshima and Nagasaki. So, at least with respect to some technologies evidently knowledge is a bad thing and ignorance a good thing. Accordingly, the question arises as to whether we ought to limit scientific research and/or the development of technology and, if so, which research or technology, in what manner and to what extent. This book examines the answer to that question. (shrink)

Karl Marx’s socio-economic analysis of capitalism and the conditions of industrial production are meant to imply the competitive alienation of workers in at least two important senses: Workers are alienated from their tools and materials because under capitalism they generally do not own, develop or cultivate the means of production or market for products themselves; and Workers are alienated from one another in competitive isolation prior to the evolution of assembly-line production in the classical progression of capitalist manufacturing. The present (...) essay develops two main aspects of the art of alienation in this characteristically Marxist aesthetic – directly influenced by Marx, as opposed to existential or atheistic among other kinds of alienation. Focus is placed on Marx’s PhD dissertation and Philosophical and Economic Manuscripts of 1844, as a reflection of the state of social life, philosophical perspectives on the human condition, in a time of mechanization, consumerism and godless materialism. The history of artistic developments offers independent confirmation of Marx’s thematization of alienation objectifying itself as a sign of the times in artistic production and aesthetic theory. (shrink)

Explanations of productivity differences between men and women in science tend to focus on the academic sector and the individual level. This article examines how variation in organizational logic affects sex differences in scientists' commercial productivity, as measured by patenting. Using detailed data from a sample of academic and industrial life scientists working in the United States, the authors present multivariate regression models of scientific patenting. The data show that controlling for education- and career-history variables, women are less likely (...) to patent than men. However, in biotechnology firms—industrial settings characterized by flatter, more flexible, network-based organizational structures— women scientists are more likely to become patent-holding inventors than in more hierarchically arranged organizational settings in industry or academia. The authors discuss how the organization of scientists'work settings may influence enduring disparities between men and women in science and the implications of these findings for future work. (shrink)

–Whether celebratory or critical, STS research on science-industry relations has focused on the blurring of boundaries and hybridization of codes and practices. However, the vocabulary of boundary and hybrid tends to reify science and industry as separate in the attempt to map their relation. Drawing on interviews with the head of a research center in plant biology, this article argues that biology and biotech are symbionts. In order to be viable and productive, symbiosis needs to be carefully managed (...) and given room for divergence within mutual dependence. This process does not take place as the negotiation of a preexisting science-industry boundary. Rather, viability is obtained through a strategy of circumventing the science-industry food chain and sequestering biotech components within the research center. Symbiosis allows academic scientists to do biology while at the same time demonstrating entrepreneurial spirit. (shrink)

Industrial wind turbines (IWTs) are being installed at a fast pace globally. Researchers, medical practitioners, and media have reported adverse health effects resulting from living in the environs of IWTs. While there have been some anecdotal reports from technicians and other workers who work in the environs of IWTs, little is known about the occupational health sector. The purpose of this case study is to raise awareness about the potential for adverse health effects occurring among workers. The authors propose that (...) there is a need for research regarding occupational worker exposure relating to IWTs. (shrink)

Asymmetrical convergence is the increasing overlap between academic and industrial sectors, but with academia moving closer toward for-profit industrial norms than vice versa. Although this concept, developed by Kleinman and Vallas, is useful, processes of asymmetrical convergence in daily laboratory life are largely unexplored. Here, observations of three lab groups of chemical scientists in academic and industry contexts illustrate variation in interactions with ethics-related policies. Findings show more tension for academic science with business-based practices, such as the move toward (...) greater accountability, than for industrial science with academic practices. This asymmetry is evident in the process of purposive decoupling: for example, where academic scientists use humor to distance themselves from the performance of compliance in required reporting and top-down ethics training requirements. This distancing from meaningless requirements contrasts with mentoring around practices of professional behavior that are thought to matter. Convergence is evident in how safety policies seem more engaging than other kinds of policies. Yet, power structures shape engagement. Academic engagement often means rule following, and flows vertically from professor’s authority to student apprenticeship. Industry engagement includes collaborative problem solving and flows along a more horizontal peer structure where informal power is less visible. (shrink)

This article draws insights from a case study examining unanswered health questions of residents in two polluted towns in an industrial region in southern France. A participatory health study, as conducted by the author, is presented as a way to address undone science by providing the residents with relevant data supporting their illness claims. Local residents were included in the health survey process, from the formulation of the questions to the final data analysis. Through this strongly participatory science (...) process, the townspeople offered many creative ideas in the final report for how the data could be used to assist in improving their health and environment and policy work is already in evidence, resulting from the study. Drawing from the literature on participatory science and expertise as well as from the initial outcomes of the local health study, I propose that SPS produces a form of knowledge justice. Understanding knowledge and its making as part of a social justice agenda aligns well with environmental justice frames. Through SPS, local residents have a hermeneutical resource to make sense of their embodied lives and augment their claims with strong data supporting actions for improving their health and environment. (shrink)

Science and Technology Ethics re-examines the ethics by which we live and asks the question: do we have in place the ethical guidelines through which we can incorporate these developments with the minimum of disruption and disaffection? It assesses the ethical systems in place and proposes new approaches to our scientific and engineering processes and products, our social contacts, biology and informatics, the military industry and our environmental responsibilities. The volume is multidisciplinary and reflects the aim of the book (...) to promote a state of the art assessment of these issues. Science and Technology Ethics is a much-needed discussion of the scientific developments that have major effects on the way we live. It will be of interest to all students of science and technology and all professionals involved with administrating laws in these fields. (shrink)

"This 2-volume set within the SAGE Reference Series on Leadership tackles issues relevant to leadership in the realm of science and technology. To encompass the key topics in this arena, this handbook features 100 topics arranged under eight headings. Volume 1 concentrates on general principles of science and technology leadership and includes sections on social-scientific perspectives on S&T leadership; key scientific concepts about leading and innovating in S&T; characteristics of S&T leaders and their environments; and strategies, tactics, and (...) tools of S&T leadership. Volume 2 provides case studies of leadership in S&T, with sections considering leadership in informal communities of scientists and engineers; leadership in government projects and research initiatives; leadership in industry research, development, and innovation; and finally, leadership in education and university-based research. By focusing on key topics within 100 brief chapters, this unprecedented reference resource offers students more detailed information and depth of discussion than typically found in an encyclopedia entry but not as much jargon, detail or density as in a journal article or a research handbook chapter. Entries are written in language and style that is broadly accessible, and each is followed by cross-references and a brief bibliography and further readings. A detailed index and an online version of the work enhances accessibility for today's student audience"--Provided by publisher. (shrink)