Organizational institutionalism has shown how institutional entrepreneurs can introduce new logics into fields and push for their broader acceptance. In academic science in the United States, however, market logic gained strength without such an entrepreneurial project. This article proposes an alternative “practice selection” model to explain how a new institutional logic can gain strength when local innovations interact with changes outside the field. Actors within a field are always experimenting with practices grounded in a variety of logics. When one logic (...) is dominant, innovations based on alternative logics may have trouble gaining the resources they need to become more broadly institutionalized. But if a changing environment starts systematically to favor practices based on an alternative logic, that logic can become stronger even in the absence of a coherent project to promote it. This is what happened in US academic science, as growing political concern with the economic impact of innovation changed the field’s environment in ways that encouraged the spread of local market-logic practices. (shrink)

A comparison of the engineering schools at UC Berkeley and Stanford during the 1940s and 1950s shows that having an excellent academic program is necessary but not sufficient to make a university entrepreneurial. Key factors that made Stanford more entrepreneurial than Cal during this period were superior leadership and a focused strategy. The broader institutional context mattered as well. Stanford did not have the same access to state funding as public universities and some private universities. Therefore, in order to gather (...) resources, Stanford was forced to become entrepreneurial first, developing business skills at the same time Cal was developing political skills. Stanford ’s early development of entrepreneurial business skills played a crucial role in the development of Silicon Valley. (shrink)

This article describes the emerging bipartisan political coalition supporting commercial competitiveness as a rationale for research and development, points to selected changes in legal and funding structures in the 1980s that stem from the success of the new political coalition and suggests some of the connections between these changes and academic science and technology, and examines the consequences of these changes for universities. The study uses longitudinal secondary data on changes in business strategies and corporate structures that made business elites (...) in the defense and health industries consider supporting competitiveness R&D policies. The article identifies and assesses an array of national R&D legislation concerned with competitiveness that was passed in the 1980s and 1990s and that has implications for academic R&D. The effects of competitiveness R&D policies on universities and academic science and technology are appraised by analyzing changes in time-series data on science and technology indicators compiled by the National Science Foundation. (shrink)

In the wake of revelations about the American Psychological Association's complicity in the military's enhanced interrogation program, some psychologists have called upon the association to sever its ties to national security agencies. But psychology's relationship to the military is no short-term fling born of the War on Terror. This article demonstrates that psychology's close relationship to national security agencies and interests has long been a visible and consequential feature of the discipline. Drawing on social scientific debates about the relationship between (...) national security agencies and the social sciences in the late 1960s and early 1970s, this article also provides cautionary lessons for psychologists confronting the torture controversy. It concludes that an ethically robust response to this controversy requires that psychologists engage in a sustained reckoning with the powerful institutional, epistemological, and financial incentives that have bound the discipline to the military and intelligence communities since World War I. (shrink)

Finding an appropriate place for STS within the American science and engineering curriculum has never been easy. Convincing science, engineering, and medical students, and their professors, to pay serious attention to the broader context of their respective professions seems to require a sustained dialogue across conventional disciplinary boundaries. Otherwise, STS ends up talking mostly to itself and its critics rather than to its most important audience, students (at all levels) and the general public (especially museum visitors). This essay considers a (...) number of historical and present-day examples to argue that the founding vision of STS as a collaborative enterprise still offers some valuable lessons about how best to reach that audience. (shrink)

The Danish marine biologist Anton Frederik Bruun (1901–1961) is chiefly remembered as an explorer of the deep-sea fauna and a key figure in international scientific organizations during the 1950s. As the Cold War increasingly permeated the marine sciences and it became too expensive for small states to operate deep-sea research vessels, he became an asset to the USA's oceanographic establishment as it sought to first assess Soviet strength (in terms of research, technology and logistical capacity) and then to build up (...) American oceanography in response. Bruun's contacts with the USSR – including a visit in 1957 – strengthened his contacts to the American military as well as American oceanographers. His enthusiasm for raising interest in the marine sciences in developing countries could also be matched to American geopolitical goals. Bruun's participation in the Scripps Institution of Oceanography's Naga expedition to the South China Sea and Gulf of Thailand captured the mutually beneficial nature of his American connections. Bruun was able to use the USA to reach distant oceans, while the USA in turn gained from Bruun's prestige as it forged connections with friendly states through science, an increasingly important arena for Cold War competition. (shrink)

This inclusive cross-cultural study rethinks the nexus between engineering education and context. In so doing the book offers a reflection on contextual boundaries with an overall boundary crossing ambition and juxtaposes important cases of critical participation within engineering education with sophisticated scholarly reflection on both opportunities and discontents. -/- Whether and in what way engineering education is or ought to be contextualized or de-contextualized is an object of heated debate among engineering educators. The uniqueness of this study is that this (...) debate is given comprehensive coverage – presenting both instrumentally inclined as well as radical positions on transforming engineering education. -/- In contextualizing engineering education, this book offers diverse commentary from a range of disciplinary, meta- and interdisciplinary perspectives on how cultural, professional, institutional and educational systems contexts shape histories, structural dynamics, ideologies and challenges as well as new pathways in engineering education. Topics addressed include examining engineering education in countries ranging from India to America, to racial and gender equity in engineering education and incorporating social awareness into the area. -/- Using context as “bridge” this book confronts engineering education head on. Contending engineering ideologies and corresponding views on context are juxtaposed with contending discourses of reform. The uniqueness of the book is that it brings together scholars from the humanities, the social sciences and engineering from Europe – both East and West – with the United States, China, Brazil, India and Australia. (shrink)

Historical analyses of the genesis of the National Science Foundation have given insufficient attention to the role of business in the legislative struggle to establish a postwar research policy agency. This has led to an incomplete understanding of the defining characteristics of the final NSF legislation. Agency focus on basic research has heretofore been interpreted largely as a response to scientists' interests rather than to those of scientists and business. Moreover, the concern of industry with the intellectual property provisions of (...) the legislation has also been underappreciated. In this article, the standard history of the genesis of the National Science Foundation is revised by dissecting the concerns of business with NSF legislation and the role of business in shaping the legislation. The character and influence of industry on proposals for a National Science Foundation are clarified through an examination of three distinct ways in which industry shaped National Science Foundation legislation. The article concludes that in the debate over the establishment of the NSF, interests and influence must be seen as layered, overlapping, and blurred. (shrink)

Changes brought by the rise of the global economy and the end of the Cold War era have resulted in industry, government, and university rethinking their roles vis-à-vis research and development, basic versus applied research, and the role of corporate research. Since the mid-1980s, industrial research in the United States has been going through restructuring. Interviews with seventy-two scientists and eighteen managers working in six centralized corporate R&D laboratories in high-technology industry show that a new culture of dependence with a (...) mission-oriented approach is replacing the cherished culture of independence with a result-oriented approach. (shrink)

In The Logic of Life, François Jacob reconstructed the history of heredity from the seventeenth century to the present, emphasizing the role of physics in the development of biology. Quantum mechanics provided questions, methods, and techniques to molecular biologists. In the 1960s, physics also provided the organizational model. Jacob worked on the creation of the European Molecular Biology Laboratory, on the model of CERN (European Organization for Nuclear Research). I argue that reflection on the relation between molecular biology and physics (...) played a part in the making of The Logic of Life. Between the mid-1960s and the early 1970s, Jacob focused on relations between the “genealogy” of his molecular biology work and the development of physics at scientific, institutional, and historical levels. He thus brought molecular biology to the attention of a larger public, following the history of the Institut Pasteur, whose public mission had to be reaffirmed to grant its survival. With The Logic of Life, Jacob became an influential intellectual who engaged with scholars in human sciences. He promoted his view of the development of molecular biology as a model for a possible new discipline: bioanthropology. (shrink)

With this introduction we aim to illuminate Western Europe's place on the map of Cold War science and, specifically, to draw attention to the differences in and the diversity of Western European Cold War science in comparison to the United States. By discussing narratives of Cold War science in small states and asking how they fit into the European condition, we suggest that the fact of being a small state affects the conditions for and the scope of Cold War science. (...) As a whole, this special issue also emphasizes the importance of the spatial dimension; that is, the significant dependence of Cold War science on geographical relations and geopolitical interests. (shrink)

Using the example of the American motivational psychologist David C. McClelland, this article analyses how psychologists in the long 1960s acted as generous purveyors of knowledge in order to bring about far reaching social change, without having to enter the field of institutionalised politics. The article thus explores a supposedly passive form of activism beyond lobbying and consultating that was intended to encourage citizens to self-direct in order to bring about changes that were supposedly beyond the reach of structural planning (...) policy. Using two case studies, it is argued that the principle of self-direction often associated with neoliberalism developed in parallel with planning policy in the long 1960s, rather than as a consequence of its failure in the 1970s and 1980s. Since this was often done in an entrepreneurial way, it led to the emergence of the entrepreneurial scientist who ran science, educational training and social reform as a business. Unlike political influence through lobbying, this form of scientific political activism wasdirectin that it directly impacted individual social groups, but it was alsoprecariousin its chances of success, because whether those approached were willing to accept what was offered to them depended on conditions over which the scientists involved had no control. As early as the long 1960s, it is concluded, privately run programmes aimed at activating the individual were part of what we know as state-directed welfare policy. (shrink)

The theory of boundary organizations was developed to address an important group of institutions in American society neglected by scholarship in science studies and political science. The long-term stability of scientific and political institutions in the United States has enabled a new class of institutions to grow and thrive as mediators between the two. As originally developed, this structural feature of these new institutions—that is, their location on the boundary between science and politics—dominated theoretical frame-works for explaining their behavior. Applying (...) the theory of boundary organizations to international society requires a refocusing of some of the theory’s central features, however. In this article, I introduce a new framework—hybrid management—to explain the activities of boundary organizations in the more complex, contingent, and contested settings of global politics. I develop the framework of hybrid management using the specific example of the U.N. Framework Convention on Climate Change’s Subsidiary Body for Scientific and Technological Advice. (shrink)

Crucial to the establishment of a scientific discipline is a body of knowledge organized around a set of instruments, interpretive techniques, and regimes of training in their application. In this paper, we trace the involvement of scientists and engineers at Varian Associates in the development of nuclear magnetic resonance spectrometers from the first demonstrations of the NMR phenomenon in 1946 to the definitive takeoff of NMR as a chemical discipline by the mid-1960s. We examine the role of Varian scientists in (...) constructing several models of NMR instruments for research scientists in the 1950s and the Varian efforts to influence the adoption of NMR as a standard tool for chemical analysis through Varian-supported publications, participation in scientific meetings, collaborations with academic chemists, workshops, and postdoctoral fellowships. Special attention is devoted to the development of the Varian A-60, the first commercial NMR instrument intended for the broadly trained chemist rather than a custom-built tool for the research specialist. Drawing on an examination of the use-rate of NMR instruments in chemical literature, the assessment of NMR in the chemical review literature by practitioners, and indicators of the establishment of a suitable funding environment for the growth of physics-based scientific instrumentation in the post-Sputnik era, we argue that the establishment of NMR as a discipline coincided with the adoption of the A-60 in the mid-1960s. During the period of our study, Varian Associates was a primary military contractor. This paper is intended to contribute to recent interest in the relation of military fundingto scientific enterprise during the Cold War and to the larger question of university-industry interactions in the growth of knowledge. (shrink)

In the late 1940s and early 1950s, the leaders of the Genetics Society of America struggled to find an appropriate group response to Trofim Lysenko’s scientific claims and the Soviet treatment of geneticists. Although some of the leaders of the GSA favored a swift, critical response, procedural and ideological obstacles prevented them from following this path. Concerned about establishing scientific orthodoxy on one hand and politicizing the content of their science on the other, these American geneticists drew on democratic language (...) and concepts as they engaged in this political issue. The relatively weak statements that did emerge from the GSA attracted little attention in the scientific or popular press. The intensely politicized atmosphere of American science complicated the GSA’s task, as domestic concerns about protecting democracy were beginning to constrain academic freedom. In the context of American Cold War culture, Lysenko became just one example of the dangers the Cold War world presented to scientific freedom. (shrink)

With the rise of the system approach in World War II, US-engineers developed new design techniques to manage complex socio-technical systems, especially military ones. One of these new methods was the use of block diagrams which should guarantee a rational design process without eliminating the traditional visual habitus of the engineering community. This text argues that the block diagram, as a new visual design method, was embedded in the process of establishing a new engineering science, called system engineering. Furthermore, the (...) block diagram symbolized the changed role of technical experts in the Cold War era, who were regarded as competent problem solvers and as a community that could protect the national security by developing complex military technology. Two images, that were parts of advertisments in theScientific American, shall be used to demonstrate the block diagram’s function in the public sphere as a symbol that represents a new technocratic interpretation of modernity. (shrink)

Historians, philosophers, and physicists portray the 1920s and 1930s as a period of major theoretical breakthrough in physics, quantum mechanics, which led to the expansion of physics into the core of the atom and the growth and strengthening of the discipline. These important developments in scientific inquiry into the micro-world and light have turned historical attention away from other significant historical processes and from other equally important causes for the expansion of physics. World War II, on the other hand, is (...) often seen as the watershed moment when physics achieved new levels of social and technical engagement at a truly industrial scale. Historians have shown that military interests and government funding have shaped physics to unprecedented degree, and according to some, to the extent of discontinuity with earlier practices of research (Forman 1987; Kevles 1990; Kaiser 2002). In this vein, Stuart Leslie wrote, “Nothing in the prewar experience fully prepared academic scientists and their institutions for the scale and scope of a wartime mobilization that would transform the university, industry, and the federal government and their mutual interrelationships” (Leslie 1993, 6). While one can never befullyready for novelties, the contributors to this issue show that developments in interwar physics did prepare participants for their cold war interactions with industry and government. (shrink)

Humans have, by biological necessity, always lived in watersheds. This article provides an overview of humans’ relationship to these watersheds as an introduction to a special issue of Thesis Eleven on watersheds. It describes the basic functioning of watersheds, how humans have always depended on them, and how they have slowly begun to manipulate them. Humans across the planet began by making strategic adjustments to water’s downward flow to aid the procurement of water and fish. As small states, empires, and (...) finally the Industrial Revolution unfolded, these interventions became more numerous with greater environmental impacts. The rate of riverine exploitation increased dramatically post-Second World War in line with the Great Acceleration. This, in turn, created our current worldwide ecological crisis. This crisis particularly affects the planet’s watersheds, and in turn, humans. The article ends with the assertion that studies of such a complex event are by necessity multi-disciplinary and inter-regional. It then outlines the contents of this special issue which examines watersheds in Asia, America and Australia. (shrink)

The Laboratory for Research on the Structure of Matter, University of Pennsylvania, was built in 1965 as part of the Advanced Research Projects Agency's Interdisciplinary Laboratories program intended to foster interdisciplinary research and training in materials science. The process that led to the construction of the four-story structure served as the focus of intense debates over the meaning and process of interdisciplinary research in universities. The location of the building, its size, internal design, and functionalities were all subject to heated (...) negotiations among patrons, scientists, and university administrators, to find the proper place of interdisciplinary materials science on the University of Pennsylvania's campus. Building on the recent work on laboratory architecture, this paper argues that the negotiations and controversies over the LRSM building were concrete representations of the broader struggle over the appropriate place of interdisciplinary research and training within a university. (shrink)

In the aftermath of World War II, the government of the United States provided considerable funding for military projects that promised to provide a technological edge during the nascent Cold War. The most famous example is likely the V-2 rocket-testing program that began in the late 1940s. The 67 rockets launched from White Sands developed a knowledge base that was critically important to the launch of the first U.S. satellite in 1958 and to the subsequent manned space program. Less well (...) known are the large-scale information technology projects, undertaken in the 1950s and early 1960s, that provided a significant catalyst for research into digital computing, information processing, and the. (shrink)

This article discusses a new program for collaborative study of information technology, commercialization intellectual property and transformations of education research practives in universities. Three themes define the program. First, the authors investigate the ways that information technologies shape content, organization, and delivery of faculty work. Second, they examine the interplay of issues of intellectually property, technology, commercialization, and academic research. Third, ethical issues information raise and the values they embody are explored. The research and training undertaken brings together problems usually (...) treated by sepatate disciplines and focuses on technologies used by researchers and advanced students in various disciplines who shape and even create communications technologies. The intent is to explore these questions through research and teaching and in the process develop a new generation of scholars who are cognizant of changing patterns in the social relations of science and technology. (shrink)

The past twenty years have been an incredibly productive period in science studies. Still, because recent work in science studies puts a spotlight on agency and enabling situa tions, many practitioners in the field ignore, underplay, or dismiss the possibility that historically established, structurally stable attributes of the world may systemically shape practice at the laboratory level. This article questions this general position. Draw ing on data from a participant observation study of a university biology laboratory, it describes five features (...) of the institutional landscape that shape this laboratory's practice. (shrink)

Works in science and technology studies have repeatedly pointed to the importance of the visual in scientific practice. STS has also explicated how embodied practice generates scientific knowledge. I aim to supplement this literature by pointing out how sound and hearing are integral aspects of experimentation. Sound helps define how and when lab work is done, and in what kinds of spaces. It structures experimental experience. It affords interactions between researchers and instruments that are richer than could be obtained with (...) vision alone. And it is a site for tacit knowledge, providing a resource for the replication of results, and the transmission of knowledge, and the construction of social boundaries within instrumental communities. (shrink)

Do immigrant faculty trained in American higher education institutions adopt the outlook and practices of native US scientists and engineers, or do they diverge from such practices? The modern science paradigm holds that location will not matter significantly and that immigrants in either place will converge to a common standard of scientific practice. Drawing upon 134 in-depth interviews, this paper compares the scientific practices of two groups of Indian immigrant faculty in science and engineering: those who studied and worked in (...) the United States and then returned to India and those who continued to work in the United States. This paper shows that the two groups differed in important ways: ease of securing grants, management of grants, research environment, professional autonomy, and research type. (shrink)

It was no accident that the first neuroscience community, the Neurosciences Research Program (NRP), took shape in the 1960s at MIT, the birthplace of cybernetics. Francis O. Schmitt, known as the founding father of the NRP, was a famous biologist and an avid reader of cybernetics. Focusing on the intellectual and institutional context that Schmitt was situated in, this article unveils the way that the brain was conceptualized as a distinct object, requiring the launch of a new research community in (...) the US. In doing so, this article moves beyond the dominant narratives on the triumph of molecularization of the brain at the beginning of neuroscience. Instead, it argues that what brought researchers together in the name of neuroscience was not just a molecule but an aspiration to develop biological theories of the brain/mind, which resonated with biologists in a postwar context and was materialized through support for basic research. The article highlights the tension over the computerization and molecularization of the brain, which shaped the interdisciplinary gathering of neuroscientists in the context of growing interest in basic research. Thereby, this article reveals the rise of theoretical concerns in brain science that reflect the distinct desires and concerns of biologists in the US at an intellectual and institutional level. By revisiting the launch of the NRP with a focus on Schmitt, the article sheds light on the historical contingencies in launching the new community as neuroscience in the US and their meaning for the locality and transiency of (inter)disciplinarity in brain science. (shrink)

The historiography on American science and technology in the 1970s is still small, yet there are already three distinct strands of work: studies of countercultural scientists, portrayed as enacting or advocating ‘groovy’ research; studies of the politically polarized debate pitting conservative and libertarian ‘cornucopianists’ against environmentalists and modelers forecasting resource scarcity; and studies of the early commercialization of technoscience (e.g., biotechnology) that took off in the 1980s. Left out, I argue, are a class of ‘square scientists’ with little sympathy for (...) the counterculture, and yet open to (even eager for) a new kind of science oriented to the same problems activists said they wanted science to solve: pollution, mass transit, housing, biomedicine, disability technologies, pedagogical machines, etc. Square scientists at places like NASA and Texas Instruments adapted military-industrial-academic templates to a wide variety of socially ‘relevant’ topics in the 1970s. Yet square scientists still looked to the military-industrial complex for allies, rather than to countercultural colleagues. This potential middle ground remained excluded – contributing, in large part, to the failure of schemes to reorient US R&D to civilian social problems, and to the invisibility of the squares in today's historical accounts. (shrink)

The massive expansion of US higher education after World War II is a sociological puzzle: a spectacular feat of state capacity-building in a highly federated polity. Prior scholarship names academic leaders as key drivers of this expansion, yet the conditions for the possibility and fate of their activity remain under-specified. We fill this gap by theorizing what Randall Collins first callededucational entrepreneurshipas a special kind of strategic action in the US polity. We argue that the cultural authority and organizational centrality (...) of universities in the US national context combine with historical contingency to episodically produce conditions under which academic credentials can be made viable solutions to social problems. We put our theorization to the test by revisiting and extending a paradigmatic case: the expansion of engineering education at Stanford University between 1945 and 1969. Invoking several contemporaneous and subsequent cases, we demonstrate the promise of theorizing educational expansion as an outcome of strategic action by specifically located actors over time. (shrink)