Today universities are increasingly seen as motors of innovation: they not only need to provide trained manpower and publications to society, but also new products, new processes and new services that create firms, jobs, and economic growth. This function of universities is controversial, and a huge and still expanding literature has tried to understand it. The approach of this paper is integrative; it uses the existing literature to answer a number of straightforward questions about the creation of innovations with university (...) knowledge production: how does this happen, to what extent, and if it is desirable. In this way this article grounds the issue. Creating innovation with university knowledge production is relevant, justified and important but this has not been, is not and will not become the core function of universities. The existing literature, in other words, overestimates the importance of university knowledge production - in general, and for innovation in particular. (shrink)

How should we understand scientific progress? Kuhn famously discussed science as its own internally driven venture, structured by paradigms. He also famously had a problem describing progress in science, as problem-solving ability failed to provide a clear rubric across paradigm change—paradigm changes tossed out problems as well as solving them. I argue here that much of Kuhn’s inability to articulate a clear view of scientific progress stems from his focus on pure science and a neglect of applied science. I trace (...) the history of the distinction between pure and applied science, showing how the distinction came about, the rhetorical uses to which the distinction has been put, and how pure science came to be both more valued by scientists and philosophers. I argue that the distinction between pure and applied science does not stand up to philosophical scrutiny, and that once we relinquish it, we can provide Kuhn with a clear sense of scientific progress. It is not one, though, that will ultimately prove acceptable. For that, societal evaluations of scientific work are needed. (shrink)

This article aims to clarify and improve thinking on normative government laboratories: partly publically funded laboratories that work to improve the functioning of society, particularly through boosting innovation. This article focuses on a case study of TNO, a large Dutch laboratory, and an exemplary case of this type of laboratory. This article argues that TNO is perceived as a plug to fill a gap between knowledge production and use, in a belief that there is a direct and causal link between (...) laboratory knowledge production and use. As a plug to fill a gap, however, TNO, and laboratories like it, can never perform satisfactorily, making an enduring cycle of negative performance evaluations and major reorganizations inevitable. This article suggests that a network model of innovation might provide a way out of the impasse. (shrink)

Regarding the dichotomy between applied science and pure science, there are two apparently paradoxical facts. First, they are distinguishable. Second, the outcomes of pure sciences (e.g. scientific theories and models) are applicable to producing the outcomes of applied sciences (e.g. technological artefacts) and vice versa. Addressing the functional roles of applied and pure science, i.e. to produce design representation and science representation, respectively, I propose a new characterisation of the dichotomy that explains these two facts.

There has been a resurgence between two closely related discussions concerning modern science funding policy. The first revolves around the coherence and usefulness of the distinction between basic and applied science and the second concerns whether science should be free to pursue research according to its own internal standards or pursue socially responsible research agendas that are held accountable to moral or political standards. In this paper, I argue that the distinction between basic and applied science, and the concomitant debate (...) about freedom and social responsibility, require revision. I contend that the distinction can only be maintained in cases of _urgent science_. I go on to elucidate the notion of urgent science using a case study from research of the climate refugee crisis. (shrink)

In the United States of America, the years from 1880 to 1915 were a period of rapid urbanization, combined in some areas with intense industrialization. This paper explores the creation in cities of the new industrial heartland of new institutions of higher learning. The case studies chosen illustrate varying responses to local needs for scientific and technical expertise, and illuminate how new concepts of higher education in the United States helped to shape the emergent connection between science and industry.

This paper analyses how the Cold War influenced the discourses on basic research and on Science and Technology Policies of some leaders of the Argentine research community. It explores two key intersections to study the Cold War: the first between politics and policies; the second between the global and the regional/national. The basic assumption is that, just as there was no one Cold War, specific regional and national traits lent specific meanings to basic research. In dialogue with the literature on (...) Latin American history of STPs, on Cold War and on the conceptual history of science, the paper identifies three discursive configurations around S&T: the first refers to the semi-peripheral scientific context; the second is associated with the ‘democracy-totalitarianism’ dichotomy, and the third is linked to the ‘development-dependence’ dichotomy. Finally, the paper also traces some connections between these discourses and the institutional models proposed by different key actors of the research community to implement STPs. (shrink)

“Pure science” and “applied science” have peculiar histories in the United States. Both terms were in use in the early part of the nineteenth century, but it was only in the last decades that they took on new meanings and became commonplace in the discourse of American scientists. The rise in their currency reflected an acute concern about the corruption of character and the real possibilities of commercializing scientific knowledge. “Pure” was the preference of scientists who wanted to emphasize their (...) nonpecuniary motives and their distance from the marketplace. “Applied” was the choice of scientists who accepted patents and profits as other possible returns on their research. In general, the frequent conjoining of “pure” and “applied” bespoke the inseparable relations of science and capitalism in the Gilded Age. (shrink)

The ArgumentTwo parallel traditions have coexisted throughout the history of modern finger print identification. One, which gave more emphasis to the rhetoric of “science,” has always been somewhat troubled by the lack of an easily articulated scientific foundation for “dactyloscopy.” The other, more concerned with practicalities, was satisfied that the method of fingerprint identification appeared to “work” and that it won widespread legal acceptance. The latter group established conser vative rules of practice to guard against errors and preserve the credibility (...) of latent fingerprint identification in the eyes of the law. The legacy of this history is coming home to roost today, as some latent fingerprint examiners (LFPEs) are beginning to argue that the traditional practice of latent fingerprint comparison lacks a scientific foundation appropriate to contemporary forensic science. This issue raises the question of what constitutes a “scientific” method for individual ized identification in a legal setting. (shrink)

In no other scientific field is the conflict between theoretical knowledge and practice so intense as in engineering sciences. The characteristic feature of engineering sciences is that it can neither be classified as „applied science nor as a part of technology itself. The special position of technological knowledge and its evolution can be illustrated by the example of civil and mechanical engineering. Here special emphasis is given to the close relationship between science, technology and industry, as well as the development (...) of independent research concepts in the engineering sciences. (shrink)

Excellence and frontier research have made inroads into European research policymaking and structure political agendas, funding programs and evaluation practices. The two concepts travelled a long way from the United States and have derived from contexts outside of science. Following their conceptual journey, we ask how excellence and frontier research have percolated into European science and higher education policies and how they have turned into lubricants of competition that buttress an ongoing reform process in Europe.

Drawing from contemporary social science studies on the shifting regime of research governance, this paper extends the literature by utilizing a metaphoric image—research is a game—observed in a field engagement with 82 American, British, and Danish crop and plant scientists. It theorizes respondents’ thinking and practices by placing the rules of the research game in dynamic and interactive tension between the scientific, social, and political-economic contingencies that generate opportunities or setbacks. Scientists who play the game exploit opportunities and surmount setbacks (...) by adopting strategies and reinventing tactics in order to maximize their winnings and to minimize their losses. Winners become superstars who decree what is open, closed, or doable science for the majority of the scientific community. (shrink)

How engineers know, and act on that knowledge, has a profound impact on society. Consequently, the analysis of engineering knowledge is one of the central challenges for the philosophy of engineering. In this article, we present a thematic multidisciplinary conceptual survey of engineering epistemology and identify key areas of research that are still to be comprehensively investigated. Themes are organized based on a survey of engineering epistemology including research from history, sociology, philosophy, design theory, and engineering itself. Five major interrelated (...) themes are identified: the relationship between scientific and engineering knowledge, engineering knowledge as a distinct field of study, the social epistemology of engineering, the relationship between engineering knowledge and its products, and the cognitive aspects of engineering knowledge. We discuss areas of potential future research that are underdeveloped or “undone.”. (shrink)

This paper aims to build an integrated account of the history of twentieth-century laboratories. The historical literature is fragmented, which has led to the impression that one type of laboratory has dominated, or has become more important than other types. The university laboratory has also unjustly shaped the conceptualization of other types of laboratory. This paper approaches laboratories as sites of organized knowledge production, and as entities engaged in different activities for different audiences at any point in time. Eight types (...) of laboratory are identified, and their developments in the twentieth century are sketched. The two world wars of that century and models of innovation, building links between knowledge production in the laboratory and the impact of this knowledge outside the laboratory, are important catalysts of this history. The paper underlines that different types of laboratory have existed side by side, and continue to exist side by side. (shrink)

Why do similar scientific enterprises garner unequal public approbation? High energy physics attracted considerable attention in the late-twentieth-century United States, whereas condensed matter physics – which occupied the greater proportion of US physicists – remained little known to the public, despite its relevance to ubiquitous consumer technologies. This paper supplements existing accounts of this much remarked-upon prestige asymmetry by showing that popular emphasis on the mundane technological offshoots of condensed matter physics and its focus on human-scale phenomena have rendered it (...) more recondite than its better-known sibling field. News reports about high energy physics emphasize intellectual achievement; reporting on condensed matter physics focuses on technology. And whereas frontier-oriented rhetoric of high energy physics communicates ideals of human potential, discoveries that smack of the mundane highlight human limitations and fail to resonate with the widespread aspirational vision of science – a consequence I call “the purloined letter effect.”. (shrink)

The use of the phrase “basic research” as a term used in science policy discussion dates only to about 1920. At the time the phrase referred to what we today commonly refer to as applied research in support of specific missions or goals, especially agriculture. Upon the publication of Vannevar Bush’s well-known report, Science – The Endless Frontier, the phrase “basic research” became a key political symbol, representing various identifications, expectations and demands related to science policy among scientists and politicians. (...) This paper tracks and evaluates the evolution of “basic research” as a political symbol from early in the 20th century to the present. With considerable attention having been paid to the on-going evolution of post-Cold War science policy, much less attention has focused on the factors which have shaped the dominant narrative of contemporary science policies. (shrink)

“Basic research” is often used in science policy. It is commonly thought to refer to research that is directed solely toward acquiring new knowledge rather than any more practical objective. Recently, there has been considerable concern about the future of basic research because of purported changes in the nature of knowledge production and increasing pressures on scientists to demonstrate the social and economic benefits of their work. But is there really something special about basic research? The author argues here that (...) “basic research” is a flexible and ambiguous concept that is drawn on by scientists to acquire prestige and resources. She shows that it is used for boundary work and gives examples of the work it does in different situations by drawing on interviews with scientists and policy makers on the category of basic research and the changes they have seen in it over time. (shrink)