Elsevier

Research Policy

Volume 27, Issue 8, December 1998, Pages 823-833
Research Policy

The norms of entrepreneurial science: cognitive effects of the new university–industry linkages

https://doi.org/10.1016/S0048-7333(98)00093-6Get rights and content

Abstract

Universities are currently undergoing a `second revolution' these days, incorporating economic and social development as part of their mission. The first academic revolution made research an academic function in addition to teaching. Now the emerging entrepreneurial university integrates economic development as an additional function. The `capitalisation of knowledge' takes many different forms that are discussed in this article.

Introduction

Entrepreneurial activities of scientists are by no means totally new phenomena. Such things occurred in 17th century German pharmaceutical science. Another famous example is Justus Liebig's fertiliser venture in the mid 19th century (Etzkowitz, 1983). However, these and other chemical spin-offs did not affect academic research sites. The formation of industrial consulting and scientific instrumentation firms by scientists also took place in the late nineteenth century at Harvard and MIT but were anomalies at the time (Shimshoni, 1970). During the past two decades, however, an increasing number of academic scientists have taken some or all of the steps necessary to start a firm by writing business plans, raising funds, leasing space, recruiting staff, etc. (Blumenthal et. al., 1986; Blumenthal, 1986a; Krimsky et al., 1991). Empirical studies which investigate these matters likely underestimate the extent of faculty involvement, especially in molecular biology. For example, although a survey identified half the faculty of the MIT biology department as having industrial ties in the late 1980s, an informant could identify only one of his colleagues as uninvolved. Although still only a minute proportion of the total US academic enterprise is directly involved, faculty inventing and commercialisation has had significant cognitive and organisational consequences.

A complex web of relationships has grown up among academics, university originated start-ups and larger firms. Often the same academic scientists are involved in both types of companies, managing a diversified portfolio of industrial interactions (Powell et al., 1996). Indeed, some early critics of such activities have become entrepreneurial scientists themselves. Nobelist Joshua Lederberg found the scientific issues and financial rewards too intriguing not to get involved. Another Nobelist, Arthur Kornberg, expressed bemused bewilderment in his autobiography `The Golden Helix' that a highly focused academic scientist such as himself had become an advocate of industry/academic intersection, finding it fruitful for both science and business.1

Remarkably, even those who leave academia retain ties. Having been turned down for tenure by Columbia University's Computer Science Department in the mid 1980s, David Shaw applied his computing skills to financial analysis and drew upon former colleagues and students for his firm's original talent pool. The D.E. Shaw & Co., a global investment bank, currently advertises to recruit, “unusually talented and accomplished individuals with degrees in any area of the sciences or humanities… to a career they may never have considered before…” (Advertisement in Political Science Quarterly, 1997). In the face of a tight academic job market, opportunities have opened up in firms based upon academic knowledge.

Until quite recently the commercialisation of academic research typically took place at a distance, by former students with or without the knowledge of their mentor. A striking comparison illustrating the change in this respect are sociologist Robert K. Merton and economist Robert C. Merton, father and son. In the early 1990s the New York chapter of the Public Opinion Research Association held a special meeting honouring Prof. Robert K. Merton, who was astonished to learn that a multimillion advertising and political industry had grown out of `focus groups,' an interviewing technique that he had developed in the course of a 1940s study of interracial housing. In contrast, press reports of Prof. Robert C. Merton's 1997 Nobel Prize in economics, for a method to judge risks in options pricing, noted that he was a principal in a Greenwich Connecticut firm using these techniques in its business. The quite different stances of the Mertons to the pecuniary outcomes of their research exemplifies the generational change in attitude among academic scientists toward involvement in commercialisation.

This article analyses the cognitive effects of the new university/industry linkages on the way scientists view research, interpret the scientific role, and interact with colleagues, companies and universities. The growth of a commercial ethos within academia, and the emergence of conflict lines over this development, culminates in normative change in science. Traditionally, the most deeply held value of scientists is the extension of knowledge. To contribute to this is the highest striving of a scientist. The incorporation of `extension of knowledge' into a compatible relationship with `capitalisation of knowledge' is a profound normative change in science. It will be shown that the transition to entrepreneurial science is occurring as an interplay of cognitive opportunities, institutional rearrangements, and normative change, and that this in turn has cognitive effects on future research agendas. Certain cognitive changes in a growing number of disciplines and scientific fields open up possibilities to scientists to meet two goals simultaneously: the pursuit of truth and profit-making. Accordingly, the norms of science which traditionally condemn profit-making motives are beginning to change to allow for such a kind of entrepreneurship; and varying institutional structures are experimented with which fit to these new cognitive and normative patterns (Merton, 1973[1942]; Etzkowitz, 1994).

Section snippets

Method and data

The article draws for data on more than 150 in-depth interviews conducted in several waves from the early 1980s. An initial study focused upon four disciplines (biology, computer science, electrical engineering, and physics) at two research universities.

This was followed up, in the mid 1980s, by a study of five disciplines (adding chemistry) at eight universities, including those with long standing and newly emerging industrial ties, with some geographical spread around the US. The study was

The transition from old to new forms of linkage

From an industrial perspective, relations with universities have traditionally been viewed primarily as a source of human capital, future employees and, secondarily, as a source of knowledge useful to the firm. In this view what industry wants and needs from academic researchers is basic research knowledge; therefore, universities should focus on their traditional missions of research and education, their unique function. The hydraulic assumptions of knowledge flows include reservoirs, dams and

The capitalisation of knowledge

Max Weber, in his classic essay `Science as a Vocation' (1946) argued that scholars would lose control of their means of production as the scale of scientific instrumentation increased. Indeed, the separation of investigators from their research tools has occurred in many laboratories as academic scientists can more often be found in their offices than at the laboratory bench. Although these researchers have given up direct control of their instrumentation to students and technicians, they have

Cognitive effects of entrepreneurialism on academic culture

A scientist, by choice of vocation, would heretofore have been assumed to have put aside all thoughts of business-like activity to live a monk-like existence as a searcher for truths about nature. The fictionalised `Arrowsmith' character in the Sinclair Lewis novel of the same name exemplified the scientific researcher as an un-worldly, but determined, individual. Attired in a white lab coat to protect their street clothing from chemical spills, the uniform of the scientist also signified a

The entrepreneurial scientist

The closing gap between research and utilisation of the fruits of research encourages faculty to look at their research results from a dual perspective: (1) a traditional research perspective in which publishable contributions to the literature are entered into the `cycle of credibility' (Latour and Woolgar, 1979) and (2) an entrepreneurial perspective in which results are scanned for their commercial as well as their intellectual potential. A public research university that we studied

A typology of interaction with industry

The university, and an increasing number of its faculty, have learned how to pursue basic research in tandem with the capitalisation of knowledge. Support for faculty involvement in technology transfer varied widely from active encouragement to active discouragement. In an expression of the traditional view a faculty member reported that his chair “…regarded the [company name] money as bad money, dirty money. He was an NIH (National Institute of Health) man all the way.” Nevertheless, there has

Conclusion: the industrial penumbra of the university

Controversies such as the one about the Discovery Exchange show that it is still a long way to a full-blown establishment of entrepreneurial science. Universities are undergoing a `second revolution' these days, incorporating economic and social development as part of their mission (Etzkowitz, in press).

The first academic revolution, taking off in the late nineteenth century in the U.S., made research an academic function in addition to the traditional task of teaching (Jencks and Riesman, 1968

Unlinked References

Butcher, 1990, Etzkowitz, 1995, Marberger, 1995, Schuler, 1995, Waggoner, 1989, Weber, 1946

References (26)

  • D. Blumenthal

    Industrial support of university research in biotechnology

    Science

    (1986)
  • D. Blumenthal

    University–industry research relations in biotechnology

    Science

    (1986)
  • Butcher, W., 1990. Venture Capitalist Boulder Colorado, Dept. of Molecular, Cellular and Developmental Biology,...
  • Etzkowitz, H., 1983. Entrepreneurial Scientists and Entrepreneurial Universities in American Academic Science,...
  • Etzkowitz, H., 1994. Knowledge as property: The Massachusetts Institute of Technology and the Debate Over Academic...
  • Etzkowitz, H., 1995. Beyond technology transfer: Creating a regional innovation environment at the State University of...
  • Etzkowitz, H., in press. The Triple Helix: MIT and the Rise of Entrepreneurial Science. Gordon and Breach,...
  • Etzkowitz, H., Webster, A., Healey, P. (Eds.), 1998. Capitalizing Knowledge: University Intersections of Industry and...
  • Gibbons, M., et al., 1994. The New Production of Knowledge. Sage, Bevery...
  • Gold, L., 1990. Department of Molecular, Cellular and Developmental Biology, HCDB, University of Colorado, Boulder....
  • Gold, L., 1993. Chair HCDB Dept. Interview with Henry Etzkowitz, April...
  • Gold, L., Butcher, W., 1989. The Discovery Exchange. Boulder [unpublished...
  • Harpel, R., 1993. University of Colorado Administrator, interview with Henry Etzkowitz. 21...
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