Abstract
This paper examines the impact of industrial involvement in doctoral projects on the particular nature of the training and careers of doctorates. We draw on an original survey of job histories of doctorates in physical sciences and engineering from a research-based university in the UK. Using multivariate probit analysis and linearised (robust) and resampling (jackknife) variance estimation techniques, we found that projects with industrial involvement are associated with higher degree of socialisation with industry. There is some evidence showing that these projects are also more likely to focus on solving firm-specific technical problems or developing firm-specific specifications/prototypes, rather than exploring high-risk concepts or generating knowledge in the subject areas. Crucially, these projects result in fewer journal publications. Not surprisingly, in line with existing literature, we found that engaging in projects with industrial involvement (in contrast to projects without industrial involvement) confers advantages on careers in the private sector. Nevertheless, there is also a hint that engaging in projects with industrial involvement may have a negative effect on careers in academia or public research organisations. While acknowledging that the modelling results are based on a small sample from a research-based university and that therefore the results need to be treated with caution, we address implications for doctorates, universities and policymakers.
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Notes
The allocation of UK higher education core funding is based on the number of students and the performance of the competition based Research Excellence Framework (REF), which was first introduced in 1985. Details of how the impact beyond academia will be assessed in the 2014 REF are outlined in the REF website: http://www.ref.ac.uk/media/ref/content/researchusers/REF%20guide.pdf.
The Dearing Committee was appointed by the government to make recommendations on how the purposes, shape, structure, size and funding of higher education should develop to meet the needs of the United Kingdom for the next 20 years (HMSO 1997).
Data from The University of Manchester Facts and Figures 2009; on-line available at: http://www.manchester.ac.uk/medialibrary/aboutus/facts_figures.pdf.
PhDs graduated between 1998 and 2001 from the Faculty of Engineering and Physical Sciences were surveyed. Subject areas include chemical engineering and analytical science, chemistry, computer science, earth, atmospheric and environmental sciences, electrical and electronic engineering, materials, mathematics, mechanical, aerospace and civil engineering and physics and astronomy.
Details in Lee et al. (2010).
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Acknowledgments
Financial support from the UK Economic and Social Research Council is acknowledged by Hsing-fen Lee (PTA-031-2006-00346) and Marcela Miozzo (RES-189-25-0227).
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Appendices
Appendix 1: Definition of a job
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Include any job (including self-employment), full-time or part-time, which you did for at least 6 months (or which you expect to last for at least 6 months).
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Don’t count jobs or work experience that you did while registered as a full-time PhD student.
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If you changed the kind of work you did, rank or job title while working for the same employer, count it as a change of job.
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If you have worked in a Government Department, school or hospital, count any move from one Government Department, school or hospital to another, as a change of job.
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Contract researchers in academic institutions or other employment on short-term contracts: if your contract was renewed count this as an extension of the same job.
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If you had a period of “temping”, free-lancing, consultancy or self-employed contract work, count the whole period as one job.
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If you went on maternity leave or sick leave and went back to the same employer for the same kind of work, rank and job title, count the whole period as one job.
Appendix 2
See Table 5.
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Lee, Hf., Miozzo, M. How does working on university–industry collaborative projects affect science and engineering doctorates’ careers? Evidence from a UK research-based university. J Technol Transf 40, 293–317 (2015). https://doi.org/10.1007/s10961-014-9340-4
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DOI: https://doi.org/10.1007/s10961-014-9340-4
Keywords
- Science and engineering
- Doctoral students
- Careers
- Knowledge transfer
- University–industry relations
- Scientific productivity