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Twenty-five years of science-industry collaboration: the emergence and evolution of policy-driven research networks across Europe

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Abstract

This paper aims at examining the collaborative networks established during the seven Framework Programmes on Research and Technological Development (1984–2009). These networks are the result of self-organized partnering by different participating entities (industry, universities, research centers and technology users) in subsidized research joint ventures selected on a competitive basis under the thematic priorities and funding rules imposed by the European Union. Social network analysis tools are employed in order to describe and assess the architecture, and the dynamics of the networks that were developed in the context of each Framework Programme. Analysis of organizations’ positioning in the network space will show whether there are some pivotal actors with significant policy implications for knowledge and technology transfer. Last but not least, understanding how these network are formed and how they have evolved over time may provide useful policy implications for the design and structure of the current and future EU Programmes aimed at shaping and creating a unified European Research Area.

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Notes

  1. FP7 includes partial data up to the end of 2009. The database is being updated with the missing data and information on FP7as soon as they become available.

  2. Organizations receive a ranking in terms of their performance in each of the four centrality measures used. The synthetic index or centrality score is calculated using the sum of the four rankings. A smaller synthetic index indicates a more central organization in the network. The same methodology in terms of constructing the synthetic centrality index (but on the basis of two different centrality measures) is followed by Breschi and Malerba (2009)

  3. Independent-sample t tests that have been conducted to compare participants, participating countries and funding per project for subsequent FPs (e.g. FP1–FP2, FP2–FP3 etc.) confirmed statistically significant differences in these variables’ scores through time.

  4. Participation intensity represents the number of project participations per organization type.

  5. The percentage of organizations returning to FP7 from FP6 seems to have been doubled compared to that of returning entities to FP6 from FP5. However, the available interim FP7 data include just the first calls and should be considered with caution.

  6. Switzerland, Norway, Israel, Iceland and Liechtenstein.

  7. The total cross-country connections for each group, is the sum of intra-group (i.e. those developed between the different countries of the group) and intergroup links i.e. connections of the specific group to other country groups.

  8. Degree distributions following a power-law P(k) ~ k − γ with scaling exponent γ taking a value between 2.1 and 4 suggest ‘scale-free’ distributions of the relevant graphs (Barabàsi and Albert 1999).

  9. The top 1 % central actors’ subgroup was chosen arbitrarily. However their removal from the RJVs networks resulted in a significant drop of the giant component initial size. In addition these organizations accounted for a significant fraction of the total networks’ ties. We used different values than the one adopted (e.g. top 5 %) to check for robustness and the main results remained unaffected.

  10. The number of top 1 % central actors ranges from minimum 18 organizations in FP1 to maximum 199 in FP 5.

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Acknowledgments

We thank all participants and paper discussants for their insightful comments and suggestions. We also wish to thank two anonymous referees for their valuable comments that contributed significantly to the improvement of our work.

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Correspondence to Aimilia Protogerou.

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Protogerou, A., Caloghirou, Y. & Siokas, E. Twenty-five years of science-industry collaboration: the emergence and evolution of policy-driven research networks across Europe. J Technol Transf 38, 873–895 (2013). https://doi.org/10.1007/s10961-012-9278-3

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