Collaborative diversity in a nanotechnology innovation system: Evidence from the EU Framework Programme
Highlights
► European research networks are characterised with international and institutional diversity. ► The configuration of research networks in nanotechnology reflects EU policy goals. ► New member states rarely act as project coordinators and this influences knowledge distribution. ► Industrial partners often participate in small numbers within the project. ► Large companies focus on projects with a more strongly applied orientation.
Introduction
The emergence of nanotechnology as a general-purpose technology (Bresnahan and Trajtenberg, 1995), characterised by its pervasiveness and inherent potential for opening new opportunities, provides fresh challenges for policy-makers, entrepreneurs, managers, engineers and scientists. Policy-makers from different national and transnational innovation systems strive to design policies to realise often highly ambitious promises resulting from the emergence of nanotechnology (Bhat, 2005, Romig et al., 2007). Previous work suggests that entrepreneurs face considerable challenges when venturing to commercialise general-purpose technologies (Thoma, 2008), which is particularly evident in commercialising emergent nano-technologies from an upstream position within a variety of industrial value chains (Maine and Garnsey, 2006). Managers of established companies wrestle with the discontinuous nature of an emergent technological trajectory (Dosi, 1982) that changes dynamics of intra-firm innovation processes (Linton and Walsh, 2008). Engineers and scientists are forced to navigate an interdisciplinary landscape of nanoscience and nanotechnology (Islam and Miyazaki, 2009, Islam and Miyazaki, 2010).
In this paper, we argue that the emergent and general-purpose nature of nanotechnology demands collaborative research efforts, and that nanotechnology innovation networks are therefore highly likely to be characterised by a degree of international and institutional diversity. We introduce European Union Framework Programmes (FP) as an institutional arrangement that sets norms, rules and values for creating internationally and institutionally diverse research networks. Within this context, we explore the international and institutional configurations of nanotechnology research projects and the characteristic roles of partners within collaborative projects, and analyse the mitigating role of different policy instruments for structuring the international and institutional diversity of collaborative networks in nanotechnology.
Existing definitions of nanotechnology provide an insight into the multifaceted nature of this emergent technology and highlight the numerous challenges faced by different members of a nanotechnology innovation system. Authors are largely consistent in defining nanotechnology as the investigation of bottom-up and top-down structural arrangements at a physical size below 100 nm (nanometres), where the properties of materials, systems and devices differ significantly from those at a larger scale (Kostoff et al., 2007). There is also general agreement that nanotechnology is a platform technology with a potential to transform many industrial sectors, in particular by fostering the convergence between previously separate technology-driven industries (Alencar et al., 2007, Bozeman et al., 2007). The interdisciplinary nature of nanotechnology that spans scientific developments across disciplines is also consistently highlighted (Salerno et al., 2008). Romig et al. (2007) additionally emphasise that nanotechnology may have different impacts on different industrial sectors and members of value chains. While nanotechnology is potentially discontinuous and radical, it often provides incremental improvements within existent technological trajectories.
The combination of newness and often asymmetric dispersion of knowledge about nanotechnology (Pandza and Holt, 2007) suggests that relevant knowledge will most likely reside in networks of organisations, rather than in individual members of a technology innovation system (Powell et al., 1996). Such networks can include individuals, firms, universities, research institutes, venture capitalists and public policy agencies (or parts or groups of each). As a technological innovation system is likely to extend beyond a particular national innovation system and institutional environment, international and institutional diversity become its intrinsic properties. Integrating knowledge across national and institutional borders and creating diverse research networks along these two dimensions represent the basic tenet of European Union (EU) research policy embodied in Framework Programmes (FPs). The history of FPs is characterised by a series of institutional changes (Hargrave and Van de Ven, 2006), by which the European Commission (EC) creates institutional arrangements that determine the nature and structure of research collaboration networks funded from EU sources.
The international diversity of collaborative research projects is influenced by two strategic objectives of EU research policy: subsidiarity and cohesion. Under the policy objective of subsidiarity, introduced in FP2 (1987–1991), the EC funds research projects that are most effectively pursued at the EU level by integrating resources from different member states (Kuhlmann, 2001). In practice, this principle is addressed by the condition that research networks funded within a FP must consist of partners from at least three different member states. As such, the EC has effectively institutionalised a degree of international diversity in collaborative research projects. International diversity is further emphasised by the strategic objective of cohesion, which has been central to the introduction of FP6 (2002–2006). By emphasising cohesion, the EC recognises that the technology gap among the EU member states is bigger than the gap between the EU, the USA and Japan (Pavitt, 1998) and is still increasing (Clarysse and Muldur, 2001). Although the EC does not make the participation of so-called ‘less favourable countries’ a norm for collaborative projects, it certainly favours a balanced international structure (Marin and Siotis, 2008), and applicants for research funding are generally aware that a well-balanced research network makes their application more likely to succeed.
Meanwhile, institutional diversity in EU collaborative research is also influenced by various policy objectives, which include increasing industrial competitiveness, fostering innovation for achieving economic growth and tackling large-scale societal challenges by organising research into strategic thematic priorities. The notion of pre-competitive research, explicitly emphasised in FP4 (1994–1998), highlights the importance of inter-firm collaboration and knowledge sharing (Ahuja, 2000, Luukkonen, 2000), as well as encouraging close and strategic collaboration between industry and university research centres (Santoro and Chakrabarti, 2001). Overall, it is evident that EU policy objectives are aimed at increasing the international and institutional diversity of nanotechnology research networks, which inevitably creates challenges for managing such networks. As Kastrinos (1994) argues, configurations of European research networks determine the ability to shape and control the direction the research projects, calling for more in-depth studies on the configuration of research networks fostered by the FPs.
The remainder of this paper is organised as follows. Section 2 discusses the evolution of EU research policy on nanotechnology. In this section we attempt to depict the policy instruments with the highest impact on international and institutional diversity and position them within the wider context of EU policy development on nanotechnology. In Section 3, we review the issues that may affect the management of international and inter-institutional research collaboration. In 4 Data sources and method, 5 Results, we provide information on our data sources, propose a methodology for exploring collaborative diversity in research projects and present our results. A discussion with policy-relevant conclusions is presented at the end of the paper, in Section 6.
Section snippets
Nanotechnology and EU innovation policy
The establishment of nanotechnology as a distinct research priority within Framework Programme 6 (FP6) reflects the spirit of the time at the beginning of the 21st century. The ambitious, coordinated and centralised National Nanotechnology Initiative (NNI) in the USA in 2001 clearly exposed the fragmentation of nanotechnology research in the EU, and strengthened the recognition that the EU cannot remain competitive at a global level without better focusing and coordinating nanotechnology
Issues affecting international and inter-institutional collaboration
The concept of international collaboration has been explored in various contexts in the literature. These contexts include multinational enterprises (whose subsidiaries are internationally dispersed), strategic alliances between firms, and intra-firm communities of practice (groups defined by a shared domain of interest, profession or objectives) (Lave and Wenger, 1991). The most obvious issues arise from geographical distance between partners, which increases the costs of information transfer
Data
The dataset used in this study is assembled from data initially compiled by the EC's Unit G4 Nanoscience and Nanotechnology. The comprehensive database was designed in order to organise the raw data and prepare it for statistical analysis. The dataset provides information on 108 collaborative projects funded in FP6 under the Thematic Area 3. It is divided into two sub-databases, the first one focused on projects (n=108) and the second one on partners (n=661). For each collaborative project, we
Results
Table 2 depicts the variety of international and institutional partners that are engaged in collaborative research projects in nanotechnology within FP6's Theme 3. The structure of international partners is not surprising, with the three European powerhouses Germany, UK and France contributing slightly over 40% of all partners in nanotechnology research networks. This share is largely in line with the population demographic of the EU. Among the top three countries, Germany holds the lead with
Discussion and conclusion
This paper was aimed at unveiling the international and institutional configurations of nanotechnology research networks in Europe. The evidence from our data clearly suggests that most of the research networks funded by the EC are notably diverse in terms of the international and institutional affiliations of their constituting members. This diversity reflects the effectiveness of the fundamental policy goals of subsidiarity, cohesion and industrial pre-competitiveness, as well as the
Acknowledgements
This research was supported by a Marie Curie European Re-integration Grant (PERG02-GA-2007-224801) to the first author. The authors would also like to thank Weiqi Luo for his assistance during the research.
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