The role of space in innovation has been discussed in the literature for decades (Porter M. , 1998; Asheim & Coenen, 2005; Audrecht & Feldman, 1996; Freeman, 1995). With the increased pace of globalisation, however, the role of geography in innovation has been questioned. It is accepted that globalisation has played a significant role in levelling the global playing field (to a large extent) through free trade and better access to products, services and potential new partners (Friedman, 2005). Seen from a technological and sectoral/industrial systems lens, in the early 1990s, Carlsson and Stankiewicz (1991) wrote that innovation is essentially place-less. Friedman continued this argument and stated that globalisation meant the “end of geography as we know it”, ultimately leading to “the death of distance”. This conclusion has been heavily debated since (Rodríguez-Pose & Crescenzi, 2008).
In their paper On the nature, function and composition of technological systems, Carlsson & Stankiewicz (1991) write that a country’s development potential, as part of a wider technological system, is reflected by its economic growth – closely tying innovation theory to economic growth theories. Technological systems of innovation are defined as “a network of agents interacting in a specific economic/industrial area under a particular institutional infrastructure or set of infrastructures and involved in the generation, diffusion, and utilization of technology” (Carlsson & Stankiewicz, 1991, p. 111). These networks are defined by knowledge and competence rather than by goods and services and by technology and its techno-industrial area rather than by national borders. Technological systems bring with them institutional infrastructures, a regime/organisations that “support, stimulate and regulate the process of innovation and diffusion of technology” (1991, p. 109). By institutional structures, Carlsson & Stankiewicz mean “the normative structures which promote stable patterns of social interactions/transactions necessary for the performance of vital societal functions. Institutions reduce social uncertainty and prevent or mitigate conflicts between different value systems (…) Crucial for the survival and effectiveness of institutions is their legitimacy” (1991, p. 109). Although technological systems are conceptualised independently of geographical boundaries, they are nevertheless characterised in relation to economic systems, formal and informal institutions, networks and proximity that are, in turn, largely place-bound.
Technological systems of innovation are closely linked to sectoral systems of innovation. A sectoral system of innovation is also a network of agents, but agents operating within specific technological areas and in a specific institutional context (Carlsson & Stankiewicz, 1991). Breschi and Malerba (1997) write that in sectoral systems of innovation, clusters of companies and industries are involved in the generation and diffusion of technologies, and that the knowledge flows between these actors and learning from the new technologies employed are at play. Relationships between and across industries are important factors for the analysis of sectoral innovation systems (Carayannis, Samara, & Bakouros, 2015).
Boschma (2005) corroborates both Carlsson and Stankiewicz’, (1991) and Breschi and Malerba’s (1997) arguments to some extent when examining the role of cognitive proximity vis-à-vis geographical proximity. He argues that as tacit knowledge knows no distance, it may be transmitted by other means than geographical location (Boschma, 2005). In this approach, geographical proximity has a stronger, complementary role when it comes to strengthening and building institutional or social proximity. The assumption is that if there is cognitive proximity, i.e., shared ideas and understandings, geography plays a minor role (ibid). By ‘proximity’, Boschma refers to the ability to understand, adopt and adapt, to identify novelty, interpret and exploit new knowledge. Boschma’s five proximity dimensions are geographical, cognitive, organisational, social, and institutional proximity. Boschma argues that both too much and too little ‘proximity’ are harmful to learning and innovation and that effective interactive learning and innovations require an absorptive capacity in businesses and institutions demonstrating openness to new ideas (Boschma, 2005). These proximities are mutually reinforcing when it comes to ‘learning’ as part of economic development (Hansen, 2015).
Audrecht and Feldman (1996) maintain that location matters, especially when it comes to transmitting tacit knowledge versus transmitting information, which in turn may explain why some industries have clustered geographically. Rodríguez-Pose and Crescenzi (2008) further argue that although rapid technological development supports the idea of the death of distance, globalisation implies changes, opportunities and threats and “not all territories across the world have the same capacity and tools to make the world an even playing field” (Rodríguez-Pose and Crescenzi, 2008, p. 372). Moreover, it is primarily in metropolitan areas that these different proximities (social, institutional, cognitive, organisational and geographical) coalesce (Rodríguez-Pose and Crescenzi, 2008). In relation to globalisation, the death of distance and the capacity of a ‘flatter world’ only really work conceptually in a generalised macro-perspective and not in the more granulated details of regional and local development: “Paradoxically,” Porter writes “the enduring competitive advantages in a global economy lie increasingly in local things – knowledge, relationships, and motivation that distant rivals cannot match” (Porter M. , 1998). Moreover, the role of proximity in terms of mutual understanding and absorptive capacity among and between actors to find novel niches matters (Boschma, 2005). Geographical dimensions still play a key role in economic analysis as key social institutions develop within the national, regional, and local space (Freeman, 1995). However, as we have seen, the transmittance of ideas and technology is not dependent upon these defined boundaries. This is particularly interesting in terms of the turn towards global missions to solve so-called: ‘grand social challenges’. We will discuss this later in this report.
National innovation systems are a response to questions about the role of ‘home ground’ in relation to globalisation (Cooke, Gomez Uranga, & Extebarria, 1997). Freeman (1995) investigated this in relation to transnational and multinational companies. He writes that even if you cannot ignore the role of ‘global’ demands, there are still a vast number of products and services where local, regional and national institutions, climate and preferences play a key role. Moreover, these institutions, often considered a hampering factor in relation to innovation, are also the source of change. As Freeman points out, the role of the nation, or the state, to be more accurate, has been around for centuries (1995). Friedrich List (1854) commented on the industrial catch-up between Germany and the United Kingdom in the 19th century, showing that learning from others by adopting and adapting good practices, relying on reverse engineering and creating training and education systems to support change in many instances was supported by the German government – as the government was the only actor and still often is the only actor, that can afford to fund massive social changes. Considering the grand societal challenges global society is currently facing, the state may well still seem to play this role. Or as a minimum, the state continues to play a key role in the policy design premises on which grand societal challenges are meant to be addressed.
Another interesting question that arises is the role of the region. More specifically, “whether the organisation of innovation within nations [is] evolving in new ways” (Cooke, Gomez Uranga, & Extebarria, 1997) and the extent to which the national level is the appropriate lens through which to analyse innovation and the role of globalisation. However, it is equally interesting to investigate the role of the region in addressing grand social challenges, e.g., the green transition through innovation. According to Cooke et al. (1997), regional innovation systems (RIS) define the ways in which innovation subsystems are connected. This is particularly of note when studying innovation processes, as the complexity and non-linearity of such connections underpin national systems at a lower geographical level (Freeman, 1995; Cooke, Gomez Uranga, & Extebarria, 1997).
Considering the learning aspect, Asheim & Coenen (2005) conceptualised regional innovation systems as “regional clusters surrounded by supporting knowledge organisations through regional governance” (Asheim & Coenen, 2005, p. 11). They write that “in a globalising economy characterised by vertical disintegration and distributed knowledge bases, the important perspective ought to be the interdependences between regions and nations, where the deciding criteria must be the location of core activities (and not the whole value chain as such) and the relative importance of their connections to regional knowledge infrastructures” (Asheim & Coenen, 2005, p. 13).
Looking at the linkages between regional innovation systems and clusters, Asheim and Coenen (2005) view regions as sites for innovation and competitiveness in the globalising economy. They draw on the common rationale that territorial agglomeration provides the best context for an innovation-based globalising economy because of localised learning processes and ‘sticky’ knowledge grounded in social interaction (Asheim and Coenen 2005, p. 1174). At the same time, the authors acknowledge RIS to be embedded in national and global systems. In their words: “interacting knowledge generation and exploitation subsystems [are] linked to global, national, and other regional systems” (ibid. p. 1174).
In its focus on knowledge infrastructures and surrounding features this is linked to Cooke et al., (1997). For Cooke et al. (1997), “strengthening of regional level capacities” for promoting learning and innovation is crucial, as the key features of a regional innovation system revolve around financial capacity, productive culture (embeddedness) and institutionalised learning (access to knowledge), without which regional knowledge infrastructures cannot be supported. However, it must be differentiated and literature on regional innovation systems has built a significant empirical evidence-basis that challenges ‘one-size-fits-all’ models (Asheim & Coenen, 2005).
According to Grillitsch and Hansen (2019), the interlinkages between innovation and economic geography studies have contributed to an increased understanding of 1) the spatial embeddedness of innovation processes and 2) how innovation systems approaches can inform regional policy and assist industrial development. A basic assumption is that preconditions for innovation and new industrial developments vary in different regions. Based on this, Grillitsch and Hansen (2019) note that literature increasingly focuses on the potential for differentiated pathways of innovation in different types of regions.
Grillitsch and Hansen (2019) write that the regional innovation systems approach has added to the substantial empirical evidence of regional differences. This has evolved into a proposal of regional typologies, which distinguishes between peripheral regions, specialised regions and metropolitan regions, each of them with its “specific challenges and opportunities for regional development” (ibid). Regional typologies have been based on (1) actors and governance, (2) the strengths in radical versus incremental innovations and (3) RIS failures (ibid). The authors note that RIS failures have been the central argument for proposing new industrial path development (Grillitsch & Hansen, 2019).
The difference in innovation capacity between regional typologies lies mainly in the underlying preconditions and support systems for innovation and entrepreneurship (Grillitsch & Hansen, 2019). These are, for instance, the available knowledge generated by universities and research institutes and the possibility to apply or ‘exploit’ this in economic activity in industries and economic sectors. This often happens through intermediaries such as technological parks and incubators. Thus, apart from human capital and networks, other preconditions are necessary for turning knowledge into innovations applicable to markets or in practice more generally, such as knowledge intermediaries and entrepreneurial capital, which refer to both competence in business models and access to risk capital. Finally, the social and institutional contexts play a substantial role in shaping entrepreneurial activity (ibid.).
Metropolitan regions often host a number of universities and a range of education programmes and training opportunities. The scale and diversity of knowledge and entrepreneurship allow for the development of multiple related and unrelated industrial specialisations. Specialised regions, on the other hand, often experience some form of positive or negative ‘lock-in’, a self-reinforcing cycle stemming from their strong legacy and dependency on one or a few interrelated industrial activities, where support systems, knowledge and resources are concentrated in a few sectors (Grillitsch & Hansen, 2019). Nonetheless, this may strengthen their competitive advantage, although also weakening their position and ability to adapt when technologies or demand changes. Many peripheral regions have not reached a critical mass of high value creation and knowledge-intensive activities to be considered specialised in any one industry. In some cases, although support systems may be available, such as universities, these may not sufficiently trigger industrial development in the region. It may also be the case that innovative businesses are present in peripheral regions but rely on knowledge and networks from outside their regional location (ibid.).
In conclusion, we cannot easily differentiate between spatial sensitivity and spatial blindness; in many ways, innovation and innovation systems are too complex for compartmentalisation. A strict demarcation between the two would only shed light on certain aspects of the innovation system, depending on our analytical starting point (structure-agency).