Abstract
Supporting entrepreneurship has become an important policy target in Japan since 1990s and many incubators have been established as a part of regional innovation policy. Incubation strategy conducive to the improvement in incubation performance can be contingent on external factors, which makes it necessary to incorporate moderators, such as technology and growth phase, into the evaluation of incubators. This study examines how incubator’s ability affects incubation performance under different environments. Estimation results of a technology transfer function reveal that human resources (diversity of incubation managers’ professional experiences), physical resources (geographical proximity to universities), and organizational resources (alliance with universities) have different impacts on the creation and growth of startups according to technological fields (e.g., electronics and biotechnology) and life cycle stages (i.e., the nascent and early growth stage) of startups. Furthermore, the impact of selection strategy on incubation performance also varies according to technological fields and life cycle stages of startups. Policy implications of the key findings are discussed.
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Notes
According to job description by the Japan Business Incubation Association (http://jbia.jp/biim.html accessed 12 February 2017), incubation managers nurture nascent entrepreneurs from a long-term perspective so that they can successfully create business, which is achieved through incubation managers’ tactics for business growth and strategy for new industry creation in the region.
Social capital is defined as the ability of economic agents to extract benefits from their social structures, networks, and relationships (Davidsson and Honig 2003: 307).
Innovations in biotechnology tend to be standalone as opposed to systemic in that a final product can be clearly defined by specific information in patent documents (e.g., chemical equations), which makes it very difficult for followers to invent around, and makes patents particularly effective as appropriation mechanisms for innovators. In other technological fields, lead time and the first mover advantage are more important than legal protection. In fact, the quality of patents has a positive effect on growth of biotechnology startups (Fukugawa 2012).
Previous literature shows that the flow of scientific knowledge is localized (Fukugawa 2013; Ghio et al. 2016), implying the significance of spillover channels other than publications. One of the reasons for localized flows of university knowledge lies in the characteristics of knowledge to be transferred from universities to firms. Academic inventions that are potentially valuable for industrial innovations tend to be embryonic and contain tacit knowledge of academic inventors (Agrawal 2006). Therefore, entrepreneurial firms attempting to industrialize academic inventions need to interact closely with university scientists in order to identify practical applications of the invention.
For the number of graduates in the electronics industry, mean is 1.2 while variance is 11.1 for incubators aiming to support nascent entrepreneurs. Mean is 2.1 and variance is 62.1 for incubators aiming to support startups in the early growth stage.
Previous entrepreneurs’ success and failure could act as regional knowledge pool from which potential entrepreneurs in the region could learn, thereby facilitating demonstration effect (Acs and Virgill 2010).
It should be noted that the individual level information needed to be aggregated at the incubator level for the purpose of regression analysis.
More than 80% of entrepreneurs have previous professional experience as regular employees mainly in small- and medium-sized enterprises (JFC 2010).
It should be noted that it is empirically difficult to clearly distinguish the impacts of social capital and technological assistance resulting from the incubator's focus on technological skills of incubation managers.
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This research was funded by the Japan Society for the Promotion of Science [15K03411], the Murata Science Foundation, and the Nomura Foundation.
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Fukugawa, N. Is the impact of incubator’s ability on incubation performance contingent on technologies and life cycle stages of startups?: evidence from Japan. Int Entrep Manag J 14, 457–478 (2018). https://doi.org/10.1007/s11365-017-0468-1
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DOI: https://doi.org/10.1007/s11365-017-0468-1
Keywords
- Japan
- Business incubators
- Entrepreneurship
- Incubation strategy
- Incubation managers
- Innovation intermediaries
- Regional innovation policy
- Knowledge-based economies
- Sectoral innovation systems
- Firm growth
- New firm creation