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Article

Improving the System of Indicators for Assessing the Effectiveness of Modern Regional Innovation Systems

by
Wadim Strielkowski
1,2,*,
Svetlana Kalyugina
3,
Victor Fursov
3 and
Oxana Mukhoryanova
3
1
Department of Agricultural and Resource Economics, University of California, Berkeley, CA 94720, USA
2
Department of Trade and Finance, Faculty of Economics and Management, Czech University of Life Sciences Prague, Kamýcká 129, Prague 6, 165 00 Prague, Czech Republic
3
Institute of Economics and Management, North-Caucasus Federal University, Pushkin Str. 1, 355017 Stavropol, Russia
*
Author to whom correspondence should be addressed.
Economies 2023, 11(9), 228; https://doi.org/10.3390/economies11090228
Submission received: 3 August 2023 / Revised: 28 August 2023 / Accepted: 31 August 2023 / Published: 5 September 2023

Abstract

:
In the post-pandemic social and economic conditions, the proper assessment of the effectiveness of regional innovation systems (RISs) becomes a key endeavor. In our paper, we highlight the necessity to enhance the set of indicators used to evaluate the performance of regional innovation systems in countries with varying innovation capabilities. Specifically, we concentrate on examining case studies from the United States, Japan, China, and the Czech Republic, comparing their experiences with the current situation to innovations and innovation systems in Russia and drawing lessons for this country. Utilizing the Global Innovation Index (GII) rankings, we conduct an analysis of the characteristics of innovative progress and propose specific groups of indicators that can enhance the effectiveness of evaluating the innovative advancement of different regions. Moreover, we determine the need for uniqueness, flexibility, and adaptability of these based on the state’s strategic guidelines in the field of innovation and the innovative potential of the territory as well as the factors of external and internal influence. In addition, we conduct and present the results of the bibliometric network analysis of the research publications retrieved from the Web of Science (WoS) database using VOSViewer software and covering the role of regional innovation systems (RISs) in sha** up the national innovation systems (NISs) both in general terms and specifically applied to the case of Russia. Our results might be relevant for the stakeholders and policymakers who are engaged in promoting innovation, regional development, and sustainable economic growth, as well as for the academics working on the topics of innovation and economic development.

1. Introduction

In today’s highly competitive global economy, innovation has emerged as a key driver of economic growth and development (Etim and Daramola 2020; Ma and Zhu 2022; Kaftan et al. 2023). Recognizing this, governments and policymakers around the world have increasingly focused on fostering regional innovation systems (RISs) to enhance their countries’ competitiveness and attract investment (Isaksen et al. 2022; Volchik et al. 2023). Regional innovation systems constitute an integral part of national innovation systems (NISs) (Kolomytseva and Pavlovska 2020; Chung 2002). Distinguishing between regional and national innovation systems is essential for comprehending the complexities of innovation dynamics within any given country (Satalkina and Steiner 2020). While both systems share common elements, they differ in scope, scale, and interplay of actors. Several key differences must be considered when analyzing these systems: (i) geographic scales setting the context; (ii) varying involved actors; (iii) different specialization and innovation clusters; (iv) changing policy frameworks; (v) nuances in knowledge flows and spillovers; and (vi) assorted impacts of global trends and competition. Thence, the dashboard in the global innovation tracking system is represented by investment in science and innovation, technological progress, and adoption of various technologies, as well as the socio-economic impacts (Park and Choi 2019; Coutinho and Au-Yong-Oliveira 2023).
However, in today’s highly globalized and digitalized post-COVID-19 era measuring the effectiveness of RISs and understanding their impact on economic development becomes an increasingly complex task (Song et al. 2022). The evaluation of regional innovation systems is essential for several reasons. It enables policymakers to identify the strengths and weaknesses of their respective regions in terms of innovation capabilities (Firsova et al. 2020). By understanding these factors, policymakers can design targeted strategies to strengthen areas that require improvement while leveraging existing strengths. This approach allows for better resource allocation and more efficient use of public funds to support innovation initiatives (Costa 2021). In addition, evaluating regional innovation systems provides insights into how different components interact within a specific region. Innovation is not an isolated phenomenon but rather a result of various interconnected factors such as research institutions, universities, businesses, government policies, infrastructure, networks, and human capital (Papanastassiou et al. 2020). By assessing these interdependencies comprehensively, policymakers can gain a better understanding of the dynamics within their regions’ innovation ecosystems. Furthermore, evaluating regional innovation systems helps benchmark performance against other regions or countries globally (Zemtsov and Kotsemir 2019).
The Global Innovation Index (GII) ratings provide an internationally recognized framework for comparing the innovative capacity and performance across different economies. The GII is an interactive instrument that provides a valuable framework for evaluating regional innovation systems, enabling policymakers, researchers, and businesses to identify strengths, weaknesses, and areas for improvement with a high significance in assessing innovation systems (Kowalska et al. 2018; Dempere et al. 2023; Marti and Puertas 2023). The model of innovation systems presented in the GII offers a holistic approach that considers the multifaceted nature of innovation (Li et al. 2023). By evaluating countries through a diverse set of indicators and dimensions, the GII model provides insights into the strengths, weaknesses, and policy areas that nations can address to enhance their innovation capabilities and drive sustainable economic growth (Mohamed et al. 2022). Thence, the model is particularly relevant in understanding the broader context of innovation, extending beyond research laboratories to encompass economic and social aspects (Piqué et al. 2020). This is due to the fact that it highlights the linkages between science, technology, industry, and policy, showcasing any given nation’s innovation skills. Moreover, the GII model underscores the need for adaptability and agility in response to evolving global challenges and opportunities. This is particularly relevant for understanding the broader context of innovation, extending beyond research laboratories to encompass economic and social aspects. It highlights the linkages between science, technology, industry, and policy, showcasing the intricate web that underpins a nation’s innovation prowess. The GII model also underscores the need for adaptability and agility in response to evolving global challenges and opportunities (Ben Hassen 2022). Our comprehensive analysis presented in this study will help to allow regions to assess where they stand in relation to their peers in terms of various indicators such as research and development (R&D) expenditure, patent applications, knowledge creation outputs, and technology transfer activities, among others. Furthermore, evaluating regional innovation systems enables policymakers to monitor progress over time by establishing baselines and setting targets for future growth. It helps identify trends or changes that may affect the region’s competitiveness in the long run so that appropriate measures can be taken proactively. Finally, understanding the importance of evaluating regional innovation systems also emphasizes inclusivity and equity in economic development. By examining the innovation capabilities of different regions, policymakers can identify potential disparities and address them through targeted policies and initiatives. This ensures that the benefits of innovation-driven economic growth are shared more evenly, reducing regional inequalities.
The main value-added element of this study lies in emphasizing the crucial need to enhance the set of indicators for evaluating regional innovation systems (RISs) in diverse innovation-capable countries. Focusing on case studies from the United States, Japan, China, and the Czech Republic, as well as the lessons they can provide for Russia, we compare their experiences, drawing valuable lessons. Leveraging the Global Innovation Index (GII) rankings, we underscore the importance of uniqueness, flexibility, and adaptability aligned with strategic guidelines, innovation potential, and internal/external influences. Additionally, our study conducts bibliometric network analysis through the VOSViewer software, exploring the role of RISs in sha** national innovation systems (NISs), particularly concerning Russia. The following Research Questions (RQs) are explicitly introduced as the key questions for this study:
RQ1: Should countries with varying innovation capabilities apply enhanced or altered sets of indicators employed for evaluating the performance of their regional innovation systems?
RQ2: What differences between regional and national innovation systems have to be considered in the case of countries described above?
RQ3: What lessons can be learned from the innovation activity of the countries at the top of the GII index by the countries marked by bureaucratic hurdles and the legacy of central planning such as Russia?
This paper is structured as follows: Section 2 offers a comprehensive literature review on papers involving innovation strategies and describes case studies from the United States, Japan, China, and the Czech Republic on one hand and Russia on the other hand. Section 3 discusses tracking innovation and highlights and the role of the Global Innovation Index. Section 4 assesses the innovations and innovative activity in Russia and compares them to the case studies presented in the previous sections. Section 5 reports the results of the network analysis of regional and national innovation systems research based on the bibliometric study. Finally, Section 6 concludes by providing the overall outcomes, policy implications, and pathways for further research.

2. Literature Review

In general terms, the features of the innovation strategies of the countries that affect the indicators for evaluating the effectiveness of their national and regional systems differ in many ways (Wang and Wang 2020; Hintringer et al. 2021; Bruneckienė et al. 2023; or Bobek et al. 2023). For the purposes of this study, we selected four countries (United States, Japan, China, and the Czech Republic) for further comparison and to draw lessons for Russia. The selection was conducted based on their performance and ranking in the GII to ensure better representativeness. Analyzing the effectiveness of RISs in different countries sheds light on the intricate dynamics that influence innovation outcomes and regional competitiveness (Tambosi et al. 2020). The United States, recognized for its longstanding emphasis on innovation, boasts a highly developed RIS characterized by strong linkages between universities, research institutions, and industry. Japan, known for its strong industrial base, emphasizes collaboration between corporations, research institutes, and the government. China’s rapid ascent as an innovation powerhouse is marked by its government-driven approach, focusing on large-scale investment in R&D and strategic industries. The Czech Republic, with its small size and open economy, places importance on collaboration between universities, research centers, and the private sector. Russia, with its rich scientific heritage, confronts the task of transforming its legacy R&D institutions into dynamic innovation hubs.
In addition, a comparison of a small economy like the Czech Republic with larger countries like the United States or Japan was conducted due to the fact that it illuminates the role of scale, government support, collaboration dynamics, and talent retention in sha** innovation ecosystems. While small economies may have resource constraints, they can capitalize on proximity, agility, and targeted specialization to foster innovation in specific domains. Such comparisons underscore the importance of tailoring innovation strategies to the unique context of each economy, regardless of its size.
In the United States, innovative development has long been a “national idea”, and the strategy of increasing innovation covers all stages of the innovation life cycle, consistently including basic research, applied research, development, and innovation (Tolstykh et al. 2020; Yang and Gu 2021). An important role is played by educational organizations that create a significant number of start-ups with high innovative potential. The main actors of innovation activity in the U.S. are universities, a significant part of which rank high in the world rankings (De Wit 2019; Ebersberger and Kuckertz 2021). Other subjects of the U.S. innovation system are national laboratories and large government institutions that develop certain areas of applied science. In addition, U.S. enterprises influence the direction of scientific research and the educational process, and the state acts as a venture investor and public controller (Birkle et al. 2020; Novikov 2020).
The U.S. innovation system implements the North American model, in which science, business, the state apparatus, civil society, and consumers form a kind of “quintuple spiral”, or a network structure of interaction (Pan and Guo 2022). An aspect of the country’s approach to innovation is the promotion of innovative endeavors within the private sector, even in the face of potential tactical and strategic setbacks or failure (Petrovsky et al. 2018; Dzigbede et al. 2020).
In the various states of the U.S., at the initiative of the administration, scientific and technological clusters are being created, forming a sort of regional innovation system. The initial capital is allocated from the budget, and further funding is provided at the expense of private investors (Wang and Wang 2019; Firsova et al. 2020; Graf and Menter 2021).
Alongside small enterprises, public–private collaborations are emerging as a fundamental component in sha** the U.S. innovation strategy. Consequently, indicators that gauge the establishment of conducive conditions for fostering long-term relationships between the government and the private sector are incorporated into the evaluation of regional innovation systems’ effectiveness (Vecchi et al. 2020; Hagan 2020; Baxter and Casady 2020).
On the other hand, in Japan, a strategy for scientific, technological, and innovative development is being developed by the Council for Science, Technology and Innovation Policy (Tajeddini et al. 2020; Kuzior et al. 2022). The “soft” reform of the national innovation system began with the public sector and then shifted to universities and the business sector. The priorities of the innovation strategy are nanoelectronics and nanomaterials, renewable energy and energy saving, information and communication technologies, biotechnologies, new drugs and regenerative medicine technologies, intelligent robotics, the Internet of Things (IoT), etc. (Klavdienko 2017; Miyashita et al. 2020; Fukuda 2020).
Along with the centralization of R&D management in the public sector, the principles for evaluating state research organizations and scientists were developed and implemented, allowing the distribution of financial resources (salaries, loans, etc.) based on the results of their work. Public sector research institutes and laboratories have greater autonomy in the management of internal resources while maintaining public funding (Cinar et al. 2022).
The proportion of state involvement in innovation development is relatively small, with the majority of budget funds (approximately 95%) being allocated through the public sector to national universities and research institutions (Klavdienko 2017; Borsi 2021). However, the government wields indirect tools to regulate the R&D domain, such as tax incentives, preferential lending, and credit guarantees for small and medium-sized enterprises engaged in research and development activities (Holroyd 2022; Park and Kim 2022; Chang et al. 2022).
It becomes evident that science and education play a significant and essential role in Japan’s National Innovation System. In a country with a population of 125.3 million people, there are 604 private, 86 national, and 89 public universities located mostly in large cities that distribute students among themselves by category: national universities that focus on training the personnel for state institutions and organizations, public universities who prepare staff for the municipalities or prefectures, and the private universities that provide cadres for the market (Fukui 2021; Ikegaya and Debbage 2023).
However, Japan faces an issue concerning the collaboration between educational institutions and industrial enterprises in the domain of research and development (R&D). This challenge stems from the substantial bureaucratic nature of decision-making and the limited interaction between these organizations. The educational establishments possess considerable R&D potential, but they exhibit little inclination toward embracing the outcomes of university research, deeming them incomplete and unsuitable for practical implementation (Ellitan 2020).
Moreover, the lack of incentives for fostering innovation in small and medium-sized enterprises has resulted in a considerable portion of the Japanese population favoring careers in civil service or major corporations. Consequently, this imbalance in the economy has led to a decline in labor productivity. However, Japan continues to focus on technology transfer, and this requires greater activation of flexible indirect methods of economic regulation in order to maintain innovative potential in the regions (Bardhan 2020).
In China, the development of innovation can be divided into fundamental, initial, and catch-up stages, which led to the following positions:

Author Contributions

Conceptualization, W.S., S.K., V.F. and O.M.; methodology, W.S., S.K. and O.M.; software, O.M.; validation, S.K. and W.S.; formal analysis, W.S., S.K., V.F. and O.M.; investigation, W.S., S.K., V.F. and O.M.; resources, W.S.; data curation, W.S. and O.M.; writing—original draft preparation, W.S., S.K., V.F. and O.M.; writing—review and editing, W.S., S.K., V.F. and O.M.; visualization, W.S., S.K., V.F. and O.M.; supervision, S.K.; project administration, W.S.; funding acquisition, W.S. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

Not applicable.

Acknowledgments

This work was supported by the grant from the Russian Foundation for Basic Research (Project No. 20-010-00025 “Transactional Genesis of Regional Innovation System”).

Conflicts of Interest

The authors declare no conflict of interest. The authors have consented to the acknowledgement provided in the Acknowledgement statement.

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Figure 1. Sources of financing for the introduction of innovations in Russia, %. Source: Federal State Statistics Service (2023).
Figure 1. Sources of financing for the introduction of innovations in Russia, %. Source: Federal State Statistics Service (2023).
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Figure 2. The volume and structure of costs for innovation activities in Russia, billion rubles. Source: Federal State Statistics Service (2023).
Figure 2. The volume and structure of costs for innovation activities in Russia, billion rubles. Source: Federal State Statistics Service (2023).
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Figure 3. Types of innovation activity in Russia in 2020, %. Source: Federal State Statistics Service (2023).
Figure 3. Types of innovation activity in Russia in 2020, %. Source: Federal State Statistics Service (2023).
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Figure 4. The dominant clusters of cross-sector research connected with “regional innovation systems” and “national innovations systems” from the sample of 1894 publications indexed in WoS. Source: Own results based on VOSViewer v. 1.6.15 software.
Figure 4. The dominant clusters of cross-sector research connected with “regional innovation systems” and “national innovations systems” from the sample of 1894 publications indexed in WoS. Source: Own results based on VOSViewer v. 1.6.15 software.
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Figure 5. The dominant clusters of cross-sector research connected with “regional innovation systems”, “national innovations systems”, and “Russia” from the sample of 89 publications indexed in WoS. Source: Own results based on VOSViewer v. 1.6.15 software.
Figure 5. The dominant clusters of cross-sector research connected with “regional innovation systems”, “national innovations systems”, and “Russia” from the sample of 89 publications indexed in WoS. Source: Own results based on VOSViewer v. 1.6.15 software.
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Figure 6. Network map based on the bibliographic data of the sample of publications containing the keywords “regional innovation systems” and “national innovations systems” in 1894 publications retrieved from WoS database. Source: Own results based on VOSViewer v. 1.6.15 software.
Figure 6. Network map based on the bibliographic data of the sample of publications containing the keywords “regional innovation systems” and “national innovations systems” in 1894 publications retrieved from WoS database. Source: Own results based on VOSViewer v. 1.6.15 software.
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Figure 7. Network map based on the bibliographic data of the sample of papers containing the keywords “regional innovation systems”, “national innovations systems”, and “Russia” in 89 publications retrieved from WoS database. Source: Own results based on VOSViewer v. 1.6.15 software.
Figure 7. Network map based on the bibliographic data of the sample of papers containing the keywords “regional innovation systems”, “national innovations systems”, and “Russia” in 89 publications retrieved from WoS database. Source: Own results based on VOSViewer v. 1.6.15 software.
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Table 1. Rankings in the Global Innovation Index (2022).
Table 1. Rankings in the Global Innovation Index (2022).
Ranking in the GIICountryPointsRanking in Income GroupRegional Ranking
1Switzerland64.611
2USA61.821
3Sweden61.632
4United Kingdom59.743
5Netherlands58.054
6The Republic of Korea57.861
7Singapore57.372
8Germany57.285
9Finland56.996
10Denmark55.9107
11China55.313
16Israel50.2151
30Czech Republic42.82919
37Turkey38.144
40India36.611
47Russian Federation34.3730
50Chile34.0401
61South Africa29.8142
Source: Own results based on Global Innovation Index (2022).
Table 2. Selected metrics for the 2022 Global Innovation Index.
Table 2. Selected metrics for the 2022 Global Innovation Index.
A CountryOverall Ranking in the GIIInstitutesHuman Capital
and Research
InfrastructureMarket Development LevelBusiness Development LevelKnowledge and Technology OutcomesResults of Creative Activity
Switzerland12448711
USA21391913312
Sweden3193113128
United Kingdom4246852283
Netherlands5414141810510
Republic of Korea631113219104
Singapore71711421321
Germany820223141997
Finland91183175418
Denmark10910515151214
China114220251212611
Israel1641244276736
Czech Republic3043332076281737
Turkey37101414837474715
India4054437819543452
Russian Federation4789276248445148
Chile5039574746575455
South Africa6181817739635664
Source: Own results based on Global Innovation Index (2022).
Table 3. Distribution of organizations with product and process innovations in Russia between 2018 and 2020.
Table 3. Distribution of organizations with product and process innovations in Russia between 2018 and 2020.
Types of InnovationIdustrial ProductionServices SectorAgricultureConstructionAverage
by Industry
Product innovation73.865.949.861.968.4
Process innovations:60.967.776.071.165.3
  • Processing and communication of information common to the organization
26.238.527.935.233.0
  • Business management, corporate governance, accounting, and financial accounting
22.126.323.038.624.8
  • Production and development of goods and services, and maintenance and development of agricultural production
25.918.659.219.023.1
Source: Own results based on Vlasova et al. (2022) and Federal State Statistics Service (2023).
Table 4. Summary of data and data selection algorithm.
Table 4. Summary of data and data selection algorithm.
CategorySpecific Criteria
Reference and citation databaseWeb of Science
Citation indicesSCI-Expanded, SSCI
Time period1991–2023
Language“English”
Keywords“regional innovation systems” AND “national innovations systems”
Document types:
Articles1420
Proceeding papers418
Others56
Sample sizeN = 1894
Source: Own results.
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Strielkowski, W.; Kalyugina, S.; Fursov, V.; Mukhoryanova, O. Improving the System of Indicators for Assessing the Effectiveness of Modern Regional Innovation Systems. Economies 2023, 11, 228. https://doi.org/10.3390/economies11090228

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Strielkowski W, Kalyugina S, Fursov V, Mukhoryanova O. Improving the System of Indicators for Assessing the Effectiveness of Modern Regional Innovation Systems. Economies. 2023; 11(9):228. https://doi.org/10.3390/economies11090228

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Strielkowski, Wadim, Svetlana Kalyugina, Victor Fursov, and Oxana Mukhoryanova. 2023. "Improving the System of Indicators for Assessing the Effectiveness of Modern Regional Innovation Systems" Economies 11, no. 9: 228. https://doi.org/10.3390/economies11090228

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