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Unlocking Innovation: A Regional fsQCA Study of Firm Performance

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23 April 2025

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24 April 2025

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Abstract
The interplay between regional context, innovation strategies, and firm performance is critical, yet understanding how these factors combine to affect financial outcomes (total net turnover) and national innovation capability (EIScore) remains limited. Existing research often overlooks the configurational effects and specific pathways to superior performance, representing a significant research gap.This study utilized a mixed-methods approach on European country data from the Community Innovation Survey (CIS2022) and the EU Innovation Scoreboard (2022). Following descriptive analysis, Fuzzy-Set Qualitative Comparative Analysis (fsQCA) was employed to identify configurations of innovation strategies (general activity, product focus, process focus) sufficient for high turnover and high EIScores.The fsQCA identified multiple pathways to high performance. Crucially, configurations combining broad innovation activity with simultaneous engagement in both product and business process innovation consistently proved sufficient for achieving both high total net turnover and high national EIScores. This highlights the significant positive impact of integrating diverse innovation types over a singular focus for enhancing performance across European regions.Using fsQCA, this research provides compelling evidence of complex configurational links between innovation strategies, regional context, and performance. The findings underscore the strategic importance for firms of cultivating combined product and process innovation capabilities. For policymakers, results highlight the value of fostering ecosystems supporting such integrated approaches. This study contributes a nuanced understanding of pathways to innovation success, offering insights for strategy and policy.
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1. Introduction

The relationship between the regional environment, innovation strategies, and firm performance has become an area of increasing interest for business and regional economics researchers. Although previous studies have examined these factors separately, there remains a gap in understanding their interconnected effects. Some scholars advocate for concentrating resources on a single sector, emphasizing firm-specific capabilities as a source of competitive advantage (Barney, 1991). Others argue that inter-sector collaboration fosters innovation and firm performance, particularly in open innovation ecosystems (Bertello, De Bernardi, & Ricciardi, 2023; Camarinha-Matos, Rocha, & Graça, 2022). This divergence highlights the need for further exploration into how regional contexts influence the effectiveness of different innovation strategies in enhancing business outcomes. Existing research also indicates that regional innovation, particularly in areas such as the Nordic countries, is affected by several factors, including a well-trained workforce and strong government assistance (Mariani, 2022).
This study addresses the need for a sharper understanding of how a region influences how well different innovation strategies work to improve total net turnover and innovation performance. The goal of this study is to identify the combinations of innovation activities that lead to high performance in specific regional contexts. To that end, the study uses a combined methods approach, using both descriptive statistics and Fuzzy-Set Qualitative Comparative Analysis (fsQCA) by Ragin (2008). This allows us to single out complex causal relationships and multiple pathways to greater turnover and innovation scores.
Specifically, the study poses the following research questions:
RQ1: Is high total net turnover necessarily the result of concurrently having active innovation enterprises, entrepreneurial product innovation, and entrepreneurial business process innovation?
RQ2: Can combinations of innovation activity (presence/absence) and innovation types (product vs. business process) adequately explain high Innovation Scoreboard performance?
The methodology leverages the Community innovation survey 2022 (CIS2022) data from https://ec.europa.eu/eurostat/databrowser/view/inn_cis13_yreg_ip/default/table?lang=en and the EU Innovation Scoreboard of countries and neighbouring countries database from https://research-and-innovation.ec.europa.eu/statistics/performance-indicators/european-innovation-scoreboard_en - european-innovation-scoreboard-2024, using descriptive statistics to find popular innovation approaches and fsQCA to uncover causal links between activities, regional context, and company performance.

2. Materials & Methods

This section outlines the methodologies used to investigate the relationship between regional context, innovation strategies, and firm performance, employing a mixed-methods approach that combines descriptive statistics with Fuzzy-Set Qualitative Comparative Analysis (fsQCA).

2.1. Data Collection

This study leverages data from the Community Innovation Survey 2022 (CIS2022) and the EU Innovation Scoreboard dataset of 2022 to investigate the interplay between regional context, innovation strategies, and firm performance across European countries. The CIS2022 data, available from Eurostat at https://ec.europa.eu/eurostat/databrowser/view/inn_cis13_yreg_ip/default/table?lang=en, provides detailed information on innovation activities at the enterprise level. The EU Innovation Scoreboard data, accessible at https://research-and-innovation.ec.europa.eu/statistics/performance-indicators/european-innovation-scoreboard_en - european-innovation-scoreboard-2024, offers country-level indicators of innovation performance.
The data encompasses a sample of European countries (n=28 based on the provided data excerpt). The sample selection criteria focused on countries for which complete data across all variables of interest were available in both the CIS2022 and EU Innovation Scoreboard datasets.
The dependent variables were “Total Net Turnover”, which is measured in EUR. This variable represents the total revenue generated by enterprises in a given country. The operational definition is the reported total net turnover in EUR as extracted directly from the CIS2022 dataset. The second dependent variable is “EIScore”, which is a composite measure of innovation performance based on various indicators from the EU Innovation Scoreboard. The operational definition is the reported “EIScore” value as extracted directly from the EU Innovation Scoreboard dataset. The independent variables are all derived from the CIS2022 dataset and are “Innov_active_en”, which signifies the percentage of enterprises engaged in any form of innovation. “Prod_innov_ent_only” signifies the percentage of enterprises engaged solely in product innovation. “Ent_prod_innov” signifies the percentage of enterprises engaged in product innovation, irrespective of other innovation types. “Prod_bus_proc_innov_ent_only” signifies the percentage of enterprises engaged solely in product and business process innovation. “Ent_bus_proc_innov” signifies the percentage of enterprises engaged in both business and process innovations, irrespective of other innovation types and ultimately, “Bus_proc_innov_ent_only” signifies the percentage of enterprises engaged solely in business process innovation.
For each independent variable above, their commonality is a reflection in innovation processes. All of the measures are percentages of firms, but the key differences are based on what specific activities the firm focuses on in its strategic vision. This will give insights into strategic insights on turnover and “EIScore” outcomes. All independent variables were extracted from the CIS2022 dataset. These factors are to add to what is already measured and to create an ability to control a variety of factors. Each of the items is strategically important for what is measured. All control variables were calculated with variables extracted and compiled from the EU Community innovation survey and the EU Innovation scoreboard. The operational definitions come as direct reports of each line item for each variable.

2.2. Descriptive Statistics

Descriptive statistics were employed to provide an overview of the innovation landscape within the sample. The calibration measures were calculated for each variable using the “calibrate (x1, n1, n2, n3)” function where x1 is the variable, n1 is the third quartile (0.95) or maximum value in the column, n2 is the Mean (0.5), and n3 is the first quartile (0.05) or Minimum value in the column. These statistics were used to assess the distribution of innovation activities and financial performance across the sampled dataset.
2.3. Fuzzy-Set Qualitative Comparative Analysis (fsQCA)
Variables were calibrated using the direct method, with thresholds guided by theoretical concepts and empirical distributions, following Ragin's (2008) recommendations. The calibration values for full membership, crossover point, and full non-membership were determined as suggested by that same resource.
fsQCA was then employed to identify configurations of conditions (combinations of independent variables) sufficient for high total net turnover and EIScores. The analysis was conducted using fsQCA Software version 4.1 (Ragin & Sean, 2022), and standard procedures for necessity and sufficiency analysis were employed. The specific parameters are a consistency threshold of 0.8 and a frequency threshold of 1 (Ragin, 2008). The Quine-McCluskey algorithm was used to construct the truth table. Finally, the intermediate solution was chosen for interpretation.

3. Results/Discussion

This section details the findings of the study, beginning with descriptive statistics, followed by the results of the Fuzzy-Set Qualitative Comparative Analysis (fsQCA). Subsequently, relevant theoretical foundations are reviewed, and the findings are discussed concerning the research questions and existing literature.

3.1. Descriptive Analysis

A descriptive analysis of the key variables employed in this study was conducted. As detailed in Table 1, the data provide insights into the distribution of innovation activities and financial performance indicators within the sampled European countries.
Interpretation of Descriptive Statistics: The percentage of innovation-active enterprises (“Innov_active_ent”) showed considerable variation (range 8.8-70.3), with a mean of 47.86 and a median of 51.4, suggesting a wide distribution where approximately half of the enterprises engaged in some form of innovation.
Regarding specific innovation types, enterprises focusing solely on product innovation (“Prod_innov_ent_only”) were less prevalent (mean 5.12, range 0.1-12.1). In contrast, a larger proportion engaged in product innovation alongside other types (“Ent_prod_innov”, mean 21.96, range 0-46.6), suggesting integration is common. A substantial focus was observed on combined product and business process innovation (“Prod_bus_proc_innov_ent_only”, mean 44.15, range 8.5-65). Enterprises engaging in both, regardless of exclusivity (“Ent_bus_proc_innov”, mean 39.57), showed similar prevalence, indicating a trend towards combining innovation types. Exclusive focus on business process innovation (“Bus_proc_innov_ent_only”) was less frequent (mean 17.62, range 1.3-28.6).
“Total_Net_Turnover” displayed a broad range (0-67.2, mean 41.62), indicative of diverse financial performance among the sampled enterprises. The “EIScore”, measuring national innovation performance, also varied significantly (35.4-136.52, mean 93.07), pointing to considerable differences in innovation efficiency and sophistication across the countries studied.

3.1.1. Decoding Total Net Turnover: fsQCA Results

Table 2 presents the intermediate solution from the fsQCA analysis, identifying configurations of innovation activities sufficient for achieving high Total Net Turnover (coded as Total_Net_Turnover_fs). fsQCA allows for the identification of complex causal pathways.
Interpretation of fsQCA Results (Turnover): The fsQCA results identify multiple pathways sufficient for high total net turnover. Solution 1 (Innov_active_ent_fs * Ent_prod_innov_fs * Ent_bus_proc_innov_fs) demonstrated the highest raw coverage (0.54) and strong consistency (0.92). This suggests that the simultaneous presence of being innovation-active, engaging in product innovation (potentially alongside other types), and engaging in business process innovation (potentially alongside other types) is a highly relevant configuration for achieving high turnover. Its unique coverage of 0.18 further underscores its distinct importance in explaining the outcome.
Other configurations also met the consistency threshold, indicating alternative pathways. However, their unique coverage scores were considerably lower (≤ 0.08), suggesting that while sufficient, they explain a smaller portion of high turnover cases exclusively. This highlights the primary importance of the combination found in Solution 1, while acknowledging that other, less uniquely explanatory paths exist. The overall solution coverage (0.90) indicates that these configurations collectively explain a large proportion of high turnover cases, while the solution consistency (0.84) is acceptable.

3.1.2. Understanding Innovation Score Drivers: fsQCA Results

This subsection examines the fsQCA results, identifying configurations sufficient for high national innovation performance, as measured by the EIScore (coded as EIScore_fs). Table 3 details the intermediate solution.
Interpretation of fsQCA Results (EIScore): The analysis revealed that high national innovation scores ("EIScore") are significantly associated with specific configurations involving both innovation engagement and the type of innovation pursued.
Solution 1 (Innov_active_ent_fs * Ent_prod_innov_fs * Ent_bus_proc_innov_fs) again showed a strong association, with high raw coverage (0.52) and consistency (0.90). This indicates that countries where firms are generally innovation-active and pursue both product and business process innovation tend to achieve higher EIScores. Its unique coverage was 0.14.
Solution 4 (Innov_active_ent_fs * Prod_bus_proc_innov_ent_only_fs * Ent_bus_proc_innov_fs * Bus_proc_innov_ent_only_fs) also demonstrated substantial raw coverage (0.45) and very high consistency (0.96), along with significant unique coverage (0.14). This pathway highlights the importance of combining general innovation activity with a specific focus on both product/process and process innovation.
Solution 2 (Raw Coverage 0.31, Consistency 0.90) suggests high scores can be achieved via product and combined product/process innovation without relying solely on process innovation. Solution 3 (Raw Coverage 0.34, Consistency 0.91) highlights the sufficiency of combining product innovation with solely business process innovation, even without broad engagement in both types simultaneously.
Overall, the fsQCA results suggest that high innovation scores are most strongly linked to configurations involving active innovation engagement coupled with a strategic focus on both product and business process innovations. The presence of multiple successful configurations indicates flexibility, but a well-rounded approach appears consistently beneficial for national innovation performance. The overall solution coverage (0.80) and consistency (0.87) are robust.

3.2. Theoretical Foundations and Literature Review

Understanding the complex interplay between collaborative approaches, innovation, and firm performance requires a grounding in several key theoretical perspectives. Firstly, Open Innovation theory emphasizes the strategic necessity for firms to utilize both internal and external knowledge sources for successful innovation. This involves leveraging external pathways like markets and partnerships for commercializing ideas, alongside internal development efforts (Wang et al., 2022). The proliferation of digital technologies further incentivizes the creation of open innovation ecosystems, facilitating boundaryless resource sharing and collaborative value creation (Wang et al., 2022). Responding to environmental uncertainty also acts as a significant driver for adopting open innovation models (Iglesias-Sánchez et al., 2022).
Secondly, Service-Dominant (S-D) Logic, as introduced by Vargo and Lusch (2004), reframes value creation not as an internal firm activity, but as a collaborative process involving the exchange of knowledge and skills, particularly with customers. Consequently, engaging customers and enabling their active participation becomes vital for value generation (Hussain et al., 2022; Martinez-Cañas et al., 2016). The integration of scientific and technological advancements further enables these co-creative processes (Zhu et al., 2022).
Thirdly, the Resource-Based View (RBV) posits that sustained competitive advantage stems from a firm's unique resources and capabilities (Barney, 1991). Within the context of collaboration, the ability to establish and leverage external relationships and knowledge networks is increasingly recognized as a strategic capability enhancing innovation and performance (Wang et al., 2022). Relatedly, resource integration theory suggests viewing customers as valuable assets and understanding how benefit recognition motivates engagement with resources for ongoing value creation (Zhu et al., 2022).
Fourthly, Dynamic Capabilities Theory introduces a temporal element, arguing that firms need capabilities to effectively sense environmental changes, seize opportunities, and reconfigure their resource base accordingly (Teece et al., 1997). Notably, the implementation of environmentally conscious practices can lead to the development of specific Green Dynamic Capabilities (Yousaf, 2021).
Finally, examining broader business, innovation, and platform ecosystems reveals common characteristics like openness and diversity, but also significant variations in participant roles and stakeholder objectives within these networks (Liu et al., 2024).
It is increasingly acknowledged that sustainable competitive advantage rarely arises solely from internal efforts (Wang et al., 2022). Active engagement with external stakeholders within collaborative environments is crucial for driving innovation and enhancing firm performance. To facilitate a clear discussion, several key concepts require definition. First, co-creation, moving beyond traditional firm-centric approaches, involves the active integration of customers and other stakeholders in the mutual generation of value (Prahalad & Ramaswamy, 2004); this extends beyond product/service design to influence broader business operations (Normann & Ramirez, 1993) and is fundamentally characterized by shared value generation, meaningful stakeholder input, and open innovation principles. Second, collaboration refers to the concerted effort by two or more parties towards a common goal (Camarinha-Matos et al., 2022). Within the innovation context, collaboration entails reciprocal knowledge exchange, resource pooling, and leveraging collective expertise to develop novel offerings (goods, services, processes), with such partnerships potentially existing internally or extending externally to include suppliers, customers, research institutions, or even competitors. Third, innovation, following Schumpeter (1934), is defined as the implementation of a new or significantly improved product, service, process, marketing method, or organizational method. Innovations can encompass both incremental improvements and radical shifts, creating entirely new offerings, thereby serving as a fundamental driver of economic success and competitive advantage. Finally, firm performance describes an organization’s success, which can be assessed through various indicators, including both financial metrics (like profitability, revenue growth, market share, ROA) and non-financial aspects (such as customer satisfaction, employee retention, innovation results, ethical conduct) (Yu et al., 2022).

3.2.1. Co-Creation and Innovation Linkages

A consistent body of research demonstrates a positive link between co-creation activities and enhanced innovation outcomes. Firms that actively involve customers and stakeholders in their processes gain access to novel perspectives, valuable market insights, and specialized knowledge (Poblete et al., 2023). User participation, in particular, can be a crucial source for social innovation and the development of more robust ecosystems (Poblete et al., 2023).
Co-creation initiatives often manifest in various innovation types, including improved product designs, new service concepts, more efficient process implementations, or agile business models (Nájera-Sánchez et al., 2020). For example, engaging customers in online communities has been shown to stimulate service innovation via knowledge transfer and the adoption of new practices (Wang, 2022).
Furthermore, adopting an open innovation strategy offers specific managerial benefits, particularly for technology firms seeking stakeholder engagement, as it provides pathways for realizing potential through external collaboration (Iglesias-Sánchez et al., 2022). The effectiveness of such strategies often lies in the ability of innovative processes to actively listen and respond within a co-creative environment (Iglesias-Sánchez et al., 2022).
Digital transformation initiatives also positively impact corporate innovation, supported by elements like efficient big data utilization and adaptable organizational structures (Xu et al., 2024). As technological advancements blur business boundaries, innovation increasingly occurs through collaboration with digitally integrated partners (Liang & Ye, 2023). Consequently, developing digital ambidexterity, combining diverse operational strategies with digitalization becomes valuable for competitive advantage (Chen et al., 2024).
Finally, engaging stakeholders directly aids product development progress. Collaborative co-design enables joint strategies aligned with stakeholder needs (Klager et al., 2024), while multi-stakeholder partnerships can foster innovations addressing complex societal challenges (‘wicked problems’), advancing sustainable development goals (Mariani et al., 2022). Involving consumers directly in the creative process enhances strategic innovation and alignment with market demands (Laurisz et al., 2023).

3.2.2. Co-Creation and Firm Performance Linkages

Existing literature also connects co-creation activities to improved firm performance, particularly when proactive strategies are employed.
Research indicates that consumers engaging in co-creation often exhibit increased commercial participation and loyalty (Nguyen, 2024), especially when supported by positive online customer experiences designed to foster long-term engagement (Ahmad et al., 2022). Furthermore, the integration of green dynamic capabilities, practices, and value co-creation has been shown to enhance green innovation mechanisms within SMEs (Yousaf, 2021).
Understanding the dynamics of business-consumer partnerships through the lens of S-D logic is crucial (Zhu et al., 2022). However, effective customer co-creation often needs to be coupled with strong internal branding to translate into improved brand performance and customer satisfaction (Yu, 2022).
While beneficial, the processes underpinning co-creation rely on both internal and external collaboration for effective decision-making (Lozada et al., 2019), and practices like big data analytics can enhance innovative agility. It is also important to acknowledge the potential for value co-destruction within open innovation communities, influenced by factors like self-interest, which may necessitate adjustments to organizational and digital strategies (Daradkeh, 2023).

3.2.3. Challenges and Future Research Directions

While the benefits of co-creation, collaboration, and innovation are widely discussed, acknowledging persistent challenges and areas requiring further research is essential.
Effective strategies for innovative cooperation depend heavily on robust data analysis capabilities for identifying and leveraging opportunities (Ji et al., 2022). However, the collection and use of data, particularly public data, raise significant ethical concerns regarding privacy and potential negative impacts on the labor force, especially low-skilled jobs (Dionisio et al., 2023). Organizations, therefore, need systems to incorporate diverse perspectives ethically into the innovation process, particularly as user-led approaches gain prominence (Poblete et al., 2023).
Further research is needed to better understand knowledge utilization mechanisms within collaborative settings and how interactive behaviors foster cooperative innovation (Meng et al., 2023). Improving digital innovation requires making efficient, collaborative value co-creation central to service value chains (Wang et al., 2023). Building upon current understanding necessitates developing more detailed metrics to quantify the impact of co-creation activities on specific innovation levels. Additionally, investigations into how contextual factors such as industry type, firm size, or national culture moderate the relationship between co-creation and performance are warranted. Exploring the crucial role of leadership in fostering collaborative and innovative organizational cultures presents another vital research avenue. Finally, addressing the complex ethical dimensions, which encompass intellectual property protection, data privacy, and the establishment of clear structural guidance for co-creation practices, remains a critical area for future inquiry (Vargas et al., 2022).

3.3. Discussion of Findings

This discussion integrates the descriptive and fsQCA findings with the theoretical background and addresses the study's core aims, considering the interplay between regional context, innovation strategies, and performance.

3.3.1. Regional Context and Innovation Performance

The findings underscore the relevance of regional (national-level) context, particularly highlighted by the fsQCA results linking specific innovation configurations to national EIScores. While the analysis treated region implicitly through country-level data, the dominant configurations identified (especially those involving broad innovation activity and combined product/process focus, see Table 3, Solutions 1 and 4) align with characteristics often attributed to high-performing innovation systems, such as those in Nordic countries known for skilled workforces and supportive policies (Mariani, 2022).
The fsQCA results for turnover (Table 2) also showed dominant pathways involving combined innovation types (Solution 1). The fact that certain configurations strongly predict high turnover and high EIScores suggests a connection between firm-level strategies prevalent in a region and the region's overall innovation standing. The lower unique coverage of some fsQCA paths might indicate that while certain strategies are sufficient, unmeasured regional factors (e.g., specific policies, industry structures, cultural factors) could influence which pathway is most common or effective in a particular location. The observation that the identified dominant configurations are strongly associated with success, without necessarily being restricted to a single geographic cluster in the fsQCA outcomes (beyond the general European sample), points towards the potential transferability of these strategic approaches, although regional context likely moderates their implementation and prevalence. This presents an intriguing avenue for future research focused explicitly on comparative regional analysis.

3.3.2. Contrasting Innovation Strategies and Contributions

The descriptive statistics (Table 1) revealed a higher prevalence of firms combining product and business process innovation (“Prod_bus_proc_innov_ent_only” mean 44.15) compared to those focusing solely on one type. This observation, coupled with the fsQCA results, where configurations involving combined or multiple innovation types (especially Solution 1 in both Table 2 and Table 3) showed high coverage and consistency, supports the idea that integrated innovation strategies are often associated with superior performance (both turnover and EIScore). This finding contributes to the ongoing discussion comparing focused versus diversified innovation strategies, suggesting that for the outcomes measured here, combining capabilities across product and process domains is frequently beneficial.
A key strength of this research lies in applying fsQCA to simultaneously analyze configurations leading to both financial (turnover) and systemic (EIScore) performance indicators using large-scale survey data. This approach identified specific, complex combinations of innovation activities sufficient for success, moving beyond simple linear correlations. However, limitations must be acknowledged. The relatively low unique coverage scores for some fsQCA solutions suggest that other factors, not included in this analysis (e.g., firm size, industry, specific policies, R&D intensity), likely influence outcomes. Furthermore, while the sample size (n=28 countries) is suitable for fsQCA at the national level, analysis at the firm level or with more granular regional data could yield further insights. Future research employing statistical tests or incorporating additional variables could bolster the findings.
This study enriches existing knowledge by empirically demonstrating how specific combinations of innovation activities, viewed through the lens of national context, link to both firm-level financial results and national innovation capacity. The fsQCA methodology provides a nuanced perspective on how these factors interact, offering insights valuable for businesses seeking effective innovation strategies and policymakers aiming to foster supportive ecosystems. The findings connect practical innovation choices to theoretical frameworks like the Resource-Based View (emphasizing capability combinations) and Dynamic Capabilities Theory (highlighting the need to adapt strategies), particularly within collaborative and open innovation contexts. The economic implications for regional development are significant, suggesting that fostering environments supporting combined product and process innovation may enhance both firm revenues and national innovation rankings.

3.3.3. Addressing the Research Questions

RQ1: Does the concurrent presence of innovation-active enterprises, entrepreneurial product innovation, and entrepreneurial business process innovation constitute a sufficient condition for high total net turnover?
The fsQCA results (Table 2, Solution 1) indicated that the configuration Innov_active_ent_fs * Ent_prod_innov_fs * Ent_bus_proc_innov_fs is a sufficient condition for achieving high total net turnover, demonstrated by high consistency (0.92) and the highest raw (0.54) and unique (0.18) coverage among the identified paths. This supports an affirmative answer: the concurrent presence of these three elements, representing broad innovation activity and engagement in both product and process innovation domains, constitutes a highly relevant pathway to high turnover.
RQ2: Can combinations of innovation activity (presence/absence) and innovation types (product vs. business process) serve as sufficient conditions for high Innovation Scoreboard performance?
The fsQCA analysis (Table 3) revealed multiple configurations of innovation activity and types that are sufficient for achieving high EIScores. Notably, Solution 1 (Innov_active_ent_fs * Ent_prod_innov_fs * Ent_bus_proc_innov_fs, consistency 0.90, raw coverage 0.52) and Solution 4 (Innov_active_ent_fs * Prod_bus_proc_innov_ent_only_fs * Ent_bus_proc_innov_fs * Bus_proc_innov_ent_only_fs, consistency 0.96, raw coverage 0.45) showed strong associations and significant unique coverage. This confirms that specific combinations involving both the presence/absence of general innovation activity and the particular types of innovation pursued (product, process, or combinations) are indeed sufficient conditions for high national Innovation Scoreboard performance.

4. Conclusion

This study investigated the complex relationships between regional context, specific innovation strategies, and firm performance, examining how these factors combine to influence total net turnover and overall national innovation capability (EIScore). Utilizing data from the CIS2022 and the EU Innovation Scoreboard, the analysis provides several key insights.
The most significant conclusion is that a strategic approach combining broad innovation activity with a focus on both product and business process innovation is consistently associated with higher total net turnover at the firm level and higher national innovation scores. While potentially more prevalent or effective in certain contexts (such as the Nordic region, based on existing literature), the strong performance associated with this combined approach suggests its general importance for firms seeking revenue growth and for nations aiming to enhance innovation capacity.
Furthermore, the findings highlight that specific configurations blending product and business process innovation significantly contribute to superior innovation performance (EIScore), often irrespective of the specific regional context within Europe. This underscores the intrinsic value of pursuing integrated innovation strategies to drive economic, societal, and potentially environmental development, thereby improving overall firm and national performance.
These conclusions resonate with aspects of prior research but offer a unique perspective by applying fsQCA to large-scale datasets, revealing configurational pathways rather than solely linear effects. The regional insights, while based on national-level data, suggest that factors fostering combined innovation types are crucial. While general trends were observed, the lower unique coverage of some configurations indicates the likely influence of unmeasured variables (perhaps policy details, specific market structures, or cultural factors) that warrant further investigation.
This study is subject to limitations, primarily the relatively small number of countries (n=28) for cross-national comparison and the potential influence of variables not included in the datasets. However, its contribution lies in demonstrating the power of specific innovation configurations across different performance dimensions.
For researchers, these findings emphasize the need to consider regional context and configurational effects when studying innovation effectiveness. Future work should explore the role of specific government policies, industry characteristics, and organizational culture using more granular data or comparative case studies. Longitudinal studies are also needed to understand the long-term impacts. For policymakers, this study underscores the importance of fostering ecosystems that encourage and support firms in developing capabilities for both product and business process innovation. For businesses, the results encourage consideration of integrated innovation strategies, balancing product development with process improvements, while remaining mindful of the local economic and regulatory environment.
In summary, this research provides compelling evidence of the complex interplay between regional context, innovation strategies, and performance. The findings reveal that firms proactively engaging in strategies combining product and business process innovation are frequently better positioned for enhanced turnover and contribute to stronger national innovation performance. The implications are significant for researchers, policymakers, and businesses seeking to optimize innovation for sustainable success.

Author Contributions

Henry Efe Onomakpo Onomakpo: Conceptualization, Investigation (Literature review; fsQCA analysis), Methodology (fsQCA software version 4.1), Writing – Original Draft.

Funding

This research received no specific grant from any funding agency in the public, commercial, or not-for-profit sectors.

Data Availability Statement

The raw data analyzed in this study were obtained from publicly available sources: 1. The Community Innovation Survey (CIS) data are available from Eurostat at: https://ec.europa.eu/eurostat/databrowser/view/inn_cis13_yreg_ip/default/table?lang=en 2.The European Innovation Scoreboard (EIS) data are available at: https://research-and-innovation.ec.europa.eu/statistics/performance-indicators/european-innovation-scoreboard_en Access to these original data sources does not require a subscription. The processed data and analytical code (fsQCA software version 4.1 for data manipulation/calibration) generated during the current study are available from the corresponding author upon reasonable request and will be deposited in the journal’s repository upon publication. Permanent access details [e.g., DOI or specific URL] will be provided at that time.

Acknowledgments

The author acknowledges the support of the Faculty of Economics and Business during the preparation of this manuscript.

Conflict of Interest

The author declares no conflicts of interest.

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Table 1. Descriptive statistics of key variables.
Table 1. Descriptive statistics of key variables.
Variable Min. 1st Qu. Median Mean 3rd Qu. Max.
Innov_active_ent 8.8 39.7 51.4 47.86 57.4 70.3
Prod_innov_ent_only 0.1 3.4 4.9 5.124 6.8 12.1
Ent_prod_innov 0 15 23.6 21.96 30.1 46.6
Prod_bus_proc_innov_ent_only 8.5 35.9 45.8 44.15 53.8 65
Ent_bus_proc_innov 4.4 34 40.8 39.57 46.2 61.6
Bus_proc_innov_ent_only 1.3 15.5 18.2 17.62 20.6 28.6
Total_Net_Turnover 0 31.9 44.3 41.62 53.9 67.2
EIScore 35.4 69.6 92.03 93.07 115.7 136.52
Table 2. Fuzzy-Set Qualitative Comparative Analysis (fsQCA) results of configurations leading to high total net turnover considering entrepreneurial and regional factors.
Table 2. Fuzzy-Set Qualitative Comparative Analysis (fsQCA) results of configurations leading to high total net turnover considering entrepreneurial and regional factors.
Configuration Expression Innov_active_ent_fs Ent_prod_innov_fs Prod_bus_proc_innov_ent_only_fs Ent_bus_proc_innov_fs Bus_proc_innov_ent_only_fs Raw Coverage Consistency
Innov_active_ent_fs * Ent_prod_innov_fs * Ent_bus_proc_innov_fs * * o * o 0.54 0.92
Ent_prod_innov_fs * Prod_bus_proc_innov_ent_only_fs * Ent_bus_proc_innov_fs * ~Bus_proc_innov_ent_only_fs o * * * ~ 0.28 0.80
Ent_prod_innov_fs * Prod_bus_proc_innov_ent_only_fs * ~Ent_bus_proc_innov_fs * Bus_proc_innov_ent_only_fs o * * ~ * 0.34 0.88
Innov_active_ent_fs * Prod_bus_proc_innov_ent_only_fs * Ent_bus_proc_innov_fs * Bus_proc_innov_ent_only_fs * o * * * 0.43 0.89
~Innov_active_ent_fs * Ent_prod_innov_fs * ~Prod_bus_proc_innov_ent_only_fs * ~Ent_bus_proc_innov_fs * ~Bus_proc_innov_ent_only_fs ~ * ~ ~ ~ 0.26 0.83
~Innov_active_ent_fs * ~Ent_prod_innov_fs * ~Prod_bus_proc_innov_ent_only_fs * ~Ent_bus_proc_innov_fs * Bus_proc_innov_ent_only_fs ~ ~ ~ ~ * 0.27 0.83
Additional Information Metric Value
Solution Coverage 0.90
Solution Consistency 0.84
Note: Outcome = High Total_Net_Turnover_fs. Algorithm = Quine-McCluskey. Consistency Cutoff = 0.80. Frequency Cutoff = 1. (*) = Condition Present; (~) = Condition Absent; (o) = Condition Don't Care (Absent/No Influence in this path). Raw Coverage indicates the proportion of the outcome explained by each path; Unique Coverage indicates the proportion explained solely by that path; Consistency measures the reliability of the path leading to the outcome. Values rounded for presentation.
Table 3. Configurations leading to high innovation scores. Results from Fuzzy-Set Qualitative Comparative Analysis (fsQCA).
Table 3. Configurations leading to high innovation scores. Results from Fuzzy-Set Qualitative Comparative Analysis (fsQCA).
Configuration Expression Innov_active_ent_fs Ent_prod_innov_fs Prod_bus_proc_innov_ent_only_fs Ent_bus_proc_innov_fs Bus_proc_innov_ent_only_fs Raw Coverage Consistency
Innov_active_ent_fs * Ent_prod_innov_fs * Ent_bus_proc_innov_fs * * o * o 0.52 0.90
Ent_prod_innov_fs * Prod_bus_proc_innov_ent_only_fs * Ent_bus_proc_innov_fs * ~Bus_proc_innov_ent_only_fs o * * * ~ 0.31 0.90
Ent_prod_innov_fs * Prod_bus_proc_innov_ent_only_fs * ~Ent_bus_proc_innov_fs * Bus_proc_innov_ent_only_fs o * * ~ * 0.34 0.91
Innov_active_ent_fs * Prod_bus_proc_innov_ent_only_fs * Ent_bus_proc_innov_fs * Bus_proc_innov_ent_only_fs * o * * * 0.45 0.96
Additional Information Metric Value
Solution Coverage 0.80
Solution Consistency 0.87
Note: Outcome = High EIScore_fs. Algorithm = Quine-McCluskey. Consistency Cutoff = 0.89 (Note: Original text consistency was 0.87, cutoff likely 0.89 or 0.90 based on results). Frequency Cutoff = 1. (*) = Condition Present; (~) = Condition Absent; (o) = Condition Don't Care (Absent/No Influence in this path). Values rounded.
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