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Unpacking the sustainable performance in the business ecosystem: Coopetition strategy, open innovation, and digitalization capability

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Abstract

This study aims to examine the mediating role of open innovation and the moderating effect of digitalization capabilities in the relationship between coopetition strategy and sustainable performance in the Belt and Road Initiative (BRI), which offers a coopetitive climate and is the most widely recognized business ecosystem. We conducted an empirical analysis using the partial least squares (PLS) structural equation model (SEM) based on 520 firm datasets from multiple hubs of BRI. The results show that open innovation partially mediates the relationship between coopetition strategy and sustainable performance. The results also indicate that digitalization capability significantly moderates the relationship between coopetition strategy and open innovation. However, there was insignificant moderating effect between coopetition strategy and sustainable performance of digitization capability. We believe that our research, which is based on the dynamic capability perspective, provides a structured perspective and understanding of how and why coopetition strategy, open innovation, and digitalization capabilities can be leveraged to achieve a firm's sustainable performance in the BRI.
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Unpacking the sustainable performance in the business ecosystem: Coopetition strategy,
open innovation, and digitalization capability
Min-Jae Lee*
Assistant Professor
International Trade & Logistics
Mokwon University
Daejeon 35349, South Korea
E-mail: mjlee@mokwon.ac.kr
Tel: +82-42-829-7741
Taewoo Roh**
Associate Professor
School of International Studies
Hanyang University
222 Wangsimni-ro, Seongdong-gu, Seou 04763, South Korea
E-mail: twroh@hanyang.ac.kr
Tel: +82-2-2220-1734
* First author
**Corresponding author
The manuscript was accepted by Journal of Cleaner Production on August 8, 2023.
Data Availability Statements: Data available on request from the authors
Funding: This research received no external funding.
Acknowledgments: This work was supported by the research fund of Hanyang University
(HY-202300000001148) and Mokwon University Research Grants.
Conflicts of Interest: The authors declare no conflict of interest.
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Unpacking the sustainable performance in the Belt and Road Initiative: Coopetition
strategy, open innovation, and digitalization capability
Abstract
This study aims to examine the mediating role of open innovation and the moderating effect of
digitalization capabilities in the relationship between coopetition strategy and sustainable
performance in the Belt and Road Initiative (BRI), which offers a coopetitive climate and is
the most widely recognized business ecosystem. We conducted an empirical analysis using the
partial least squares (PLS) structural equation model (SEM) based on 520 firm datasets from
multiple hubs of BRI. The results show that open innovation partially mediates the relationship
between coopetition strategy and sustainable performance. The results also indicate that
digitalization capability significantly moderates the relationship between coopetition strategy
and open innovation. However, there was insignificant moderating effect between coopetition
strategy and sustainable performance of digitization capability. We believe that our research,
which is based on the dynamic capability perspective, provides a structured perspective and
understanding of how and why coopetition strategy, open innovation, and digitalization
capabilities can be leveraged to achieve a firm’s sustainable performance in the BRI.
Keywords: business ecosystem, coopetition strategy, open innovation, digitalization capability,
sustainable performance, belt and road initiative
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1. Introduction
The Belt and Road Initiative (BRI) is a business ecosystem that has been designed to
strengthen partnerships among participants and accelerate sustainable development along the
historic Silk Road route. The BRI countries are primarily in the middle or lower stages of global
value chains, and they often face challenges related to inefficient resources, environmental
pollution, biodiversity loss, and eco-degradation (Pagliuca et al., 2022). There is a need for
initiatives encouraging sustainable consumption and production to satisfy the global climate
governance and objectives for carbon neutrality in BRI countries (Chen et al., 2020; Jo et al.,
2015). Therefore, firms participating in BRI are inevitably induced to enhance sustainable
performance, including cleaner production and social values as well as economic growth, and
to form a coopetitive climate regardless of the host country (Liu et al., 2020; Sheraz et al.,
2022). In this context, firms in the BRI are expected to pursue a coopetition strategy to
harmoniously enhance sustainable performance not only in terms of economic growth but also
in terms of creating social values, including improvements to environmental problems (Niesten
et al., 2017; Spreitzer and Porath, 2012).
Coopetition refers to a competitive strategy wherein growth and profits are pursued by
simultaneously combining the advantages of cooperation and competition: “War and Peace-
simultaneously” (Nalebuff and Brandenburger, 1997, p. 28). This strategy is based on the idea
that total value can be created and shared by competitors engaging in cooperation, finding new
ways to expand overall market opportunities, and reducing the threats faced by all firms
involved (Christ et al., 2017; Nalebuff and Brandenburger, 1997). In the contemporary business
environment, competition and cooperation are blended among firms, even rivals (Arthur, 1996;
Nalebuff and Brandenburger, 1997; Roh et al., 2022). From a business ecosystem perspective,
firms can increase their competitive advantages by sharing resources with various partners
while still competing to create superior value (Moore, 1993). Here, firms design coopetition
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strategies to encourage interaction among ecosystem participants, thus driving sustainable
innovation (Kang et al., 2022; Madsen, 2020). To create an innovative business ecosystem that
satisfies sustainable development (Liu et al., 2020), the BRI is particularly focused on the role
of the Chinese government in preparing for the future of the innovation system (Chesbrough et
al., 2021); the outbreak of COVID-19 and the subsequent economic crisis revealed the need
for a BRI that is robust, green, and inclusive. Countries along the BRI are under enormous
carbon emission pressures, and controlling carbon emissions in those countries is considered
to be more crucial than doing so in developed countries (Roh et al., 2014; Sheraz et al., 2022).
Amidst these obstacles, the BRI offers a chance to encourage renewable energy and green
industry growth (e.g., the Green Silk Road Fund and the Belt and Road Green Investment Fund)
(Liu et al., 2022). Still, there is a need to further elucidate how firms facing the coopetitive
climate could share coopetition strategies to achieve better sustainable performance. Therefore,
we contend that the BRI is an innovative business ecosystem with significant potential to
advance global economic integration while addressing infrastructural gaps, social inequity, and
climate change, and this study investigates how firms participating in BRI can achieve
sustainable performance by pursuing coopetitive strategies.
Existing research has emphasized firms’ capabilities to achieve competitive advantages in
this business ecosystem by seeking hints from an RBV (Mishra and Yadav, 2021; Savino and
Shafiq, 2018). However, some argue that domestic and multinational firms investing in BRI—
a venue for cooperation and competition—may need to understand open innovation strategy
using multiple sources of knowledge in the context of coopetition. Open innovation refers to a
strategy in which firms effectively utilize external resources and paths as well as internal
resources in the business innovation process (Chesbrough, 2010). In a business ecosystem,
firms consider the innovative path to achieving sustainable goals in the context of intricate
relationship networks with participants of divergent identities (Gawer, 2022; Gawer and
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Cusumano, 2014). Chesbrough and Appleyard (2007) stated that firms with open innovation
capability could access external innovation sources without investing in expensive processes;
thus, open innovation draws increased attention to achieving sustainable performance by
linking the knowledge reservoirs of ecosystem participants (Roh et al., 2021). Based on these
discussions, Chesbrough (2010) suggested that, by allowing a firm to accommodate ideas from
external partners and deliver R&D results to other firms, open innovation could enhance
sustainable competitive advantage among all participating firms. Jacobides (2019) emphasized
that the firms’ economic sustainability in the business ecosystem requires open innovation
strategies. As such, the open innovation approach suggests that, since the intensified
complexity of the business environment puts pressure on firms to secure capabilities and
resources for sustainable competitive advantage, they inevitably leverage external knowledge
sources through a collaborative technology network (Yang and Roh, 2019). However, since
there is little research on how open innovation strategies operate sustainably in a BRI context,
there is a need to further understand the roles of coopetition and open innovation between
participating firms.
Meanwhile, as digital technology plays an increasingly important role in improving
business efficiency and reducing carbon emissions with the recent spread of digitalization, its
capabilities are attracting the attention of practitioners and policymakers as a driving force in
the sustainability of firms in the BRI. We describe digitalization capability as improving or
building the competencies required to respond to rapidly changing environments by employing
digital technologies and resources. This digitalization capability has piqued the curiosity of
both academics and practitioners (Ritter and Pedersen, 2020) because it allows firms to
improve process efficiency and resource management (Pagani and Pardo, 2017) and enables
both economically and ecologically sustainable performance (ElMassah and Mohieldin, 2020).
Digitalization capabilities have also unquestionably emerged as a major factor in attaining
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sustainable performance, as demonstrated by the fact that various firms are leveraging digital
technology and associated research to enhance their competitive advantage. For instance, Raut
et al. (2019) emphasized the importance of digital technology to achieve sustainable
performance as big data analysis encourages the use of preservatives as a standard and helps
reduce pollution, and can ensure better economic performance by increasing revenue,
increasing market share, and reducing compensation/penalty for ecological accidents. Kamble
et al. (2020) points out that digital technologies (internet of things, blockchain and big data
technologies) around the agricultural supply chain contribute to sustainable development by
leading to a data-driven digital supply chain environment and increasing economic, social, and
environmental performance. Gregori and Holzmann (2020) argued that digital technology
should be leveraged to innovate business models to achieve social and environmental values to
enhance the sustainability of a firm. In this context, we propose that digitalization capability
can accelerate sustainable performance, while suggesting that each unit increase in digital
transformation is associated with higher economic and environmental performance (Chen et
al., 2015; Dubey et al., 2020; Li et al., 2020). In other words, digitalization capabilities can
serve as a remedy to achieve sustainable growth in the countries and regions along the BRI
where economic growth and environmental conservation conflicts are emerging. This issue is
even more critical today, when innovative sustainable processes have become increasingly
more open and come to require greater resources in various implementation phases to capture
and transfer knowledge within and outside a firm’s boundaries (Urbinati et al., 2020).
Nevertheless, the current literature in these fields does not provide a structured view of how
and why digitalization capabilities are used to achieve sustainable growth from an open
innovation perspective. It is therefore essential to identify the interactive relationship between
coopetition strategy, open innovation, digitalization capability, and sustainable performance in
the BRI.
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RQ1. Does open innovation play a mediating role in the influence of coopetition strategy
on sustainable performance in BRI?
RQ2. How does corporate digitalization capability increase sustainable performance by
bolstering coopetition strategy and open innovation?
To address the research gaps mentioned above, this study aims to propose how coopetition
strategy and open innovation affect sustainable performance and whether digitalization
capability can affect overall sustainability in the BRI context. Put another way, the greater the
digital capabilities of firms in the business ecosystem, the more coopetition strategies may ease
the knowledge sourcing necessary in open innovation while also addressing the information
asymmetry problem of Sustainable Development Goals (SDGs), which is critical to sustainable
performance (Roh et al., 2021; Yang and Roh, 2019). To explore the relationship between firms’
capabilities within the business ecosystem and sustainable performance, we surveyed firms
participating in the BRI on their capabilities regarding competition, cooperation, openness, and
digital while examining how those capabilities affect sustainable and cleaner performance.
By filling in the research gaps addressed in the research questions above, this study can
make the following three contributions: First, from a business ecosystem perspective, we will
suggest not only ways to improve economic performance but also an integrated framework
with which to resolve social problems (e.g., famine, polluted water, and inequality) and realize
environmental values (Wilson and Post, 2013). Second, we put forth the importance of an open
innovation strategy for a firm’s sustainable growth in the face of social demands to achieve
shared value with ecosystem participants. Third, since these participants have faced the rapid
digitization that emerged with the COVID-19 pandemic, finding a solution may contribute to
the sustainability of the BRI. Ultimately, this study can contribute to filling the gap between
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existing theoretical discussions and reality as well as designing strategies and ecosystem
structures to improve corporate sustainability.
2. Literature review
2.1. Development of dynamic capabilities in BRI
The dynamic capabilities (DCs) perspective serves as the theoretical foundation for our
research. DCs are considered to be the ability of an enterprise to consolidate and change its
resource base to react to changing environments (Teece et al., 1997). The DCs theory provides
an understanding of the importance of a firm’s capabilities in shaping its strategic behavior and
performance (Teece, 2007; Teece et al., 1997). The DCs theory states that, when developing
core competencies in pursuit of a competitive advantage in rapidly changing business
environments, firms should integrate, nurture, and reorganize internal and external resources
in response to environmental changes. DCs theorists (Eisenhardt and Martin, 2000; Teece et
al., 1997) argue that the more complex and changing business ecosystems are, the more
important these frameworks are in understanding the importance of innovation and achieving
sustainable growth. Therefore, some studies based on DCs theory review sustainable growth
methods based on a firm’s competence and strategic behavior, and these include innovation—
i.e., not accepting the status quo—in the business ecosystem (Liang et al., 2022). For instance,
Brush et al. (2001) pointed to the establishment of appropriate resource-based strategies in
changing business environments as a key aspect of sustainable growth, and Bogers et al. (2019)
found that firms that lack DCs are more likely to avoid establishing innovation-related
strategies. Moreover, a number of empirical studies have found positive relationships between
firms’ DCs and their economic and social performance (Eikelenboom and de Jong, 2019; Hong
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et al., 2018; Mohaghegh et al., 2021). This suggests that the development of DCs is a likely
mechanism for achieving a sustainable performance effect in the business ecosystem.
In this vein, for firms to create sustainable performance in the BRI, they can secure a
competitive advantage from a DCs perspective (Bogers et al., 2019). Christ et al. (2017)
assumed that fiercer competition gave firms more opportunities to foster innovation and
achieve long-term performance by developing and modifying their competition strategy.
According to Kennedy et al. (2017), it is more effective for a firm to share and combine
resources with other participants to create value (or performance) rather than work alone as a
strategic actor to achieve a competitive advantage. To elaborate, in a dynamic and evolving
business ecosystem involving various participants, firms may generate and capture new value
with a much more complex model of cooperation and competition (Wu et al., 2020). The BRI
is a battlefield wherein participants of various nationalities compete, and we argue that the
coopetition strategy and open innovation will play a vital role in this respect. Moreover,
drawing upon the characteristics of the DCs perspective, we propose that the digitalization
capability can generally be viewed as a prototypical DC. Raut et al. (2019) found that
comprehension of digitalization capabilities may support sustainable performance (Chaudhuri
et al., 2022; Kamble et al., 2020). Therefore, we propose that firms can trigger innovation and
achieve a sustainable competitive advantage by establishing strategies that are compatible with
the business ecosystem and fostering DCs.
2.2. Coopetition strategy and sustainable performance
To successfully realize coopetition in the business ecosystem, it is important for firms to
establish an appropriate strategy for how the ecosystem’s competitive structure will evolve and
whether the firm’s competitive advantage can be maintained (Brandenburger and Nalebuff,
2021). Since the BRI is a dynamic and evolving community with diverse participants, it
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requires firms to create and capture values through a more sophisticated coopetition
configuration. Therefore, firms need to design coopetition strategies that can match the
fundamental goal and orientation of the BRI (Cuiyun and Chazhong, 2020). Firms in the BRI
ultimately compete with each other for profits but still work together to increase economic
sustainability and improve social outcomes, such as environmental protection. Further,
institutional actors (e.g., the Asian Development Bank and the World Bank) advise BRI
participants to adhere to more rigorous environmental and social compliance criteria defined
worldwide (Sheraz et al., 2022). Under these circumstances, some scholars (Bacon et al., 2020;
Hannah and Eisenhardt, 2018; Xin et al., 2022) emphasize the importance of cooperative
strategies for firms to achieve sustainable performance in dynamic ecosystems such as the BRI.
Prior studies have pointed out how important it is to establish a coopetition strategy for
firms to achieve sustainable performance in the business ecosystem (Bouncken et al., 2018;
Christ et al., 2017; Manzhynski and Figge, 2020; Stadtler, 2018). According to Christ et al.
(2017), “sustainability-related coopetitive strategies” provide synergy by which firms can
achieve better economic and social value. Munten et al. (2021) highlighted the importance of
the coopetition strategy in strengthening a firm’s sustainability. Mirzabeiki et al. (2021) pointed
out that coopetition can promote sustainable innovation, as firms share complementary
capabilities to develop friendly environmental technologies. Limoubpratum et al. (2015)
confirmed that the sharing of distribution or transportation facilities among competitors reduces
greenhouse gas emissions. (Gernsheimer et al., 2021) also argued that coopetition through
double sourcing reduces greenhouse gas emissions, thus improving sustainable performance.
Further, some empirical research has shown that coopetition has positive impacts on
competitive advantage (Bouncken and Fredrich, 2012), financial performance (Gnyawali and
Park, 2011; Mantena and Saha, 2012), leveraging economies of scale (Bengtsson and Kock,
2000), green innovation (Xin et al., 2022), growth and efficiency (Peng et al., 2012), and energy
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saving levels (Hafezalkotob, 2017).
As such, the relevant literature shows that a coopetition strategy can improve a firm’s
sustainable performance by increasing their overall market opportunities and providing new
opportunities to reduce the threats faced by all firms involved (He, 2008; Walley, 2007). To
achieve sustainable performance, which includes not only economic growth but also social
value, a coopetition strategy that will adapt and lead to changing management trends in a
business ecosystem can be a decisive factor. Based on the above discussions, we put forward
the following hypothesis.
H1. The coopetition strategy of a firm in the BRI positively affects sustainable performance.
2.3. Coopetition strategy and open innovation
Existing studies have found that a firm’s innovation is related to its economic and
environmental sustainability, and they have emphasized these dynamics in cooperation and
competition intensity (Gnyawali and Park, 2011; Park et al., 2014; Yami and Nemeh, 2014).
Accordingly, some studies have begun to link coopetition with innovation (Bouncken et al.,
2016; Bouncken et al., 2018; Ritala and Sainio, 2014). Gnyawali and Park (2011) suggested
that high levels of competition and cooperation (i.e., coopetition) increase firm innovation.
Bouncken et al. (2015) found that coopetition shares positive relationships with open
innovations that provide mechanisms for organizational learning, as corporate innovation is
more rooted in an organization’s capability to access external knowledge sources. Studies have
also shown that coopetition has a significant effect on incremental and radical innovation
(Bouncken and Fredrich, 2012; Yami and Nemeh, 2014), technological innovation (Ritala and
Sainio, 2014), and open innovation (Bacon et al., 2020; Enkel et al., 2009). Coopetition is a
critical determinant of open innovation in the multi-sector (Mention, 2011).
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Pursuing a strategy of coopetition in the BRI can spark open innovation based on two
fundamental reasonings: First, a coopetition strategy provides complementary resources to
multiple participants in a business ecosystem to bolster open innovation (Lew and Sinkovics,
2013). Participants can obtain access to a greater variety of resources and knowledge in the
ecosystem. In this vein, participants can learn from each other by sharing multilateral
knowledge to receive BRI benefits (Qi et al., 2019). In other words, firms pursuing a
coopetition strategy in the BRI can promote open innovation by exchanging resources and
knowledge with ecosystem participants and supplementing their insufficient capabilities.
Second, a firm can induce open innovation by reducing uncertainty about their business
practices by interacting with ecosystem participants in terms of a coopetition strategy (Masucci
et al., 2020). In a business environment, firms may find it difficult to achieve business progress
due to political, economic, and legal differences. In unfamiliar environments, firms attempt to
manage risks and secure legitimacy in terms of institutional aspects by pursuing coopetition
between ecosystem participants (Roh et al., 2021). In this sense, firms can grow their business
by increasing openness with ecosystem participants who can influence institutionalization to
achieve legitimacy. Through the above discussion, we expect firms to pursue a coopetition
strategy to encourage open innovation in a business ecosystem.
H2. The coopetition strategy of a firm in the BRI positively affects open innovation.
2.4. Open innovation and sustainable performance
Open innovation can be generated through linkages with various knowledge sources,
which are essential for achieving a firm’s sustainable performance (Bogers et al., 2018; Roh et
al., 2021). Opportunities for new innovations can increase the number of participants attracted
to the business ecosystem, and various innovations can accordingly be created (Chesbrough
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and Bogers, 2014). To create sustainable value in the BRI, firms should gather and share the
capabilities and resources of various stakeholders, such as firms, citizens, and the government
(Chesbrough et al., 2021). By enabling firms to accurately identify the BRI and encourage
participants in the ecosystem to participate in problem-solving, they can achieve sustainable
performance. Chesbrough (2010) argued that firms participate in the open innovation process
with the goal of economic compensation and realize public interest values such as solving
social problems and civic awareness (West et al., 2014). In other words, open innovation is a
valuable tool for ecosystem management.
Existing studies have shown that participants in the business ecosystem could achieve
more sustainable performance through open innovation (Gassmann et al., 2010; Greco et al.,
2015; West et al., 2014). For example, Wilson and Post (2013) explained that firms
participating in open innovation activities could directly or indirectly impact the creation of
social values. According to West et al. (2014), open innovation can create business value
beyond interactions with external actors and simultaneously contribute to creating social value.
Rauter et al. (2019) revealed that an increase in cooperation based on open innovation helps
firms achieve sustainable innovation performance and economic performance. Several studies
have also found that an open innovation approach (e.g., entrepreneurial orientation and
dynamic capability) helps improve a firm’s environmental sustainability in the business
ecosystems (Roh et al., 2021). Schaefer et al. (2015) suggested that entrepreneurial orientation
plays a crucial role in achieving better financial performance while minimizing environmental
impacts. Jiang et al. (2018) emphasized that proactive orientation is a dynamic capability that
helps firms achieve sustainable growth.
Altogether, we suggest that firms can create economic and social values by accurately
identifying the business ecosystem in which they are located and actively innovating on their
business model through open innovation to achieve sustainable performance.
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H3. Open innovation of a firm in the BRI positively affects sustainable performance.
2.5. The moderating role of digitalization capability
Digitalization capability allows firms to better sense and seize business opportunities by
using new digital devices and platforms to collect data on changing customer behavior across
contexts and markets (Nylén and Holmström, 2018). By enabling resource reconfiguration
(Warner and Wäger, 2019), digitalization capability helps firms accomplish more diverse and
quicker reactions (e.g., strengthening current procedures and resource efficiency), rearranges
the relevant business processes involved in developing a new market, and allows firms to grow
and gain extra advantages (Mikalef et al., 2018). For instance, Raut et al. (2019) empirically
confirmed that utilizing big data analytics can affect sustainable business performance among
Indian manufacturers. Paul et al. (2021) showed that blockchain technology has a significantly
positively effect on sustainable performance in the Indian tea industry.
Moreover, digitalization allows businesses to collect real-time operational data for the
remote monitoring of machinery, green practices, forecasting, and greenhouse gas emissions
while strengthening environmental performance (Chiarini, 2021; Li et al., 2020). Nayal et al.
(2022) found that digitalizing supply chains through AI and IoT adoption promotes a circular
economy. Similarly, when firms leverage their digitization capabilities to achieve sustainable
performance, they typically create digital platforms, in the process engaging with divergent
participants and fostering open innovation (Gawer, 2022; Gawer and Cusumano, 2014; Van
Alstyne et al., 2016). Eckhardt et al. (2018) proposed that firms use digitalization capabilities
to design and structure digital platforms that encourage open innovation. Firms can function
better because of the strong open access effect offered by digitization capabilities (Parida et al.,
2019). Some studies have shown that firms promote open innovation based on digital platforms,
and that digitalization capabilities are related to sustainable performance (Guo and Xu, 2021;
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Li, 2022). Overall, we hypothesize that firms can distinguish themselves from their rivals more
swiftly through digitalization capabilities, thus leading to better sustainable performance and
open innovation.
H4a. The digitalization capability of a firm in the BRI moderates a positive relationship
between open innovation and sustainable performance.
H4b. The digitalization capability of a firm in the BRI moderates a positive relationship
between coopetition strategy and sustainable performance.
[Insert Figure 1 around here]
3. Research methodology
3.1. Sample and data collection
The aim of the data collection in this work was to find firms that engage in coopetition
across all types of industries that are invested in BRI. According to the China Belt and Road
Initiative Investment Report, there were more than 11,000 firms established in 63 countries
along the BRI route at the end of 2020. Because it is difficult to contact individual firms during
a survey, to obtain the data most efficiently we selected WJX, a specialized research company.
We asked WJX to randomly select 1,000 firms that invested in BRI and to conduct a survey of
firms that co-produce, co-research, and co-market with BRI participants.
We used Chinese questionnaires to collect the data used in this research. The questionnaire
was prepared by modifying it appropriately for this study based on the items used in the
previous study. It was first written in English and then translated into Chinese with the help of
a professional bilingual translator. Once the draft questionnaire was developed, a pilot test was
conducted to check the appropriateness of each question. Top managers from XLY Technology
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and Huiyu, along with professors studying the strategies of Chinese firms, participated in the
preliminary investigation. They confirmed that most of the questions were easily understood,
but they also advised us to replace some words with better terms. Their suggestions were
reflected in the final version.
The finalized questionnaires were emailed to firm managers (i.e., CEOs, vice presidents,
general managers, and senior directors) with the help of WJX; telephone contacts were also
made to encourage survey participants to answer and increase response rates. We used only one
response per firm. The survey was conducted over two months from October to November
2021. Altogether, we collected 520 usable questionnaires, thus achieving a 52 percent response
rate.
3.2. Statistical analysis
This study tested the hypothesis using PLS-SEM because it has the following advantages:
First, since the PLS-SEM focuses on the explanation and prediction of endogenous latent
variables, it has the advantage of its application in complex research models being widely
accepted without needing to assume a specific distribution in the estimation. Second, the
prediction of the endogenous latent variable (i.e., dependent variables) is highly plausible since
PLS-SEM estimates the path coefficient to maximize the explanatory power by minimizing the
error term of the endogenous latent variable. Third, no assumptions are made about the sample
distribution, which allows PLS-SEM to easily include both reflective and formative
measurement models. As a result, single or second-order latent variables composed of single
items can be applied without the problem of model identification. Since our study used three
second-order latent variables, PLS-SEM was particularly advantageous.
3.3. Variables and measurement
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All questionnaire items were measured using a 5-point Likert scale (1 point: strongly
disagree, 5 points: strongly agree). A coopetition strategy refers to a firm’s management
approach to leverage the benefits of cooperation and competition to achieve a competitive
advantage (Bengtsson and Kock, 2000; Luo, 2007; Nalebuff and Brandenburger, 1997). Here,
we created a new coopetition scale based on previous studies (Czakon et al., 2020; Riquelme-
Medina et al., 2022). Exemplary items regarding coopetition are “we often find valuable
partners amongst our direct competitors.” and “When we establish a relationship with business
ecosystem participants, competing fairly is very important.” Following Yang and Roh (2019),
we have identified eight sources of inbound and outbound knowledge from within a firm and
their effects on open innovation to business ecosystem participants (Chesbrough and Crowther,
2006; Chesbrough, 2006; Chesbrough and Appleyard, 2007). Exemplary items regarding open
innovation are “we license-in the technology (and patents) from outside.” and “we make a
license-out.” To measure digitalization capabilities, respondents’ perceptions were measured
through four items capturing how companies used digital technology (Nasiri et al., 2020).
Exemplary items regarding digitalization are “we aim to digitalize everything that can be
digitalized.” and “we aim at achieving information exchange with digitality.” Finally,
sustainable performance is considered an organization’s achievements regarding stakeholders’
expectations of economic and social performance, including environmental performance
(Carroll, 2021; Duanmu et al., 2018). Five items were used to assess the attainment of economic
performance through financial growth (Vickery et al., 2003; Wang et al., 2015). Social
performance was measured with four items for solving social and environmental problems and
social responsibility activities (Dey et al., 2020a; Long et al., 2017; Seman et al., 2019).
Exemplary items regarding sustainability are “our firm's growth in profit is better compared to
major industry competitors.” and “our firm reduces social inequality.”
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4. Results
4.1. Respondent firms’ profile
Table 1 describes the demographic characteristics of the 520 total samples used in this
study. In terms of firm size, the largest group with 175 samples (33.65%) was ‘more than 500
people’, followed in order by ‘less than 50 people’ with 142 (27.31%), ‘50-100 people’ with
90 (17.31%), ‘101-300 people’ with 68 (13.08%), and ‘301-500 people’ with 45 (8.65%). In
terms of firm assets, the groups with ‘less than $1 million’ and ‘$1-$10 million’ were the largest
groups with 172 samples (33.08%) and 141 samples (27.12%), respectively, together
accounting for more than half of all samples. There were 81 (15.58%) for ‘10-$100 million’,
55 (10.58%) for ‘$100 million-$1 billion’, and 71 (13.65%) for ‘more than $1 billion’.
[Insert Table 1 around here]
In terms of firm age, the samples were distributed in a relatively equal manner, with 143
(27.5%) being less than 5 years old, followed by 130 (25%) that were 5-10 years old, 117
(22.5%) that were 11-15 years old, and 130 (25%) that were more than 15 years. Regarding
industry, 299 samples were from manufacturing industries whereas 221 were from service
industries, respectively accounting for 57.5% and 42.5% of all samples. Finally, when the
samples were classified in terms of firm characteristics, private firms were the most common,
with 327 samples, thus accounting for 62.88% of the total samples. There were 121 samples
for state-owned firms, 37 for wholly foreign-owned firms, and 35 for Chinese-foreign joint
ventures, thus accounting for 23.27%, 7.12%, and 6.73%, respectively. By comparing
respondents’ attributes of early and late respondents using Chi2 and t-test to detect non-
response bias (Armstrong and Overton, 1977), we confirmed that there were no significant
differences between them (p > 0.05).
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4.2. Measurement assessment
In this study, acceptability was evaluated through reliability, convergence validity, and
discriminant validity verification, and observation variables having a standardized factor
loading of less than 0.7 were eliminated. As a result of this process, 37 observation variables
were selected. Table 2 presents descriptive statistics and confirmatory factor loadings for the
selected observed variables. The minimum value of standardized factor loading for each
observation variable was found to be 0.706, all exceeding the recommended level of 0.7 (Hair
et al., 2009). Therefore, this research model can be judged to have a high level of reliability.
[Insert Table 2 around here]
Table 3 lists Cronbach’s alpha coefficients, composite reliability, rho_A, AVE, and SQRT
(AVE). Cronbach’s alpha and composite reliability values are considered to have proper
internal consistency if they exceed the reference value of 0.7. Moreover, since all correlation
coefficients between latent variables were significantly positive (𝜌 > 0, p < 0.05), nomological
validity was verified (Hair et al., 2009).
[Insert Table 3 around here]
This research model found that Cronbach’s alpha, composite reliability, and rho_A were
all 0.9 or more, thus showing significantly higher values than the reference value of 0.7. Taken
together with the fac that all AVEs exceeded the standard value of 0.731, these results indicate
that our research model can be seen as securing reliability, consistency, and concentration
validity. The square root of the AVE of each latent variable is greater than each coefficient
between latent correlations while all HTMTs are less than 0.85; discriminant validity for all
latent variables is sufficiently obtained (Bentler and Raykov, 2000; Chin, 2013; Hair et al.,
2009; Henseler et al., 2016; Henseler et al., 2015).
20
4.3. Common method bias test
The dependent and independent variables were measured subjectively and simultaneously
by the same individual. The response may contain respondent’s bias in this scenario, thus
implying the probability or risk of common method variance. To address this issue, we
performed a single-factor analysis before a full-scale statistical estimation to determine whether
there was any common method bias. According to Podsakoff et al. (2003, p. 889), “One of the
most widely used techniques that have been used by researchers to address the issue of common
method bias is what has come to be called Harman’s one-factor (or single-factor) test.” The
principal component analysis on a single factor showed that the largest factor was 43.34%,
indicating that the common method bias of this study was of little concern (Podsakoff et al.,
2003). Second, the risk of multicollinearity in partial least squares caused by the overlapping
of similar variables was verified through VIF. The VIFs between all latent variables we used
ranged from 1.000 to a maximum of 3.048, meaning there were few multicollinearity problems
due to the 3.3 threshold (Kock and Lynn, 2012). Third, using the varied marker method to
examine the association by adding a theoretically irrelevant and statistically insignificant latent
variable as an exogenous variable to a constructed model, its correlation coefficients with our
latents were found to be lower than 0.2 (Lindell and Whitney, 2001).
4.4. Structural model assessment
We used a structural equation to reveal the effect between six first-order and three second-
order structures. The finding that each path’s coefficients and endogenous explanatory power
are greater than 0.8 indicates that coopetition strategy, open innovation, and sustainable
performance could function as second-order reflective latent variables (Becker et al., 2012;
Hair et al., 2018). We used a repeated indicator approach to configure the second-order latent
variables by including all first-order latent variables (Sarstedt et al., 2019).
21
[Insert Figure 2 around here]
Figure 2 shows the hypothesis, standardized hypothesis path, significance, and
explanatory power of this study. The path of sustainable performance (SP) in the coopetition
strategy (CS) was found to be statistically significant, and H1 was supported (β = 0.319, p <
0.001). The path coefficient from CS to open innovation (OI) was 0.766, the path was
significantly shown at the level of 0.001, and H2 was supported. The path from cooperation
and competition to the second-order structure—cooperation strategy—was significant at the
0.001 level. The path from OI to SP was statistically significant, and H3 was supported (β =
0.323, p < 0.001). The coefficient of the path to OI, in which inward innovation and outward
innovation are both second-order constructs, was statistically significant at 0.001. The
coefficients of the mediating effect of the digitalization capability (DC) on the paths of H1 and
H2 were 0.134 and 0.194, respectively. Although the mediating effect on the path of H1 was
not statistically supported, the mediating effect on the path of H2 was found to be significant
at 0.01. Therefore, H4a was supported whereas H4b was rejected. The explanatory powers (R2)
for endogenous latent variables were 58.6% for open innovation and 79.4% for sustainable
performance. Blindfolding was performed to examine the predictive relevance (Q2) of the
endogenous constructs; Q2 for open innovation is 0.538 and that for sustainable performance
is 0.668. Considering both R2 and Q2, our model’s predictive and explanatory power is
determined to be appropriate (Hair et al., 2017).
Figure 3 illustrates H4a and H4b, which concern the moderating effect of DC on the
positive effect of CS on OI. It shows that, in the positive relationship between CS and OI, the
slope of the graph is steeper when DC is high, while there is little change in the DC’s slope of
the relationship between CS and SP. Therefore, it can be seen that DC has an effective
moderating effect on the relationship between CS and OI.
22
[Insert Figure 3 around here]
The findings of comparing the direct and indirect impacts of the latent variables employed
were summarized. According to Table 4, CS → OI and OI → SP have direct effects of 0.766
and 0.323, respectively. CS → SP has both direct effects (0.319) and indirect effects (0.247),
and it has a greater direct effect. Table 4 lists the value of effect size (f2) simultaneously. f2
measures the contention of external variables in the research model. The criterion for effect
size of CS → OI and OI → SP path is medium (0.15 < f2 < 0.35).
[Insert Table 4 around here]
In this study, 5,000 replicates were conducted by using the bootstrapping method to verify
the mediating effect inherent in the model (Hair et al., 2017). As can be seen in Table 5, the
mediating effect of the CS→OI→SP path was 0.247.
[Insert Table 5 around here]
As a result of the confidence interval verification, it was found that the bias-correct
confidence interval did not contain 0, and the indirect effect was found to be significant at the
5% level. As a result of verifying partial and complete mediation through Baron and Kenny
(1986)’s three-step test, there was a significant partial mediation effect (p < 0.05). Moreover,
to verify the degree of mediation effect, according to Zhao et al. (2010)’s approach, the degree
of the CS→OI→SP path was 43.6% (i.e., partial mediation).
[Insert Figure 4 around here]
We measured sustainable performance as the second order combined with economic and
social performance. To more deeply examine the various potential effects of the dynamic
relationship between coopetition strategy, open innovation, and digitalization capability within
the BRI, we remeasured economic performance and social performance as first-order. As
23
shown in Figure 4, most hypotheses were supported. The moderating effect of digitalization
capability on the direct effect of coopetition strategy on social performance was found to be
insignificant, while its effect on economic performance was significant. In other words,
although this finding suggests that the economic performance pursued by the competitive
cooperative relationship increases as the focal firm’s digitalization capability increases, it is
irrelevant to the improvement of social performance. The fact that the moderating effect of
digitalization capability appeared the strongest when the coopetition strategy was oriented
toward open innovation suggests that it is more effective for firms to share digitalized
information rather than using offline meetings and field trips at BRI.
5. Discussion and conclusion
The main research issues of the BRI were linked and addressed in this study to unpack the
relationship between a firm's capability, strategy, and sustainable performance in DCs
perspective. This study also investigated the importance of a coopetition strategy to achieve a
firm’s sustainable performance, the mediating role of open innovation, and the moderating role
of digitization capability. First, we have developed and investigated a series of hypotheses by
exploring BRI, a widely known business ecosystem, to delve into the strategic scenarios
required to achieve a firm’s sustainable performance. In line with prior research demonstrating
that firms can achieve competitive advantages while pursuing growth and profits by pursuing
cooperation rather than solely engaging in confrontation between competitors (Nalebuff and
Brandenburger, 1997; Riquelme-Medina et al., 2022; Walley, 2007), we verified whether the
coopetition strategy of firms running businesses in BRI could enhance sustainable performance.
Our results indicate that the coopetition strategy plays an important role in enhancing
sustainable performance, which means that firms need to strengthen competition based on
cooperation with ecosystem participants to achieve a competitive advantage in BRI. In
24
particular, this study supplements the existing results concentrated on financial performance
obtained in previous coopetition studies by including social and environmental performance.
Second, we proposed that, given the contemporary shift and tensions encircling the
business ecosystem, applying open innovation approaches connected to various ecosystem
participants can serve as a crucial vehicle for enhancing a firm financial and social performance.
Our findings show that firms in BRI are more likely to obtain sustainable performance when
their coopetition strategies gain momentum through open innovation. This suggests that a
firm’s open innovation plays a vital role in fostering sustainable and cleaner performance based
on the business ecosystem.
Third, firms in BRI are innovating their businesses and improving sustainable
performance by using new digital channels and devices, such as software platforms and web
services (Gawer, 2022; Gawer and Cusumano, 2014; Wen et al., 2021). We suggested that firms
can achieve better sustainable performance and open innovation through digitalization
capability, and empirical results supported the notion that the positive effect of a coopetition
strategy on open innovation is promoted by digitalization capability (Costa and Matias, 2020).
However, digitalization capability is found to have a nonsignificant influence on the effect of
the coopetition strategy on sustainable performance. Cohen (2018) pointed out that the
electricity usage of firms due to digitalization is rapidly increasing every year, which is a major
factor that hinders sustainability. This implies that the effect of digital competence on
sustainability per se may tend to be offset. In this respect, Warner and Wäger (2019)
demonstrated how digitalization capability influences open cooperation because the digital
scouting and agility generated for each function boost the sensing of external information about
the surrounding environment. This therefore indicates that digital transformation is effective
when a firm implements a strategy coupled with external informants to increase sustainable
performance.
25
5.1. Theoretical implications
This study has the following theoretical implications: First, it adds to the literature on how
a firm can create sustainable performance in BRI. We have demonstrated the importance of a
firm’s coopetition strategy in achieving sustainable performance in a business ecosystem.
Therefore, our findings emphasize the significance of a coopetition strategy for achieving a
firm’s sustainable performance in BRI and confirm previous research that urges business
ecosystems to embrace a coopetition-based type of logic (Dyer et al., 2018; Ranganathan et al.,
2018; Struckell et al., 2021). These results also add to the theoretical literature on sustainable
development by comprehensively measuring social performance (including environmental
value) and economic performance, which is required for firms to improve competitive
advantages (Battamo et al., 2021; Liu et al., 2020). Previous studies examining this relationship
mostly concentrated on achieving goals in finance and innovation rather than considering that
a firm’s competitive advantage may be derived from social and environmental values (Martí
nezFerrero and FriasAceituno, 2015; Santis et al., 2016; Tien et al., 2020). Thus, we enrich
the literature on sustainable competitive advantage by associating social and environmental
values with unexplored antecedents in order to capture and quantify firm-level outcomes.
Second, we contribute to the open innovation literature in the business ecosystem by
identifying how open innovation is positively associated with sustainable company
performance. Our study examines the impact of coopetition strategy on open innovation and
the benefits that such open innovation provides to a firm’s sustainable performance. The
empirical analysis results of firms in BRI showed that the coopetition strategy has a positive
effect on open innovation, and that open innovation has a significant effect on sustainable
performance. This is the result of identifying the importance of open innovation in enhancing
a firm’s sustainable performance in BRI, which contributes to existing literature that
26
emphasizes open innovation to increase the sustainability of the business ecosystem
(Chesbrough et al., 2014; Vlaisavljevic et al., 2020).
Third, this study confirms that firms can achieve more process innovation in BRI based
on digitization capabilities to achieve sustainable performance. Previous research has argued
that digitalization capacity may help a firm achieve long-term success by helping optimize
resource relocation and increase energy efficiency (Kamble et al., 2020; Lin et al., 2020;
Raguseo and Vitari, 2018), and the results of our analysis support these prior studies.
In this regard, this study examined the impact of digitalization capability on various
aspects of a firm’s sustainable performance by integrating coopetition strategy and open
innovation in BRI.
5.2. Managerial implications
Our research also has substantial consequences for a practical audience. First, this research
reveals that coopetition strategy plays an important role in boosting sustainable performance
in a business ecosystem. In particular, BRI aims to reconnect to East Asia, Central Asia, Africa,
the Middle East, and Europe in terms of the economy, politics, and society, and it prioritizes
cooperation and competition among these regions. Cooperation in the business ecosystem can
help move toward a win-win status, since it allows participants (i.e., competitors and
cooperators) to share their capabilities and resources. Participants would share resources with
competitors as needed and strengthen their competitiveness by compensating for mutual
inadequacies and relocating their knowledge, thus increasing the size of the entire market. As
a result, firms should pursue a coopetition strategy with participants in a wide range of regions
to create sustainable performance in BRI.
Second, it demonstrates how open innovation within a business ecosystem may enhance
a firm’s long-term profitability. Firms can benefit from utilizing open innovation when
27
conducting operations in the BRI. The governance of BRI establishes five major priorities (e.g.,
policy coordination, infrastructure connectivity, unimpeded trade, financial integration, and
connecting people) to build an open platform for pluralism, inclusive growth, peace, and
harmony as a sustainable business ecosystem based on participant cooperation. In a business
ecosystem in which this coopetition-based is embodied, such as BRI, firms can recognize a
reduced risk of uncertainty, and open innovation can be promoted (Roh et al., 2021).
Third, according to our research, firms can enhance their sustainability performance in
BRI by using open innovation. In particular, it has been confirmed that open innovation
functions as a mediator between coopetition strategy and sustainable performance. Since a firm
that can compete and cooperate simultaneously can increase sustainability through innovative
discussions with other entities, managers should broaden their perspectives to encompass all
possible routes of action rather than thinking solely about either competition or cooperation. In
addition, firms’ managers should recognize that using digitalization capability can contribute
to both coopetition strategy and open innovation. Most importantly, firms should understand
the importance of effectively deploying open innovation in BRI.
5.3. Limitations and future research directions
Despite its multifaceted contribution, our study has the following limitations: First, it
raises the question of how effectively the global business environment can be generalized,
given that our sample is limited to companies established in BRI located in China. BRI is a
considerable business ecosystem that links Asia, Africa, and Europe, starting with China, and
each region may have different strategies and capabilities for firms depending on the business
environment and level of digitalization. Future research can validate the generalizability and
empirical results of the framework by extending the study through the inclusion of samples of
firms in BRI operating in other countries and regions. Second, we employed cross-sectional
28
data, which limits the ability to infer cause-effect correlations. Considering that business
ecosystems are constantly evolving, future studies might explore longitudinal data to
understand more features of coopetition strategy in firm ecosystems (Cobben et al., 2022).
Additionally, as has been observed by Crick and Crick (2021), the coopetition strategy should
be viewed from the perspective of a changing environment. Although the current study offers
some valuable insights, adding a temporal dimension could enable further research into the role
of cooperation and competition as dynamic elements of a business ecosystem that transforms
sustainable performance and how this helps firms deal with the dual forces of coopetition over
time. Third, this study measured economic and social performance as sustainable performance
using a second-order latent. Although environmental issues were included in measuring social
performance, future studies need to separate environmental performance and more specific
social issues, which are major concerns related to BRI.
As a final remark, our research provides a structured perspective and understanding of
how and why coopetition strategy, open innovation, and digitalization capabilities were
leveraged to achieve a firm’s sustainable performance in the BRI, which is the most novel
contribution of this study. Our findings provide valuable insights for enhancing a firm’s
sustainable performance by helping researchers and practitioners better grasp the significance
of ecosystem management.
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Figure 1. Research model
45
Figure 2. Estimated results of a structural equation analysis
Notes: ns = non-significant. ** p < 0.01, *** p < 0.001
46
Figure 3. Moderating effect of digitalization capability
2
2.5
3
3.5
4
Coopetition strategy: Low Coopetition strategy: High
Open innovation
Digitalization capability: Low
Digitalization capability: High
2
2.5
3
3.5
4
Coopetition strategy: Low Coopetition strategy: High
Sustainable performance
Digitalization capability: Low
Digitalization capability: High
47
Figure 4. Additional analysis using structural equation analysis
48
Table 1. Sample demographics.
Variable
Category
Percentage (%)
Firm size
Less than 50 people
27.31
50-100 people
17.31
101-300 people
13.08
301-500 people
8.65
More than 500 people
33.65
Firm asset
Less than $1 million
33.08
$1-$10 million
27.12
$10-$100 million
15.58
$100 million-$1 billion
10.58
More than $1 billion
13.65
Firm age
Less than 5 years
27.5
5-10 years
25
11-15 years
22.5
More than 15 years
25
Industry
Manufacturing
57.5
Service
42.5
Firm characteristic
State-owned firm
23.27
Private firm
62.88
Chinese-foreign joint venture
6.73
Wholly foreign-owned firm
7.12
Total
100
49
Table 2. Descriptive statistics and confirmatory factor loadings.
Constructs
Item
Mean
SD
SFL
Competition strategy
COM1
4.056
0.882
0.912
COM2
4.133
0.855
0.921
COM3
3.969
0.905
0.880
COM4
4.152
0.866
0.910
Cooperation
COOP1
3.958
0.877
0.887
COOP2
4.050
0.824
0.901
COOP3
3.848
0.926
0.865
COOP4
3.940
0.890
0.871
Coopetition*
COM1
3.890
0.872
0.823
COM2
4.104
0.795
0.886
COM3
3.979
0.868
0.883
COM4
4.142
0.794
0.866
COOP1
4.300
0.806
0.706
COOP2
3.738
1.039
0.858
COOP3
3.906
0.944
0.878
COOP4
3.779
1.048
0.878
Inward open innovation
IN_INNO1
4.223
0.802
0.914
IN_INNO2
4.012
0.923
0.849
IN_INNO3
4.150
0.814
0.935
IN_INNO4
4.194
0.806
0.927
Outward open innovation
OUT_INNO1
4.056
0.882
0.847
OUT_INNO2
4.133
0.855
0.861
OUT_INNO3
3.969
0.905
0.835
OUT_INNO4
4.152
0.866
0.851
Open innovation*
IN_INNO1
3.958
0.877
0.841
IN_INNO2
4.050
0.824
0.868
IN_INNO3
3.848
0.926
0.779
IN_INNO4
3.940
0.890
0.783
OUT_INNO1
3.890
0.872
0.766
OUT_INNO2
4.104
0.795
0.834
OUT_INNO3
3.979
0.868
0.848
OUT_INNO4
4.142
0.794
0.825
Digitalization capability
DIG_CAP1
4.300
0.806
0.748
DIG_CAP2
3.738
1.039
0.748
DIG_CAP3
3.906
0.944
0.809
DIG_CAP4
3.779
1.048
0.769
Economic performance
ECON_PER1
4.217
0.796
0.903
ECON_PER2
4.146
0.796
0.882
ECON_PER3
4.288
0.764
0.910
ECON_PER4
4.288
0.769
0.923
Social performance
SOC_PER1
4.225
0.764
0.906
SOC_PER2
4.027
0.814
0.917
SOC_PER3
4.042
0.803
0.911
SOC_PER4
4.075
0.790
0.933
SOC_PER5
4.181
0.784
0.891
Sustainable performance*
ECON_PER1
4.217
0.796
0.849
50
ECON_PER2
4.146
0.796
0.848
ECON_PER3
4.288
0.764
0.862
ECON_PER4
4.288
0.769
0.863
SOC_PER1
4.225
0.764
0.871
SOC_PER2
4.027
0.814
0.831
SOC_PER3
4.042
0.803
0.820
SOC_PER4
4.075
0.790
0.855
SOC_PER5
4.181
0.784
0.853
Notes: * reflective-reflective second order latent, SD, standard deviation, SFL=standardized
factor loading, all SFLs are significant (p < 0.000).
51
Table 3. Inter-construct correlations, convergent and discriminant validities.
Constructs
Digitalization
capability
Coopetition
strategy
Open
innovation
Sustainable
performance
Digitalization capability
1
Coopetition strategy*
0.683
1
Open innovation*
0.736
0.766
1
Sustainable performance*
0.799
0.801
0.820
1
Cronbach’s alpha
0.928
0.937
0.916
0.952
Composite reliability
0.949
0.948
0.932
0.959
rho_A
0.934
0.938
0.919
0.952
AVE
0.822
0.795
0.731
0.723
SQRT(AVE)
0.907
0.892
0.855
0.850
HTMT < 0.85
Yes
Yes
Yes
Yes
Notes: * reflective-reflective second order latent, rho_A= Dijkstra and Henseler’s composite
reliability, AVE=average variance extracted, SQRT=square rooted.
52
Table 4. Total, direct, and indirect effects.
Effect
Direct
Indirect
Total
f2
CS OI
0.766
0.766
0.350a
CS → SP
0.319
0.247
0.566
OI SP
0.323
0.323
0.254a
Notes: a medium effect, CS=coopetition strategy, OI=open innovation, SP=sustainable
performance.
53
Table 5. Significance testing of mediating effects with bootstrap.
Path
CS→OI→SP
Statistics
Sobel
Delta
Bootstrap
Indirect effect
0.247
0.247
0.247
Standard error
0.028
0.036
0.039
z-statistic
8.783
6.920
6.325
p-value
0.000
0.000
0.000
BCCI
(0.192, 0.302)
(0.180, 0.320)
(0.152, 0.304)
Baron and Kenny (1986)
Partial mediation (p < 0.05)
Zhao et al. (2010)
43.6% partially mediated
Notes: (1) 5000 iterations for bootstrapping, (2) confidence level is 95%, (3) BCCI=bias-
corrected confidence interval, (4) CS=coopetition strategy, OI=open innovation,
SP=sustainable performance.
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... Simultaneously, the external environment inevitably influences enterprises' business development, and market competition, as an important external environmental factor, has a crucial impact on innovation activities and the ESG performance of the manufacturing industry [10]. For a successful enterprise, if it wants to achieve future stable economic development, it needs to consider the impact of sustainable development in three aspects: environment, society and economy [11]. ...
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... the analysed results above provide strong support for the discussion of research constructs' relationships. si positively affects ecp, enp, and sOp (h1, h2, and h3). the findings are in line with prior studies (abubakar et al., 2022;elkhwesky et al., 2024;Farooq et al., 2024;lee & roh, 2023;le & ikram, 2022), which suggested that enhancing the sustainability innovation capability of a cclc contributes to sustainability performance. in addition, the findings are in line with the Dct, which contends that through sensing the environment, capturing opportunities, or re-configuring organisational resources and capabilities (Bashir et al., 2022;teece, 2007), sustainability innovation in different aspects of ccl services, processes, and business models can improve profitability, reduce environmental impacts, enhance the well-being of employees, and ultimately achieve sustainability performance. ...
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