Abstract
Purpose
The purpose of this paper is to identify actions and guidelines for enabling and fostering the Industry 4.0 adoption, as well as to understand the role of three ecosystem actors in these actions (i.e. companies, educational organizations and regional policy makers).
Design/methodology/approach
52 semi-structured expert interviews in the Tyrol-Veneto cross-border macro-region were carried out and interpreted using the innovation ecosystem concept. In particular, drawing from this latter, six ecosystem building blocks were identified and used to analyze the interviews' content.
Findings
The findings allow not only to build a comprehensive framework for action to support Industry 4.0 adoption, but also to confirm the importance of exploring Industry 4.0 through the lens of the ecosystem concept. Indeed, the authors show that R&D activities should be complemented with interorganizational actions, such as training and networking, and that all ecosystem actors should be involved in the Industry 4.0 adoption.
Originality/value
This is among the few studies that adopt the innovation ecosystem perspective to explore best practices for Industry 4.0 adoption, thus overcoming the weakness of existing papers based on a firm-level perspective. It also complements previous ecosystem-based research on Industry 4.0 by exploring the technology adoption side, rather than the technology provision one, and by considering the adoption of a wide set of technologies.
Keywords
Citation
Matt, D.T., Molinaro, M., Orzes, G. and Pedrini, G. (2021), "The role of innovation ecosystems in Industry 4.0 adoption", Journal of Manufacturing Technology Management, Vol. 32 No. 9, pp. 369-395. https://doi.org/10.1108/JMTM-04-2021-0119
Publisher
:Emerald Publishing Limited
Copyright © 2021, Dominik T. Matt, Margherita Molinaro, Guido Orzes and Giulio Pedrini
License
Published by Emerald Publishing Limited. This article is published under the Creative Commons Attribution (CC BY 4.0) licence. Anyone may reproduce, distribute, translate and create derivative works of this article (for both commercial and non-commercial purposes), subject to full attribution to the original publication and authors. The full terms of this licence may be seen at http://creativecommons.org/licences/by/4.0/legalcode
1. Introduction
Industry 4.0 is one of the most disruptive phenomena examined in recent literature (Galati and Bigliardi, 2019). Addressed with many different labels such as “smart manufacturing” or “fourth industrial revolution,” it is characterized by a growth of data and connectivity, an increasing need of analytical and business-intelligence capabilities and the development of human-machine interactions (Sung et al., 2018).
An important message that several recent papers are expressing is that, despite its importance from a firm-level perspective, Industry 4.0 is a broad phenomenon that requires the involvement of a diversified set of actors, including firms, government, regulators, universities and research centers (de Vasconcelos Gomes et al., 2018; Benitez et al., 2020). A rapidly developing research stream is thus exploring Industry 4.0 through the lens of the innovation ecosystem concept. The rationale of this approach is that value cannot be created by a stand-alone firm and that knowledge and innovation are developed, thanks to the links and interactions among different institutions and organizations (Pino and Ortega, 2018; Reynolds and Uygun, 2018). The papers adopting this perspective focus on a wide variety of issues, such as describing an IoT-based business ecosystem (Rong et al., 2015), understanding how an Industry 4.0 ecosystem evolves during time (Benitez et al., 2020), exploring the characteristics of the ecosystems for the development of smart products (Kahle et al., 2020) and analyzing the importance of collaborating with supply chain partners and R&D centers to improve the provision of Industry 4.0 solutions (Benitez et al., 2021). Even if not explicitly mentioning the ecosystem concept, other contributions also highlight the importance of cooperating with external actors in the Industry 4.0 context. An example is Sung et al. (2018), who propose a theoretical roadmap for Industry 4.0 implementation including actions to be carried out by companies and government.
However, despite the number of contributions on the ecosystem-grounded Industry 4.0 literature, several research areas worth deepening still exist. In particular, as highlighted by Benitez et al. (2020), it might be interesting to explore this topic in industrially diversified ecosystems and in different regional ecosystems to understand the potential heterogeneity of Industry 4.0 profiles. Moreover, a specific focus on Industry 4.0 adopters, rather than on technology providers, is still missing.
Overall, a relevant contribution that could still be provided is the construction of a multi-dimensional framework including suggestions and best practices on how the adoption of Industry 4.0 can be properly supported by all potential actors in ecosystems characterized by the prevalence of technology adopters. Addressing this issue is important for many reasons. First, it could shed light on the main actions needed to support the adoption of Industry 4.0, both at individual and ecosystem level. Second, it could clarify how these actions should be carried out, stimulating a debate on the best practices that allow to maximize the actions effectiveness. Third, it could disentangle the role of different ecosystem actors, namely companies, universities and government, clarifying their complementarity for Industry 4.0 adoption. This information further allows to avoid potential mistakes, such as underestimating the importance of some actions and actors.
The research question addressed in our paper is thus the following:
How can ecosystem actors (companies, educational organizations and regional policy makers) support the adoption of Industry 4.0?
To answer this question, we carried out 52 expert interviews in the Tyrol-Veneto cross-border macro-region (straddling Italy and Austria), collecting information on actions and guidelines for Industry 4.0 adoption and on the role of specific categories of actors (i.e. companies, educational organizations and regional policy makers). To analyze and interpret the content of these interviews, we identified the main ecosystem building blocks, drawing from ecosystem literature, and used them to categorize the proposed actions. This activity allowed us not only to build a comprehensive framework with specific actions and sub-actions for Industry 4.0 adoption, but also to verify the suitability of ecosystem concept to address Industry 4.0 issues.
The paper is structured as follows. In Section 2, we provide an overview of the relevant literature and we theoretically develop the ecosystem building blocks that were used to interpret the expert interviews. Then, we describe our research methodology (Section 3) and provide a description of the research results (Section 4). Finally, we thoroughly discuss the findings (Section 5) and we conclude the paper with implications, limitations and future research directions (Section 6).
2. Theoretical background and research framework
This section is divided in two parts. First, we present the ecosystem-grounded literature on Industry 4.0, highlighting the research areas that could still be explored. Then, we create the research framework, including the main ecosystem building blocks used for the empirical analyses.
2.1 Industry 4.0: an innovation ecosystem perspective
As highlighted by recent literature reviews (e.g. Galati and Bigliardi, 2019; Chauhan and Singh, 2020; Wagire et al., 2020), several research streams can be identified in Industry 4.0 literature. These streams can be distinguished according to the scope of applications of digital technologies (Meindl et al., 2021), which can be either internal (i.e. Smart Manufacturing and Smart Working) or external (i.e. Smart Supply Chain and Smart Products and Services).
While many contributions on Industry 4.0 mainly adopt a firm-level perspective (e.g. Ghobakhloo, 2018; Matt et al., 2018; Müller, 2019; Santos and Martinho, 2020), some scholars have started highlighting that Industry 4.0 is a wider phenomenon that goes beyond company's boundaries and requires the contribution of other actors, such as government and universities, which must adapt their work and mission (Reischauer, 2018; Horváth and Szabó, 2019). A useful lens to explore Industry 4.0 from such a perspective is the innovation ecosystem concept.
Drawing on the science of ecology, an innovation ecosystem can be defined as a set of institutions and organizations, including all the links and interactions among them, which supports knowledge creation and innovation development (Edquist, 2005; Pino and Ortega, 2018; Reynolds and Uygun, 2018). The core idea behind this concept is that value cannot be created by a stand-alone firm and that contributions from a wide set of diverse actors, including firms, universities, research centers, regulators and governmental organizations, are needed (de Vasconcelos Gomes et al., 2018; Reynolds and Uygun, 2018).
One of the first contributions adopting the ecosystem concept to study Industry 4.0 and its related technologies is Rong et al. (2015), who identify six structural elements necessary to describe the evolution of an IoT-based business ecosystem and show that this latter is a complex network supported by different stakeholders. In the same vein, Kahle et al. (2020) propose a conceptual framework depicting the features that an innovation ecosystem must have to properly develop and offer smart products and identifying the complementary capabilities needed in this context.
A more theoretical approach is adopted by Reischauer (2018), who develops a conceptual paper highlighting that (1) Industry 4.0 is not a purely technological issue and (2) different actors co-support Industry 4.0 adoption. The important contribution of different stakeholders is also supported by Rocha et al. (2019), who study start-ups in the Brazilian context and conclude that the innovation ecosystem is a key enabler of digitalization.
Benitez et al. (2020) adopt instead a wider view of Industry 4.0 and investigate how innovation ecosystems co-create Industry 4.0 solutions, consolidate, and evolve, highlighting the changes in the ecosystem structure occurring during the different ecosystem lifecycle stages. The basic idea of this work is that Industry 4.0 consists of an interconnected set of technologies and information systems that is difficult to be developed independently by single organizations, especially small and medium-sized enterprises.
A further contribution worth discussing is that of Benitez et al. (2021), who explore, through a quantitative research, the contribution of different actors (i.e. supplier, competitors, customers and R&D centers) for the improvement of Industry 4.0 provision.
Finally, even if not explicitly mentioning the ecosystem concept, Sung (2018) and Brunetti et al. (2020) propose a roadmap, including a wide set of actions going beyond company's responsibility, to support the digital transformation in specific geographical areas (i.e. Korea and Italy respectively).
Overall, as shown by the summary of previous studies above, the ecosystem-grounded Industry 4.0 research has a remarkable level of development, but there are still some unexplored aspects that could provide important theoretical and managerial contributions. For instance, the extant studies (e.g. Benitez et al., 2020; Benitez et al., 2021) consider only the technology providers, not the technology adopters of Industry 4.0, thus looking at the role of external actors from only one side of the coin. Moreover, they consider the way such actors can support the ecosystem governance and development, but there might be complementary capabilities that they can also provide. Finally, some previous studies do not consider the influence of regulatory aspects (Benitez et al., 2021), while others have a very specific focus, such as the development of smart products (Kahle et al., 2020), which makes the related results not easily extendable to the adoption of a wide set of Industry 4.0 technologies.
More in general, what could still be explored is how the adoption of Industry 4.0 can be properly supported by laws and regulations, mutual interactions, information sharing, and inter-organizational cooperation between the actors belonging to the same ecosystem namely companies, business associations, universities, research centers and governments (see Benitez et al., 2020; Kahle et al., 2020). Not by chance, some of the most prominent lines of future research proposed by Galati and Bigliardi (2019) in their review include the role of governments in supporting technological renewal within Industry 4.0 environments, the training programs needed for the new Industry 4.0 skills and the organizational structures required for Industry 4.0 exploitation. Such thematic areas, which may fall in the interface between Smart Supply Chain and Smart Working, are considered future research priorities also by the recent review of Meindl et al. (2021). The development of a comprehensive framework providing these types of suggestions in a context characterized by technology adopters would not only clarify the role of the different ecosystem actors, but also establish best practices to maximize the exploitation of Industry 4.0. This is exactly what we aim to provide with the present research.
2.2 Conceptual framework
In order to answer our RQ and propose a comprehensive framework with a set of actions that should be performed by the different ecosystem actors to foster Industry 4.0 adoption, we first need to identify a set of ecosystem characteristics to build the framework. Thus, starting from the six interrelated dimensions proposed Rong et al. (2015) to describe an IoT-based business ecosystem (i.e. Context, Configuration, Capability, Cooperation, Construct and Change), we develop six ecosystem's building blocks that may be useful to categorize the actions for fostering Industry 4.0 adoption (see Table 1). In particular, compared to the dimensions of Rong et al. (2015), we exclude those that are more linked to the description of the ecosystem (i.e. Context and Change) and we divide the others into specific sub-dimensions, better tailored to our purposes. As in Rong et al. (2015), our proposed building blocks include the supportive infrastructure of the ecosystem, the external relationships, the mechanisms of interactions between ecosystem actors, the governance systems and the development of unique capabilities. Below, we provide a through description of these aspects, highlighting their linkages with the literature on innovation ecosystems.
One of the first elements that characterize an innovation ecosystem are the resources, which concern both infrastructures and financial assets. Indeed, the ecosystem actors need not only appropriate physical and technical conditions to trigger innovation (Rabelo et al., 2015), but also a proper access to capital (Oh et al., 2016).
A further need of the innovation ecosystem is the so-called protection (Walrave et al., 2018) that can be provided in both financial (e.g. subsidies, tax reductions) and nonfinancial forms (e.g. policy support). The latter brings us directly to the second building block of an innovation ecosystem, i.e. the public policies, which include all the rules, laws, legal and task policies that regulate the environment where the ecosystem is located (Rabelo et al., 2015). A supportive regulatory framework is fundamental to guarantee the success of innovation initiatives (Ritala and Almpanopoulou, 2017) and, according to Oh et al. (2016), this is exactly what distinguishes innovation from natural ecosystems.
The innovation process does not work without the enhancement of human capital (Tödtling and Trippl, 2005) and Knowledge is thus the third building block identified in this study. Knowledge creation and dissemination are fundamental not only to build an innovation ecosystem, as described by Dedehayir et al. (2018), but also to preserve it and create the conditions to harness future opportunities that may emerge (Ritala et al., 2013).
The fourth building block concerns R&D activities, namely those innovation-based actions and initiatives that represent the core components of ecosystem definitions (see Granstrand and Holgersson, 2020). R&D initiatives are mostly undertaken by the private sector (Ritala and Almpanopoulou, 2017) and, according to Reynolds and Uygun (2018), they represent the most critical aspect, especially for SMEs.
However, R&D investments are not enough if the innovation ecosystem is not concurrently permeated by an appropriate culture. For the innovation process to be successful, it is necessary to promote an open and positive mental attitude towards future technological challenges (Brunetti et al., 2020).
A final important building block is represented by the interactions among the actors. Interactions refer to all the internal connections and interdependencies that support the accomplishment of the ecosystem's value proposition (Walrave et al., 2018) and the development of collaborations not only among firms, but also between firms and universities or research centers (Reynolds and Uygun, 2018). Besides internal collaboration, many authors also underline the importance of connecting the ecosystem with external actors (Rabelo et al., 2015). Walrave et al. (2018) propose the concept of inter-local learning, a process of knowledge sharing across different ecosystems that allows to learn lessons from other contexts.
These six building blocks represent a valuable starting point to guide the analysis of the expert interviews, as described in the following sections.
3. Methodology
3.1 Research design
We adopted a qualitative, exploratory approach based on expert interviews to achieve the research purpose. We chose this methodology to address our research question because it is particularly effective when researchers are investigating a new or emerging field (Bogner et al., 2009).
The present study is part of a wider EU project carried out in the Tyrol-Veneto macro-region, a cross-border area including the Tyrol region in Austria and the two regions of South Tyrol and Veneto in Italy.
A multi-stakeholder approach, based on the involvement of experts from private and state-owned companies, educational organizations and regional institutions, was adopted due to the importance of having a variety of viewpoints from all the actors playing a potential key role in the Industry 4.0 ecosystem. The Tyrol-Veneto macro-region was instead selected for being an area with a mature economic system, a prevalence of technology adopters and several high-quality universities and research centers. Overall, the macro-region presents several properties of a nascent Industry 4.0 ecosystem. First, it is a relatively homogeneous industrial system (Eurostat, 2020), with an increasing concentration of manufacturing firms (+7.1% between 2015 and 2017), the potential adopters of Industry 4.0. Second, the share of R&D personnel and researchers in the ecosystem is also growing (+23.8% between 2015 and 2017).
The list of participants was developed trying to guarantee appropriate heterogeneity of actors within the ecosystem, thus selecting: (1) private and state-owned companies with different size and technological stages, operating in both the manufacturing and service industry, as well as business associations representing the main sectors operating in the macro-region (manufacturing and logistics, hospitality) [1]; (2) different educational organizations (i.e. universities, research centers, high schools and employment agencies); (3) regional institutions (i.e. policy makers such as municipality and provinces, chambers of commerce, public agencies for business development). However, since companies are the main adopters of Industry 4.0 technologies, a higher number of interviews in this category was carried out.
Since the EU project had multiple purposes and explored different aspects of digitalization and Industry 4.0, for this paper we selected only a subset of the information collected, focusing on the actions proposed to support Industry 4.0 adoption. Therefore, some of the interviews, which overlooked this aspect, were excluded from the analysis. The resulting sample includes 52 expert interviews, distributed among the three categories of actors and the three regions as shown in Table 2. Other results based on the same interviews, but focused on different research questions and results, are presented in Brunetti et al. (2020) and Matt et al. (2019).
3.2 Data collection
Data were collected using face-to-face semi-structured interviews, based on a predefined research protocol, as suggested by Yin (2014). A pre-test was conducted to validate the protocol with three external researchers working in the field. The protocol (reported in Appendix 1) consisted of some general questions about the interviewee and his/her company/institution and of three simple open-ended questions about the actions that should be implemented to properly support Industry 4.0 adoption by three ecosystem actors: companies, educational organizations and regional institutions (policy makers in particular). We used these open-ended questions to guarantee flexibility and openness so that unexpected and novel topics could easily emerge (Kasabov, 2015). Furthermore, during the interviews, we allowed the interviewees to give the preferred direction to the conversation. As a consequence, not all the interviewees specified an action for all the three actors and some of them preferred to focus on the role of some actors, considered as the most important.
Table 2 provides an overview of the interviewed experts, all of whom have specific competences in the implementation of Industry 4.0 technologies, in managing companies and organizations deeply involved in Industry 4.0 adoption, or in designing the regional policies for Industry 4.0.
The interviews had a duration varying between one and two hours and were carried out between September 2018 and March 2019 in Italian or German language, depending on interviewee's preference.
All the interviews were recorded, transcribed by a researcher and translated in English by an expert. Some of them were, finally, back translated in their original language by the researchers to check the meaning invariance.
3.3 Data analysis
The coding and data analysis of the interviews was performed using a combination of deductive and inductive processes, which allowed to create a framework summarizing the actions needed to support Industry 4.0 adoption. Two research teams, each comprising two researchers, were created. Each team independently manually coded and analyzed the cases to ensure inter-coder reliability (Duriau et al., 2007). The results of the coding process were then compared to ensure consistency and, in case of misalignments, the two teams discussed till a convergence was found. The data analysis process included two levels of coding, as described by Wholey et al. (2010). The first one allowed to associate each sentence transcribed from the interviews to one of the building blocks reported in Table 1. The second one allowed instead to inductively identify, for each building block, categories and sub-categories of actions to support Industry 4.0 adoption. Additional details are provided in the following paragraphs.
In the first level coding, also referred to as descriptive coding, text segments (i.e. sentences or short paragraphs) referring to actions proposed by the respondents were identified in each interview and they were coded according to the building blocks they were mainly related to. The six categories drawn from ecosystem literature and summarized in Table 1 (i.e. resources, public policies, knowledge, R&D activities, culture, interactions) were used for the coding purpose. For instance, when an interviewee referred to “collaboration” or “cooperation” initiatives, the relative text segment was coded with the Interactions label. This activity was based on a content analysis approach using the meaning rule: thus, each relevant text segment was labelled as referring to a specific category of the framework according to the interpretation given to its meaning, which derives from the literature (Bardin, 1977). This activity was carried out independently by the two teams, which then compared the results and discussed the few misalignments till a convergence was reached. At the end of this process, the two teams acknowledged that at least one text segment was associated to each building block of Table 1 and that no additional building block was needed to categorize the proposed actions. All the text that did not refer to any specific actions was excluded from further analysis.
In the second level coding, also referred to as pattern coding, patterns of issues within and across text were identified. In particular, each team independently reviewed the text segments coded within each building block and inductively grouped them according to common themes, if any. This activity, based on multiple reading of the raw data following a process often called in vivo coding (Thomas, 2006), aimed at identifying categories and sub-categories of actions to better classify and analyze the results. After that, the two teams met again to compare the identified themes. The results were similar, and an alignment was found quickly. After a brainstorming among the four researchers, the 19 identified themes were finally translated into 8 actions and 19 more specific sub-actions. The label and description assigned to all the actions were jointly decided by all the authors.
Appendix 2 reports, for each action and sub-action, a set of relevant quotations from the interviews, showing of how the coding process was realized.
4. Results
The results of the analyses are categorized in Table 3, where we show, for each ecosystem building block, the actions and sub-actions proposed by the experts, as well as the actors considered in charge of their execution. We provide below a through description of these results.
Two categories of actions linked to the building block resources emerged from the interviews. The first is Fund, which indicates the need to provide appropriate incentives and financial resources to the ecosystem actors for Industry 4.0 adoption. These incentives should have two purposes. First, they should support R&D activities targeted at Industry 4.0 technologies and boost workforce training dealing with related contents. According to many interviewees, an important target of these policies should be the implementation of energy efficiency or sustainable production systems. About workforce training, instead, incentives should be devoted to all courses dealing with Industry 4.0 technologies, as stated by the director of a business association in South Tyrol:
At national level, it is necessary to support training, introducing tax deductibility of training expenses (i.e. tax credit to facilitate the training of companies in Industry 4.0).
Second, the incentives should be aimed at contrasting the brain-drain and attracting skilled workers into the region, which is often viewed as not particularly appealing given its local dimension and the lack of international companies. Among the suggestions proposed by the interviewees in this regard, we can mention the promotion of talents, the creation of innovative start-ups, the development of collaborations with internationally recognized companies and the improvement of life quality in the region.
The second action emerged from the building block resources is Develop proper (ICT) infrastructures. Indeed, according to the respondents, the regional institutions should guarantee an adequate connectivity in all the areas of the region, as highlighted, among others, by a researcher from South Tyrol:
The development of proper infrastructures is a precondition for exploiting the trends of Industry 4.0. The related technologies require huge computational power, connectivity and energy, such as 5G and full-fiber networks. […] It would be advisable to accelerate the ICT infrastructure construction projects and extend the broadband to the whole territory more quickly.
Regulate is the third action mentioned by the experts. According to them, appropriate laws and policies are needed to create a proper environment for Industry 4.0 adoption. Regional institutions should work in two directions. First, they should reduce bureaucracy in the administrative processes, which are often burdensome and require huge efforts and complex legal skills to be managed. This problem concerns not only the procedures to access digitalization or R&D incentives, but also those to develop European or cross-border cooperation projects. The existing overregulation may indeed inhibit entrepreneurial activities and hinder the efforts of both companies and research centers, as highlighted, among others, by a manager from Veneto:
We are increasingly moving towards over-regulation. […]. We could be very smart, but we are conditioned by this culture that leads us to regulate everything. We would be great if we did not have to regulate so much.
Second, regional institutions should adapt the existing legislation (laws and regulations) to the new Industry 4.0 environment, introducing, for instance, cybersecurity legislations that may boost companies and organizations to protect their data and systems. Furthermore, by acknowledging the potential of blockchain but also the difficulties to exploit it on a large scale, they could also develop some local pilot projects regulating its use for the provision of local public services (e.g. healthcare, insurance, certificates). This action would subsequently allow to identify the potential opportunities of blockchain at a broader level (e.g. national).
Two actions recommended by the interviewees are linked to knowledge creation and sharing in the ecosystem. First, the suggestion is to Train all the ecosystem actors, starting from an improvement of their awareness and acceptance of Industry 4.0 technologies and the associated risks for both privacy concerns and cyber issues (including cyberbullying). Furthermore, company's workforce should be trained at all hierarchical levels. Indeed, while the employees must be able to exploit all the potentialities offered by the new digitalization tools, the executives must acquire a good knowledge and understanding of Industry 4.0 phenomenon to avoid mistakes in their strategic decisions. In this regard, a manager of a Tyrolean company stated:
Digitalization has to be understood in companies. First of all, through education, because many believe that they are already digitally knowledgeable through the use of technology. […] Managers need to become mature in order to be able to classify technologies. […] Only then strategic decisions can be made.
As highlighted by some other respondents, companies need not only vertical specialists of the various technologies, such as artificial intelligence or machine learning, but also people able to combine them and integrate their use with the internal IT system. Firm-provided training should thus be developed in this direction.
The responsibility of these actions is mainly attributed to the companies themselves even if for some respondents, educational organizations are also in charge of this task.
The second action associated with the building block knowledge is Develop a proper educational system. This action is particularly important for a remote/peripheral area such as the Tyrol-Veneto one. Attracting talents in this macro-region from abroad and keeping them for a long time is not an easy task: once they have exploited the work opportunity in the Tyrol-Veneto ecosystem, they might indeed prefer to continue their career elsewhere. Thus, it becomes fundamental to develop a proper local educational system that trains the new (and old) workforce and supports fresh graduates that decide to seek job within the macro-region. In particular, according to the experts, the educational organizations should introduce new degrees aimed at training and developing experts that are currently lacking in the labor market, making future graduates able to collect, store, manage and analyze huge amounts of data. Internet of things, big data and artificial intelligence are the technologies that, more than others, require such an upgrade of the education system, according to our respondents. A rector and a manager from South Tyrol suggested respectively “degree courses in digitalization themes” and “training paths for data architects and data scientists,” while a manager from Tyrol also mentioned the need to strengthening degrees like “math, which could handle AI and data analysis differently.” Besides degree courses, the educational organizations should also complement education with working experience and introduce e-learning in both schools and workplaces (e.g. for professional refresher courses). The creation of small factory labs for the technical high schools, with the inclusion of 3D printers, robots and simulators, is another example of how the students can be introduced to a manufacturing sector characterized by the adoption of different Industry 4.0 technologies. A further interesting aspect is that the teaching staff often does not have the right capabilities to properly train newly hired workers. A direct consequence is the need to train teachers not only on technical subjects, but also on the opportunities offered by digitalized teaching tools (e.g. e-learning platforms).
In terms of R&D activities, the experts highlighted that companies should Innovate their environment in two directions. First, they should invest in Industry 4.0 technologies and in R&D activities, as it emerged from an interview with a private company in South Tyrol:
Companies need first of all to make intense Industry 4.0 investments. After that, they should start processes of rationalization and optimization, aimed at exploiting the technologies.
In particular, for what concerns digital technologies (i.e. big data, IoT), managers should invest not only in tools for the collection and storage of information, but also in systems able to use and analyze these data for different purposes, such as predictive maintenance or energy efficiency. Such data types, exchanged with the company's suppliers through appropriate IoT networks, may also be useful to improve the quality of products bought from the upstream network, as highlighted by a manager from Tyrol.
Second, companies should also update their strategy and organizational structure, reflecting on how Industry 4.0 is going to change their business vision and considering the possibility to introduce new roles in the organization, such as the “innovation manager figure.” According to a manager from South Tyrol, a further relevant technological innovation would also be the possibility to equip all employees with a portable device for the on-time reporting of events, failures or anomalies.
As far as the building block culture is concerned, the ecosystem actors should Promote an innovation culture. Some respondents highlighted that companies have to develop an appropriate mindset because digitalization is changing the way in which they do business and interact with their partners. In this regard, a manager of a private company located in Tyrol stated:
Companies need an appropriate mind-set so that the employees do not only understand that without digitalization the company will not survive, but they become also ready to participate in the development of competencies.
Other experts focused instead on society and politics, claiming that this latter has to develop an innovation-oriented culture to better understand companies' needs for Industry 4.0 implementation and properly support them in their efforts.
Finally, the last category of actions emerged from the interviews is Cooperate. According to the respondents the various actors should create collaborative networks, both at local and international level. As regards local collaboration, the interviewees mentioned different types of cooperation, starting with that between companies and educational organizations. As highlighted by many interviewees, universities play a key role in supporting companies along their digitalization path: they can provide best practices, promote new management thinking and support the implementation of new technologies, especially in SMEs. According to the respondents, this cooperation can be developed by financing PhD or research scholarships within companies, promoting students' internships or developing strategic partnership for specific goals (e.g. cloud solutions development). Other proposed cooperation activities are those among firms and those among educational organizations. Firms should collaborate with each other to complement and recombine the different skills that they already have (e.g. hardware, software, data or AI competences). Moreover, they could share data and information about common products or machineries. This last aspect is widely discussed by a manager from South Tyrol:
Companies using the same machineries, vehicles or systems could create a network to share and update information and knowledge. For instance, they may create a common platform to upload data on maintenance problems, unexpected failures, human mistakes and so on, and then cooperate to find optimal solutions and improvements that may be useful for everyone.
Educational organizations should instead coordinate with each other to improve the overall educational level, in both high schools and universities:
Not only the exchange between university and business practice should be promoted, but also the exchange within the university – with other faculties, thus with physicists, with humanists, etc. This usually results in new insights.
As regards instead the international cooperation, it should aim at sharing data and information, acquiring new competences, identifying best practices and learning from them. “International cooperation is always enriching, from both corporate and human points of view,” stated the president of a public company located in South Tyrol.
We summarize the results concerning actions and actors' role in Figure 1.
5. Discussion
This study provides several indications on how Industry 4.0 adoption can be properly addressed through the innovation ecosystem concept. Indeed, our results confirm the idea that Industry 4.0 is not a purely technological issue and, along with R&D and digitalization investments, it requires additional supporting interventions and a significant contribution from all the actors belonging to a certain ecosystem/environment (Sung, 2018). Besides supporting this view, our study offers an original and comprehensive framework indicating (1) the actions to be carried out to support Industry 4.0 adoption and (2) the role of the ecosystem actors. The following paragraphs discuss these two issues.
5.1 Actions to support Industry 4.0 adoption
All the actions suggested by the interviewees were categorized using the building blocks drawn from the literature on innovation ecosystems, with no need to add any additional category. This result confirms not only the building blocks' validity, but also the suitability of this theoretical lens to investigate Industry 4.0 adoption. In particular, thanks to the 52 interviews, 8 actions and 19 more precise sub-actions were identified, thus providing detailed indications on how Industry 4.0 adoption should be properly supported. Here we provide a thorough discussion of the identified actions and sub-actions, in light of the existing literature on Industry 4.0.
Some identified actions confirm the messages already provided by some scholars in the literature, such as the importance to innovate by adopting the new technologies and reviewing both strategy and organizational structure (Veile et al., 2019; Cimini et al., 2020); the promotion of an innovation culture (Jain and Ajmera, 2021); the development of training activities through knowledge management programs (Kahle et al., 2020; Veile et al., 2019); and the need to develop proper (ICT) infrastructures (Moktadir et al., 2018).
Original contributions that complement existing literature can be derived in the other four actions.
In the fund action, the suggestion to provide incentives and tax relieves to support digitalization is in line with the view of several scholars who highlight the need to invest significant financial resources in Industry 4.0 technologies (e.g. Horváth and Szabò, 2019: Kahle et al., 2020). However, this study also proposes to coordinate such investments with other financing schemes aimed at contrasting the brain-drain and attracting high-skilled workers into the region. Indeed, given the complex and advanced skills required for the implementation of new technologies, an innovative Industry 4.0 ecosystem should be able to attract skilled workers and avoid the risk that a substantial share of trained workforce leaves the region, making the educational efforts fruitless. This is an important aspect to take into consideration, especially for mountain/peripheral regions like the Tyrol-Veneto one.
A further contribution is provided in the regulate category. In this regard, our study does not limit the discussion to the need to update existing legislation to keep pace with advancements in technology, as illustrated by Moktadir et al. (2018) and Kahle et al. (2020). The interviewed experts also mention the importance of smoothing the administrative processes to simplify the access to incentives and facilitate digitalization initiatives, such as collaborative projects supporting the creation of open supply chains. This bureaucratic aspect is particularly critical for SMEs, which are typically less structured, lack technological competences and have fewer financial resources to invest in digitalization technologies (Benitez et al., 2020).
Develop a proper education system is a further action deserving a thorough discussion. Besides the issues already highlighted by scholars, such as the use of innovative approaches to train students (Salah et al., 2019) and the need to change the educational system (Horváth and Szabó, 2019), original suggestions emerge from the interviews. The first is the need to train also the teaching staff, which is often not sufficiently prepared on the new technological trends. The second is related to the adoption of the learning-by-doing approach to support Industry 4.0, according to which the best way for students to acquire all the required knowledge is to get a more active role in their own learning and to directly participate to the implementation of those non-routinary tasks that will not be automated in the next years (Frey and Osborne, 2017). The creation of small factory labs in the high schools is a further exemplary way to prepare students to get accustomed with Industry 4.0 technologies.
Finally, the last contribution concerns the cooperate category. The importance given by the interviewees to various types of collaborations confirms what scholars already discuss in the literature (e.g. Kurdve et al., 2020); however, a new clear distinction between cooperation at local and inter-regional level emerges. The role of local cooperation strengthens the idea that the concept of regional innovation ecosystems is applicable to Industry 4.0 adoption because such transition is eased by geographical proximity and lower bureaucratic and cultural barriers. Companies within the ecosystem should collaborate with each other to share data, skills and competences, while universities should support them in the adoption of new technologies. At the same time, the demand for inter-regional linkages suggests that access to non-local capabilities can become of increasing importance to pave the way to Industry 4.0, since the complexity of this technological transition increasingly requires external knowledge sourcing (Pino and Ortega, 2018). In addition, according to our results, such cooperation should be specifically targeted to develop appropriate skills and competences through complex training programs, rather than on stand-alone investments in Industry 4.0 technologies.
5.2 Role of the ecosystem actors for Industry 4.0 adoption
Table 3 shows how the proposed actions and sub-actions are distributed among the three ecosystem actors.
In some cases, there is a one-to-one relationship between actors and actions. For instance, fund, regulate and develop proper infrastructures are mainly associated with regional institutions, as it happens also in other Industry 4.0 studies (e.g. Sung, 2018; Benitez et al., 2020). A less foreseeable result is instead linked to the innovate action, which is associated only with companies and not with educational organizations, which could play a role too in innovation development according to many scholars (e.g. Markkula and Kune, 2015). This result may be interpreted considering the goal of this research as well as the context where the interviews were carried out. Indeed, on the one hand, we focused only on actions to support the adoption of Industry 4.0 and not the development of new technologies. On the other hand, the Tyrol-Veneto macro-region itself acts mainly as “user” and not as “developer” of Industry 4.0 technologies. This may be the reason why the role of universities and research centers is mainly associated with the provision of training and does not include also investments in developing advanced technologies, contrary to what happens in highly innovative regions such as Massachusetts (Reynolds and Uygun, 2018).
The other four actions of the framework are associated with different actors, even if it is often possible to assign different responsibilities to them. For instance, a new digital culture must be promoted among the workforce by companies and among politicians and society by regional institutions. As far as training is concerned, while companies are mainly in charge of developing new technical skills, the educational organizations should work to build awareness on the new technologies and their risks. Educational organizations should guarantee also the updating of all the other cognitive and horizontal skills, through the creation of new degree programs and through the adoption of innovative training tools and methodologies (developing a proper educational system). Finally, collaboration initiatives should be promoted mainly by regional institutions, especially for what concerns the inter-regional partnerships, even if also universities and research centers should be involved in such activity.
Some final considerations can be done by considering the variety of actions assigned to the three types of actors. Looking at Table 3, we noticed that regional institutions are characterized by the widest variety of proposed sub-actions. Like in previous technological revolutions (Mazzucato, 2013), these actors seem therefore to play a key role in actively creating new industrial landscapes and formulating a vision for the exploration of new products and services, going beyond a standard market-fixing intervention.
Overall, these observations confirm again the importance to explore Industry 4.0 through the lens of the ecosystem concept. The adoption of a linear supply chain approach instead of an ecosystem one would indeed overlook the role of regional institutions and educational organizations, failing to properly describe the Industry 4.0 adoption dynamics.
6. Conclusions
6.1 Synopsis
This study provides a set actions, grouped into a systemic and comprehensive framework, with different levels of detail, for Industry 4.0 adoption. It also provides indications on the role of three main ecosystem actors (companies, educational organizations and regional policy makers) in executing the identified actions. To achieve this result, we first explored the innovation ecosystem concept and identified its main building blocks. We then used these elements to analyze and classify the information collected through semi-structured interviews with 52 experts of the Tyrol-Veneto macro-region. The results allowed to develop a systemic framework for Industry 4.0 adoption and to confirm the importance of looking at Industry 4.0 through the ecosystem concept.
6.2 Contribution to scientific literature
The paper contributes to the scientific literature in at least four ways. First, we develop a complete framework for Industry 4.0 adoption, applying the innovation ecosystem concept. For each action included in the framework, we further provide concrete examples that suggest how the proposed actions can be carried out by various ecosystem actors. By putting the spotlight on the adoption of Industry 4.0 and by considering this latter a broad socio-technical paradigm including a set of interrelated technologies, we complement previous literature considering only the technology provision side (e.g. Benitez et al., 2020; Benitez et al., 2021) or focusing on specific applications of Industry 4.0 (e.g. Kahle et al., 2020). Second, this research sheds light on the importance of developing a wide variety of actions to support Industry 4.0 adoption. Indeed, our results suggest that extensive R&D activities and strong investments in Industry 4.0 technologies are not a silver bullet, at least in an initial phase of Industry 4.0 adoption. The ecosystem actors should complement these activities with actions such as training, cooperation, cultural evolution, educational system development, regulation, funding and infrastructure development. Third, we explicitly consider the role of three ecosystem actors, namely companies, educational organizations and regional policy makers, in carrying out the eight actions of the framework. This allows not only to identify the relationship between actions and actors but also to understand the overall actors' importance for Industry 4.0 adoption. Fourth, this study confirms the importance to look at Industry 4.0 phenomenon through the lens of innovation ecosystems at a macro-regional scale. Indeed, the importance attributed to all the ecosystem actors and the resulted need to carry out a wide variety of actions confirm the belief that Industry 4.0 is both a technological and a socioeconomic phenomenon.
6.3 Contribution to practice and policy
As regards the managerial contributions, different suggestions and guidelines for all the ecosystem actors can be provided. Regional institutions should be aware that they play a key role for Industry 4.0 adoption and they must be prepared to carry out a wide variety of actions, such as the provision of a wide set incentives; the development of proper ICT infrastructures; the updating of existing legislation along with the simplification of administrative processes; the promotion of a digitalization culture in both society and politics; and the promotion of networking activities at both local and international levels. Accordingly, the existing technology policies, which still target a limited set of areas of potential comparative advantage (Gianelle et al., 2016), should broaden their scope and targeted actors. In this respect, they should look at the entire ecosystem, acknowledging for instance that the need of upgrading the quality of governance and promoting an innovation culture may become a pillar of future policies.
Educational organizations must instead focus their efforts on training adult teaching staff, developing new higher education programs, improving teaching methodologies, introducing new learning tools and building a widespread awareness on digitalization risks and opportunities. They should also collaborate with companies and other educational organizations to implement these actions.
Finally, companies should not dedicate all their efforts to innovation activities but develop appropriate plans also to promote a digitalization culture among employees, adapt their organizational structure and make both workforce and executives fully aware of the opportunities offered by Industry 4.0.
6.4 Limitations and future research
Despite the theoretical and managerial contributions previously discussed, the present research has some limitations that can be addressed by future research.
First, the expert interviews were executed in a single geographical context, the Tyrol-Veneto macro-region, which is characterized by many peculiarities that may have influenced the results. Further studies in similar and different contexts should be carried out to corroborate or complement the findings and to compare the needs of different areas.
Second, this research does not adopt an evolutionary perspective and does not distinguish the results between the different ecosystem life-cycle stages. It would be interesting to investigate, in future research studies, if and how the actions and the role of the different actors change during the ecosystem evolution.
Third, we considered only three innovation ecosystem actors. Future studies could extend our analysis also to other actor typologies, such as start-ups or business incubators, which can play a role in the Industry 4.0 ecosystem according to many authors (e.g. Rocha et al., 2019).
Figures
Conceptual framework
Overview of selected interviewees
Tyrol | South Tyrol | Veneto | Total | ||
---|---|---|---|---|---|
Companies | N | 9 | 11 | 11 | 31 |
Size | Medium and large | Medium and large | Medium and large | ||
Type | Firm, business association | Firm, business association | Firm, business association | ||
Sectors | Automotive, machinery equipment, metal products, logistics, ICT, consultancy | Automotive, electronic products, transport equipment, cement, road and rail transports, logistics, ICT, consultancy | Electric bikes and scooters, textile, iron and steel, clothing, finishing garment technologies, entertainment, ICT, consultancy | ||
Respondents' role | CEO or vice-president, partner (or board member), IT/digital director, marketing manager, HR manager | CEO or vice-president, managing director, partner (or board member), IT/digital director, R&D/innovation manager, technical director | CEO or vice-president, IT/digital director, marketing manager, R&D/innovation manager, HR manager, technical director, transparency manager | ||
Educational organizations | N | 3 | 4 | 3 | 10 |
Size | Medium and large | Medium and large | Medium and large | ||
Type | University, high school, employment agency | University, high school, employment agency | High school | ||
Respondents' role | University professor, high school professor, employment agency director | University rector, university professor, high school principal, employment agency director | High school professor | ||
Regional institutions | N | 3 | 6 | 2 | 11 |
Size | Medium and large | Medium and large | Medium and large | ||
Type | Chamber of commerce, public agency | Province, municipality, chamber of commerce, public agency | Municipality, public agency | ||
Respondents' role | CEO or Director, development/innovation director | CEO or Director, department director, head of IT department, development/innovation director | Department director, development/innovation director | ||
Total | 15 | 21 | 16 | 52 |
Actions emerged from expert interviews
Building blocks | Actions and sub-actions | Ecosystem actors in charge of the proposed sub-actions | Aggregate results | ||
---|---|---|---|---|---|
Companies | Educational organizations | Regional institutions | Total | ||
Resources | Fund | 3 | 0 | 14 | 17 |
| 0 | 0 | 10 | 10 | |
| 3 | 0 | 4 | 7 | |
Develop proper infrastructures | 0 | 0 | 8 | 8 | |
| 0 | 0 | 8 | 8 | |
Public policies | Regulate | 0 | 0 | 15 | 15 |
| 0 | 0 | 4 | 4 | |
| 0 | 0 | 6 | 6 | |
| 0 | 0 | 5 | 5 | |
Knowledge | Train | 13 | 10 | 0 | 23 |
| 1 | 3 | 0 | 4 | |
| 12 | 7 | 0 | 19 | |
Develop a proper educational system | 0 | 29 | 2 | 31 | |
| 0 | 11 | 0 | 11 | |
| 0 | 10 | 0 | 10 | |
| 0 | 5 | 1 | 6 | |
| 0 | 3 | 1 | 4 | |
R&D activities | Innovate | 17 | 0 | 0 | 17 |
| 8 | 0 | 0 | 8 | |
| 9 | 0 | 0 | 9 | |
Culture | Promote an innovation culture | 10 | 0 | 12 | 22 |
| 10 | 0 | 2 | 12 | |
| 0 | 0 | 10 | 10 | |
Interactions | Cooperate | 4 | 20 | 33 | 57 |
| 4 | 20 | 13 | 37 | |
| 0 | 0 | 3 | 3 | |
| 0 | 0 | 17 | 17 | |
Total | 47 | 59 | 84 | 190 |
Note(s): The numbers in the table indicate how many times each actor has been considered in charge of the proposed sub-actions; the last column provides an aggregate count
Quotations from the interviews for each action and sub-action included in the proposed framework
Action | Sub-action | Ecosystem actor in charge of the proposed sub-action | Exemplary quotations |
---|---|---|---|
Fund | Provide incentives and tax relieves to support digitalization investments and company's training | Regional institutions |
|
Provide incentives to contrast the brain-drain and attract skilled workers | Companies |
| |
Regional institutions |
| ||
Develop proper infrastructures | Invest in ICT infrastructures and extend them to rural and peripheral areas | Regional institutions |
|
Regulate | Smooth administrative processes and tools to make digitalization technologies more accessible and collaborations easier | Regional institutions |
|
Smooth administrative processes to access governmental and European incentives more easily | Regional institutions |
| |
Update existing legislation | Regional institutions |
| |
Train | Build awareness of new technologies and relative risks | Companies |
|
Educational organizations |
| ||
Provide appropriate training for qualified personnel | Companies |
| |
Educational organizations |
| ||
Develop a proper educational system | Develop higher education programs for new jobs | Educational organizations |
|
Innovate the current training system by promoting work experience and students' mobility | Educational organizations |
| |
Train qualified teaching staff | Educational organizations |
| |
Regional institutions |
| ||
Invest in innovative learning tools/platforms | Educational organizations |
| |
Regional institutions |
| ||
Innovate | Invest in new technologies and their integration | Companies |
|
Adapt and re-define strategy, business vision and organizational structure | Companies |
| |
Promote an innovation culture | Develop organizational leadership and appropriate digitalization culture | Companies |
|
Promote a digitalization culture in both society and politics | Regional institutions |
| |
Cooperate | Promote networking activities inside the region | Companies |
|
Educational organizations |
| ||
Regional institutions |
| ||
Promote information exchange inside the region | Regional institutions |
| |
Promote the creation of transregional and European partnerships | Regional institutions |
|
Note
The inclusion of business associations among the interviewees is in line with Benitez et al. (2020) and justified by our aim to involve all the actors of the ecosystem.
The interview protocol
Section 1: General information about the company and the interviewees
1.1. Interviewee: Name, current and previous position, seniority.
1.2. Company: Number of employees, industry (NACE code), main source of competitive advantage, customers types and location, company's structure, plants location, R&D investments.
Section 2: Actions to support Industry 4.0
2.1. What are the main actions that have been done or should be done by companies to enhance the digitalization level and support Industry 4.0 adoption? Can you thoroughly explain how?
2.2. What are the main actions that have been done or should be done by educational organizations (i.e. universities, research centers, high schools) to enhance the digitalization level and support Industry 4.0 adoption? Can you thoroughly explain how?
2.3. What are the main actions that have been done or should be done by regional institutions, and in particular policy makers, to enhance the digitalization level and support Industry 4.0 adoption? Can you thoroughly explain how?
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Acknowledgements
The research has been funded by the European Regional Development Fund and Interreg V-A Italy-Austria 2014-2020 (code ITAT3011).
Corresponding author
About the authors
Dominik T. Matt holds the Chair for Production Systems and Technologies and heads the research department “Industrial Engineering and Automation (IEA)” at the Faculty of Science and Technology at the Free University of Bozen-Bolzano. Moreover, Prof. Matt is the Director of the Research Center Fraunhofer Italia in Bolzano. He has authored more than 200 scientific and technical papers in journals and conference proceedings and is member of numerous national and international scientific organizations and committees (e.g.: AITeM–Associazione Italiana di Tecnologia Meccanica | WGAB–Academic Society for Work and Industrial Organization | EVI–European Virtual Institute on Innovation in Industrial Supply Chains and Logistic Networks).
Margherita Molinaro is Research Fellow at the University of Udine (Italy). She graduated in Management Engineering and holds a PhD in Industrial and Information Engineering from the University of Udine (Italy). Her research interests include the areas of Industry 4.0, Supply Chain Integration, Sales and Operations Planning and Inventory Management.
Guido Orzes is Associate Professor in Management Engineering at the Free University of Bozen-Bolzano (Italy). He was also Honorary Research Fellow at the University of Exeter Business School (UK) and visiting scholar at the Worcester Polytechnic Institute (USA). His research focuses on international sourcing and manufacturing and their social and environmental implications. On these topics, has published more than 100 scientific works in leading operations management and international business journals (e.g. International Journal of Operations and Production Management, International Journal of Production Economics, International Business Review and Journal of Purchasing and Supply Management) as well as in conference proceedings and books. Prof. Orzes is involved in various EU-funded research projects on global operations management and Industry 4.0, including SME 4.0 – Industry 4.0 for SME (Marie Skłodowska-Curie RISE), European Monitor on Reshoring (funded by the EU agency Eurofound) and A21Digital Tyrol Veneto (Interreg V-A Italia-Austria). He is also Associate Editor of the Journal of Purchasing and Supply Management and member of the board of the European division of the Decision Science Institute.
Giulio Pedrini is currently Assistant Professor of Economic Policy at the Kore University of Enna. He holds a Degree in Economics, a Master's of Science in Law and Economics, and a PhD in Law and Economics. He was Visiting Research Fellow at the Institute for Employment Research (IER)-University of Warwick, and at the Universitè Libre de Bruxelles. His primary research areas are economics of regional development and economics of education and training.