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Digital transformation with agility: The emerging dynamic capability of complementary services

ABSTRACT

Purpose:

This study aims to understand how organizations accelerate a digital transformation (DT) and leverage innovations in digital services in the modus operandi of dynamic capabilities (DC) development. DT provides an agile resource mobilization in relation to the operational flexibility and to the technological and informational capabilities.

Originality/value:

This study contributes with a new theoretical-applied perspective on agility as a necessary competence for DC development, being investigated in an emerging country, in this case, Brazil. The development of DC that are suitable for DT becomes critical for capturing opportunities in the dynamic digital environment.

Design/methodology/approach:

Forty companies in the Brazilian territory were investigated in order to explore the relation between DC and DT, focusing on agility and based on the logic of literal and theoretical replication of case studies. The theoretical framework was applied to investigate companies from three empirical fields (energy, automotive, and digital services), within the triangulation of secondary sources, management reports and internal documents.

Findings:

The cases analyzed provide evidence that agility does not presuppose strong DC in sensing, as it depends on services’ maturity. We highlight the mediation of the applied use of intangible resources and digitized assets that speed up the seizing and transformation of the business. In the context of digital assets in intensive environments, we propose that DT strategy may be used with analytical intelligence and agility by integrating technological processes.

Keywords
digital transformation; dynamic capabilities; complementary services; platforms; ecosystems

RESUMO

Objetivo:

O objetivo deste estudo é compreender como organizações agilizam a transformação digital (TD) e impulsionam inovações em serviços digitais no modus operandi do desenvolvimento de capacidades dinâmicas (CD). A TD propicia a mobilização de recursos ágeis relativos à flexibilidade operacional e às capacidades tecnológica e informacional.

Originalidade/valor:

O estudo contribui ao apresentar uma nova perspectiva teórico-aplicada sobre a agilidade como uma competência neces­sária ao desenvolvimento de CD, sendo investigada em país emergente, no caso, o Brasil. O desenvolvimento de CD adequadas à TD torna-se crítico para a captura de oportunidades no dinâmico ambiente digital.

Design/metodologia/abordagem: Foram investigadas 40 empresas no território brasileiro no sentido de explorar a relação entre CD e a TD, com enfoque na agilidade e com base na lógica de replicação literal e teórica de estudos de casos. O framework teórico foi a base de validação do raciocínio aplicado em empresas de três campos empíricos (energia, automotivo e serviços digitais), com triangulação de fontes secundárias, relatórios gerenciais e documentos internos.

Resultados:

Resultados evidenciam que, entre os casos analisados, a agilidade não pressupõe CD fortes em sensing, pois depende da maturidade em servitização. Destacou-se a mediação do uso aplicado de recursos intangíveis e ativos digitizados, que atribuem velocidade ao seizing e à transformação do negócio. No contexto de ambientes intensivos em ativos digitais, propõe-se que a estratégia de TD seja realizada com inte­ligência analítica e agilidade na integração de processos tecnológicos.

Palavras-chave
transformação digital; capacidades dinâmicas; serviços complementares; plataformas; ecossistemas

INTRODUCTION

Digital transformation (DT) is a relevant topic from a strategic perspective, not only for academic research but also for companies (Hanelt et al., 2021Hanelt, A., Bohnsack, R., Marz, D., & Antunes Marante, C. (2021). A systematic review of the literature on digital transformation: Insights and implications for strategy and organizational change. Journal of Management Studies, 58(5), 1159-1197.). Digital business strategy is characterized by taking advantage of digital resources to create differential value (Bharadwaj et al., 2013Bharadwaj, A., El Sawy, O. A., Pavlou, P. A., & Venkatraman, N. V. (2013). Digital business strategy: Toward a next generation of insights. MIS Quarterly, 37(2), 471-482.). Within transforming information into digital format, also known as digitization, possibilities arise to reconfigure resources by creating or innovating strategic operations in services. The intensive application of digitalization has become a critical factor for the organization to align or build strategies regarding differentiation possibilities in a new set of resources (Fischer et al., 2020Fischer, M., Imgrund, F., Janiesch, C., & Winkelmann, A. (2020). Strategy archetypes for digital transformation: Defining meta objectives using business process management. Information & Management, 57(5), 103262.).

The lived experiences during business relationships need to be validated for the market to value and “absorb” a strategic differential, particularly in the service business. It is necessary to perceive and prove the organization’s dynamic capacity (DC) in a specifically recognized competence (Teece, 2007Teece, D. J. (2007). Explicating dynamic capabilities: The nature and micro-foundations of (sustainable) enterprise performance. Strategic Management Journal, 28, 1319-1350.). In the context of DT, it is understood that DC is a strategic exercise of a set of organizational activities whose purpose is to deliver digital value in the evolution of sectors of society and economies (Shuen et al., 2014Shuen, A., Feiler, P. F., & Teece. D. J. (2014). Dynamic capabilities in the upstream oil and gas sector: Managing next generation competition. Energy Strategy Reviews, 3, 5-13.; Warner & Wäger, 2019Warner, K. S., & Wäger, M. (2019). Building dynamic capabilities for digital transformation: An ongoing process of strategic renewal. Long Range Planning, 52(3), 326-349.).

DT provides new possibilities for network management, which allows cooperation among different actors based on the case of a greater flow of information and knowledge (Schallmo & Tidd, 2021Schallmo, D. R., & Tidd, J. (2021). Digitalization. Springer.). The intensive environments in digital assets propose that the DT strategy involves analytical intelligence and agility in integrating technological processes. Such context promotes contiguous digital capabilities for companies. The development of DCs suitable for DT becomes a critical factor in capturing opportuni- ties created in this dynamic environment of the digital context (Mikalef et al., 2019Mikalef, P., Boura, M., Lekakos, G., & Krogstie, J. (2019). Big data analytics capabilities and innovation: The mediating role of dynamic capabilities and moderating effect of the environment. British Journal of Management, 30(2), 272-298.).

DT also restructures organizational relationships and external environments. The advance in digitalization allows the search for information and the creation of knowledge based on data monitoring, for example, to promote a scientific understanding of consumer attitudes and behaviors (Braganza et al., 2017Braganza, A., Brooks, L., Nepelski, D., Ali, M., & Moro, R. (2017). Resource management in big data initiatives: Processes and dynamic capabilities. Journal of Business Research, 70, 328-337.). Beyond that, digital services may play a leading role in value creation, from the intense association of complementary services with products or the complete transformation of products into services (Cenamor et al., 2017Cenamor, J., Sjödin, D. R., & Parida, V. (2017). Adopting a platform approach in servitization: Leveraging the value of digitalization. International Journal of Production Economics, 192, 54-65.). This occurs in the so-called servitization, which is the hybrid business modeling of smart products linked to digital platforms.

This study aims to understand how companies streamline DT and drive innovations in digital services in the modus operandi of developing dynamic capabilities. To compete in the “fidigital” (hybridism between the physical and the digital), the development of unique capabilities allows strategic processes such as extensive data collection (Mikalef et al., 2019Mikalef, P., Boura, M., Lekakos, G., & Krogstie, J. (2019). Big data analytics capabilities and innovation: The mediating role of dynamic capabilities and moderating effect of the environment. British Journal of Management, 30(2), 272-298.), intelligent analytical practices (Chen et al., 2012Chen, H., Chiang, R. H., & Storey, V. C. (2012). Business intelligence and analytics: From big data to big impact. MIS Quarterly, 36(4), 1165-1188.) or new business models (Schallmo et al., 2017Schallmo, D., Williams, C. A., & Boardman, L. (2017). Digital transformation of business models best practices, enablers, and roadmap. International Journal of Innovation Management, 21(08), 1740014.).

In sum, this article aims to provide a vision of how the development of DT can support the value creation system of industry 4.0 (Erro-Garcés, 2021Erro-Garcés, A. (2021). Industry 4.0: Defining the research agenda. Benchmarking: An International Journal, 28(5), 1858-1882.) and the digital transformation (Schallmo & Tidd, 2021Schallmo, D. R., & Tidd, J. (2021). Digitalization. Springer.), highlighting the Brazilian perspective. The offer of more intelligent and faster innovative digital services would be a counterpoint to mitigate uncertainties, as suggested by Pisano (2017)Pisano, G. P. (2017). Toward a prescriptive theory of dynamic capabilities: Connecting strategic choice, learning, and competition. Industrial and Corporate Change, 26(5), 747-762.. The mechanisms that reduce the decision gap between deep existing capabilities with complementary services or expand their repertoire of abilities into new domains of the digital economy are investigated from three representative Brazilian sectors (energy, automotive, and services).

THE AGILITY FOR PROMOTING STRATEGIC CAPABILITIES FROM DT PERFORMED BY PLATFORMS AND ECOSYSTEMS

Academia and the market point to the trend of a new physical and digital environment permeated by an intelligent environment (Organization for Economic Co-operation and Development - OECD, 2019Organization for Economic Co-operation and Development (OECD). (2019). Vectors of digital transformation. OECD Digital Economy Papers, 273. https://www.oecd-ilibrary.org/science-and-technology/vectors-of-digital-transformation_5ade2bba-en
https://www.oecd-ilibrary.org/science-an...
; Erro-Garcés, 2021Erro-Garcés, A. (2021). Industry 4.0: Defining the research agenda. Benchmarking: An International Journal, 28(5), 1858-1882.). In this new environment context, this study considers the concept of agility as the dynamic process of anticipating or adjusting to those trends and needs in digital services (Blaschke et al., 2019Blaschke, M., Riss, U., Haki, K., & Aier, S. (2019). Design principles for digital value co-creation networks: A service-dominant logic perspective. Electronic Markets, 29(3), 443-472.).

Agility comes from the ability to change processes quickly and efficiently, combining and reintegrating organizational resources without interrupting routine activities. It is noteworthy that DT requires the creative capacity to develop a delivery system characterized by flexibility and speed rather than simply reorganizing old value packages (Ali & Zalisham Jali, 2018Ali, F. A. B. H., & Zalisham Jali, M. (2018). Human-technology centric in cyber security maintenance for digital transformation era. Journal of Physics, 1018(1), 012012.). There are many perspectives and applications of this concept - DT - applying it to organizations with significant differences in definitions regarding the technology types and the nature of the transformation (Vial, 2019Vial, G. (2019). Understanding digital transformation: A review and a research agenda. The Journal of Strategic Information Systems, 28(2), 118-144.).

The conceptual research framework is presented in Figure 1, identifying DC in the agile DT perspective. Sensing capabilities are related to the identification, development, improvement, and evaluation of new technological opportunities, and these opportunities can be identified both internally and externally (Teece, 2007Teece, D. J. (2007). Explicating dynamic capabilities: The nature and micro-foundations of (sustainable) enterprise performance. Strategic Management Journal, 28, 1319-1350.). Therefore, organizations manage their digital assets and seek to understand how products and services with digital intangible resources would increase their values.

Seizing capabilities are necessary for developing new products - smart or not - digitizing and adapting processes or offering new services that include digital categories (Warner & Wäger, 2019Warner, K. S., & Wäger, M. (2019). Building dynamic capabilities for digital transformation: An ongoing process of strategic renewal. Long Range Planning, 52(3), 326-349.). It means mobilizing resources and developing the collective capacity to “make it happen” to guarantee the proposed strategic value.

Teece (2018)Teece, D. J. (2018). Profiting from innovation in the digital economy: Enabling technologies, standards, and licensing models in the wireless world. Research Policy, 47(8), 1367-1387. corroborates DC in the perspective of DT, proposing that enabling technologies play a decisive role in generating value. As data- driven and design-driven innovation make up the research and development (R&D) process to assign meanings to their transformations into information (Verganti, 2009Verganti, R. (2009). Design driven innovation: Changing the rules of competition by radically innovating what things mean. Harvard Business Press.), the role of big data and its analytical capacity is highlighted (Batko, 2017Batko, K. (2017). The relation between dynamic analytical capabilities and competitive advantage: A theoretical approach. Ekonomia i Prawo. Economics and Law, 16(3), 259-273.) as levers of organizational dynamism and agility.

The agility in decision-making to take advantage of opportunities (sensing) involves a data-oriented view. This requires intelligent information use that is already received in real-time and by the internet of things (IoT), people, and services. And, those data are in the cloud, which attributes more complexity to decision-making and uncertainties (Teece et al., 2016Teece, D. J., Peteraf, M., & Leih, S. (2016). Dynamic capabilities and organizational agility: Risk, uncertainty, and strategy in the innovation economy. California Management Review, 58(4), 13-35.).

Preparing for the future, organizations need to develop new capabilities in two aspects (Weill & Woerner, 2015Weill, P., & Woerner, S. L. (2015). Thriving in an increasingly digital eco­system. MIT Sloan Management Review, 56(4), 27-34.). The first concerns further learning about customers: 1. expanding the voice of the customer within the company using digital capabilities with information about consumer goals and events; 2. amplifying the voice of the customer within the company; and 3. emphasizing evidence-based decision-making and the development of an integrated multi-product channel, providing a good customer experience. The second, on the other hand, contemplates approximation actions with an ecosystem format: 1. make its consumers’ first choice in its digitized space; 2. obtain excellence in building partnerships; 3. create service-enabled interfaces that others can use; and 4. treat efficiency and compliance as a competency (Weill & Woerner, 2015).

In emerging countries, such as Brazil, organizations require extended capabilities, as they demand a high level of organizational agility to improve their chances of survival, given the characteristics of their markets and the constant socioeconomic challenges (Erro-Garcés & Aranaz-Núñez, 2020Erro-Garcés, A., & Aranaz-Núñez, I. (2020). Catching the wave: Industry 4.0 in BRICS. Journal of Manufacturing Technology Management, 31(6), 1169-1184.).

Figure 1
Dynamic capability in the perspective of agile digital transformation

The evidence of the study is investigated by sensing and seizing the strategy mitigated by digital transformation, focusing on the gaps highlighted in the theoretical framework.

Development of digital sensing capabilities for knowledge creation

The adaptation of organizations to the reality of the 4.0 journey leads to the development of competencies and market differentials. The growth opportunities by DT of the main global organizations lead to the adoption of mechanisms to achieve better international performance and deployment of intelligent operations (production-service) systems (Ghobakhloo, 2018Ghobakhloo, M. (2018). The future of manufacturing industry: A strategic roadmap toward Industry 4.0. Journal of Manufacturing Technology Management, 29, 910-936.).

Specific relationships and commitment mechanisms stand out, allowing them to take advantage of the configuration of networks, which leads to learning and knowledge creation through data and business intelligence. Therefore, new knowledge is promoted by relationships of trust and results in the commercialization of the benefits of digitization and servitization (Cenamor et al., 2017Cenamor, J., Sjödin, D. R., & Parida, V. (2017). Adopting a platform approach in servitization: Leveraging the value of digitalization. International Journal of Production Economics, 192, 54-65.). In emerging countries, both the co-specialization of assets and the execution of complementary businesses in partnerships are subterfuges to justify the implementation of the DT meta-process via digital strategic capabilities for developing serviced intangible resources (Teece, 2007Teece, D. J. (2007). Explicating dynamic capabilities: The nature and micro-foundations of (sustainable) enterprise performance. Strategic Management Journal, 28, 1319-1350.).

The first type of mechanism is related to digital platforms, which play a central role in the value propositions of many companies, allowing the management of information and marketing benefits (Cenamor et al., 2017Cenamor, J., Sjödin, D. R., & Parida, V. (2017). Adopting a platform approach in servitization: Leveraging the value of digitalization. International Journal of Production Economics, 192, 54-65.; Hollebeek, 2019Hollebeek, L. D. (2019). Developing business customer engagement through social media engagement-platforms: An integrative SD logic/RBV-informed model. Industrial Marketing Management, 81, 89-98.). Consequently, big data, artificial intelligence (AI), and machine learning have become requirements for companies to participate in the competitive game in digital platform ecosystems (Vial, 2019Vial, G. (2019). Understanding digital transformation: A review and a research agenda. The Journal of Strategic Information Systems, 28(2), 118-144.).

The second type of mechanism is supported by ecosystems that lead to the exploitation (seizing) of opportunities, such as those driven by co-creation resources and shared with the development of costs (Blaschke et al., 2019Blaschke, M., Riss, U., Haki, K., & Aier, S. (2019). Design principles for digital value co-creation networks: A service-dominant logic perspective. Electronic Markets, 29(3), 443-472.). However, several types of ecosystems are mainly related to value capture (Helfat & Raubitschek, 2018Helfat, C. E., & Raubitschek, R. S. (2018). Dynamic and integrative capabilities for profiting from innovation in digital platform-based ecosystems. Research Policy, 47(8), 1391-1399.). As a theoretical consequence, those ecosystem approaches describe the increasing interdependence and co-evolution of contemporary business and innovation products (Walrave et al., 2018Walrave, B., Talmar, M., Podoynitsyna, K. S., Romme, A. G. L., & Verbong, G. P. (2018). A multi-level perspective on innovation ecosystems for path-breaking innovation. Technological Forecasting and Social Change, 136, 103-113.).

Thus, the first proposition of the article is:

  • Organizations can be effective learners and can accelerate the changes when they skillfully use the digital and analytical resources of digital platforms and ecosystems.

This specialized experience builds potential capabilities improving innovation and moving organizational motivation to pursue other new technologies (Ghobakhloo, 2018Ghobakhloo, M. (2018). The future of manufacturing industry: A strategic roadmap toward Industry 4.0. Journal of Manufacturing Technology Management, 29, 910-936.). On the other hand, experts characterize DT by some characteristics: customer orientation, mobility, speed, and data orientation (Akatkin et al., 2017Akatkin, Y. M., Karpov, O. E., Konyavskiy, V. A., & Yasinovskaya, E. D. (2017). Digital economy: Conceptual architecture of a digital economic sector ecosystem. Business Informatics, 4(42), 17-28.) that are presented at the fundamental micro level attributing agility factors (Teece, 2018Teece, D. J. (2018). Profiting from innovation in the digital economy: Enabling technologies, standards, and licensing models in the wireless world. Research Policy, 47(8), 1367-1387.).

In addition, Erro-Garcés and Aranaz-Núñez (2020)Erro-Garcés, A., & Aranaz-Núñez, I. (2020). Catching the wave: Industry 4.0 in BRICS. Journal of Manufacturing Technology Management, 31(6), 1169-1184. analyzed articles on the readiness of industrial companies and economies. Most agree on the importance of assessing this availability as it affects challenges in both internal and external factors. These types of factors could be classified as micro-conditions (company strategy, intra-organizational communication, implemented technologies, employees, products/services, and innovation) and macro-conditions (the collaboration of institutions and the country’s technological level), corroborating with Teece (2018)Teece, D. J. (2018). Profiting from innovation in the digital economy: Enabling technologies, standards, and licensing models in the wireless world. Research Policy, 47(8), 1367-1387..

Development of dynamic seizing capabilities for digital business transformation

Promoting large amounts of change in a short period, as assumed by Helfat and Winter (2011)Helfat, C. E., & Winter, S. G. (2011). Untangling dynamic and operational capabilities: A strategy for the (n)ever-changing world. Strategic Management Journal, 32, 1243-1250., presumes adopting platforms or joining ecosystems in the new economy. Fundamentally, the relationship between dynamic and operational capabilities affects strategies for either digital support or digital transformation (Nambisan et al., 2019Nambisan, S., Zahra, S. A., & Luo, Y. (2019). Global platforms and eco­systems: Implications for international business theories. Journal of International Business Studies, 50(9), 1464-1486.). As dynamic capabilities foster organizational agility - for the detection and apprehension of approaches under intense uncertainty - contributions to innovation and competition in dynamic environments associated with DT stand out (Teece et al., 2016Teece, D. J., Peteraf, M., & Leih, S. (2016). Dynamic capabilities and organizational agility: Risk, uncertainty, and strategy in the innovation economy. California Management Review, 58(4), 13-35.; Teece, 2018Teece, D. J. (2018). Profiting from innovation in the digital economy: Enabling technologies, standards, and licensing models in the wireless world. Research Policy, 47(8), 1367-1387.).

Thus, the second proposition of the article is:

  • The influence of integration by agile resources is a critical factor for DT in organizations that are operating in the territory of Brazil and, in particular, when driven by the synergistic effects of using platforms and ecosystems.

Understanding DT from a strategic point of view reveals critical issues for raising awareness of industry 4.0 value creation systems (Ghobakhloo, 2018Ghobakhloo, M. (2018). The future of manufacturing industry: A strategic roadmap toward Industry 4.0. Journal of Manufacturing Technology Management, 29, 910-936.), as they can promote economically significant gradual changes (Erro-Garcés, 2021Erro-Garcés, A. (2021). Industry 4.0: Defining the research agenda. Benchmarking: An International Journal, 28(5), 1858-1882.). These orchestrate dynamic changes based on solid and fast capabilities, given the interoperable/interchangeable nature of information and the collaborative/collective effect of mobilizing strategic actions (Helfat & Winter, 2011Helfat, C. E., & Winter, S. G. (2011). Untangling dynamic and operational capabilities: A strategy for the (n)ever-changing world. Strategic Management Journal, 32, 1243-1250.; Teece et al., 2016Teece, D. J., Peteraf, M., & Leih, S. (2016). Dynamic capabilities and organizational agility: Risk, uncertainty, and strategy in the innovation economy. California Management Review, 58(4), 13-35.).

The increasing expansion of actor networks in this technological journey, beyond their temporal, organizational, and spatial limits, is crucial to account for the effect of value co-creation. For example, it is possible to cite the processes of information systems in multi-actor configurations (Blaschke et al., 2019Blaschke, M., Riss, U., Haki, K., & Aier, S. (2019). Design principles for digital value co-creation networks: A service-dominant logic perspective. Electronic Markets, 29(3), 443-472.) or the use of technology to radically improve the performance or reach the digital way in organizations (Westerman et al., 2011Westerman, G., Calméjane, C., Bonnet, D., Ferraris, P., & McAfee, A. (2011). Digital transformation: A roadmap for billion-dollar organizations. In MIT Center for Digital Business and Capgemini Consulting (pp. 1-68).).

Therefore, dynamic capabilities involve facing future external and internal challenges and opportunities and determining what the company should do in the future. Capabilities ensure firm access to the resources needed to implement the appropriate organizational design (Teece, 2017Teece, D. J. (2017). Dynamic capabilities and (digital) platform lifecycles. In J. Furman, A. Gawer, B. S. Silverman, & S. Stern (Eds.), Entrepreneurship, innovation, and platforms (pp. 211-225). Emerald.). Enabling technologies (Ghobakhloo, 2018Ghobakhloo, M. (2018). The future of manufacturing industry: A strategic roadmap toward Industry 4.0. Journal of Manufacturing Technology Management, 29, 910-936.) also play an important role, as they can posi­tively and significantly affect agility and competitive advantage (Teece, 2018Teece, D. J. (2018). Profiting from innovation in the digital economy: Enabling technologies, standards, and licensing models in the wireless world. Research Policy, 47(8), 1367-1387.).

An essential element for DT is resource orchestration. This capability is based on the modularization of platforms to identify resources and explore global opportunities (Nambisan et al., 2019Nambisan, S., Zahra, S. A., & Luo, Y. (2019). Global platforms and eco­systems: Implications for international business theories. Journal of International Business Studies, 50(9), 1464-1486.). Platforms offer the integration of resources with existing services, connecting different actors through digital means. Therefore, orchestration must ensure the harmonious coordination of internal and external physical, human, and logistical elements (Teece, 2017Teece, D. J. (2017). Dynamic capabilities and (digital) platform lifecycles. In J. Furman, A. Gawer, B. S. Silverman, & S. Stern (Eds.), Entrepreneurship, innovation, and platforms (pp. 211-225). Emerald.).

This integrative resource orchestration capability goes beyond the simple information flow solution and involves the ability to articulate and manage resources promoting innovativeness (Fuchs et al., 2000Fuchs, P. H., Mifflin, K. E., Miller, D., & Whitney, J. O. (2000). Strategic integration: Competing in the age of capabilities. California Management Review, 42(3), 118-147.). Organizational performance is associated with resource development, technologies for innovation, digitization, capabilities for environmental sensing, and integrative capabilities for ecosystem orchestration. In the spotlight, integrative competencies play a crucial role in enhancing the ability of platform leaders to capture value (Helfat & Raubitschekb, 2018). In a data-driven economy, analytics drive strategic actions and assign organizational governance via digital (Batko, 2017Batko, K. (2017). The relation between dynamic analytical capabilities and competitive advantage: A theoretical approach. Ekonomia i Prawo. Economics and Law, 16(3), 259-273.). In summary, knowledge from this orchestration presupposes being managed in a peculiar way, inherent to the DNA of the organization, seeking to recreate a new and ingenious agile management system (Miozzo et al., 2016Miozzo, M., Desyllas, P., Lee, H. F., & Miles, I. (2016). Innovation collaboration and appropriability by knowledge-intensive business services firms. Research Policy, 45(7), 1337-1351.).

METHODOLOGY

Qualitative research was conducted through the multiple-case study strategy to understand how companies streamline DT and drive innovations in digital services in the modus operandi of developing dynamic capabilities (Yin, 2016Yin, R. K. (2016). Pesquisa qualitativa do início ao fim. Penso.). Forty cases were selected in the logic of literal and theoretical replication to ensure consistency and diversity of scenarios and evidence for the research (Dubé & Paré, 2003Dubé, L., & Paré, G. (2003). Rigor in information systems positivist case research: Current practices, trends, and recommendations. MIS Quarterly, 27(4), 597-636.). Companies in three Brazilian sectors (energy, automotive, and digital services) with an active presence of DT were conducted from different vectors of DT, different levels of dynamic capabilities, and different enabling technologies (see Figure 2). These multiple sectors support the criterion of maximum heterogeneity between cases (Merriam & Tisdell, 2015Merriam, S. B., & Tisdell, E. J. (2015). Qualitative research: A guide to design and implementation. John Wiley & Sons.). Numerous cases contribute to external validity by taking advantage of different managerial perspectives and empirical contexts to build diversified evidence (Leonard-Barton, 1990Leonard-Barton, D. (1990). A dual methodology for case studies: Synergistic use of a longitudinal single site with replicated multiple sites. Organization Science, 1(3), 248-266.). The unit of analysis was specified to capture the strategic dynamics of DT of each case analyzed, as comparisons between theory and cases allow for a more vigorous clarification construction process by understanding the effects of contextual variables (Urbinati et al., 2019Urbinati, A., Bogers, M., Chiesa, V., & Frattini, F. (2019). Creating and capturing value from big data: A multiple-case study analysis of provider companies. Technovation, 84, 21-36.).

Figure 2
Categorical breakdowns

The interviewed people were chosen to represent the company’s vision and DT strategies. Each company selected a c-level informant (directors or executive managers) and linked to the DT process. The literature points out that the use of high-level informants is indicated for research regarding management and organizational strategy, as they can reliably inform the organization’s values and strategic directions, contributing to the external validity of the results (Solarino & Aguinis, 2021Solarino, A. M., & Aguinis, H. (2021). Challenges and best-practice recommendations for designing and conducting interviews with elite informants. Journal of Management Studies, 58(3), 649-672.). In some cases, given the complexity of the organizational structure, additional respondents were appointed. The interviews were carried out by telephone, teleconference, or in person. Each interview was recorded and transcribed. In cases where the recording was not authorized, notes were used to record the information acquired.

In addition to the semi-structured interviews, secondary sources were investigated, such as internal documents provided by the companies, and public information, obtained from institutional websites and specialized sources. Plurality contributes to study validity, in line with recommen­dations on diversifying data sources in case studies (Eisenhardt, 1989Eisenhardt, K. M. (1989). Building theories from case study research. Academy of Management Review, 14(4), 532-550.). Regarding the limited time available to the respondent executives, the indication was followed by elaborating semi-structured scripts, covering all relevant topics without restricting the conversation (Solarino & Aguinis, 2021Solarino, A. M., & Aguinis, H. (2021). Challenges and best-practice recommendations for designing and conducting interviews with elite informants. Journal of Management Studies, 58(3), 649-672.). Appendix 1 presents the final inventory of data sources. In total, 40 companies were studied, and 59 interviews were carried out, totaling 62 hours and 35 minutes, composing a sound universe of 101,172 words in transcription. Also, 1,840 secondary documentary sources were analyzed.

An initial set of semi-structured questions (Appendix 2), based on the literature, was formulated to answer the research question in three main axes: the Digital Transformation one composed of eight questions; the Dynamic Capabilities pillars (sensing, seizing, knowledge management), consisting of 24 questions; and the third axis, ending the reasoning, with enabling technologies and platforms, containing 12 questions.

For data analysis, the analytical strategy was applied, identifying evidence that corresponded to the theoretical standards predicted by the literature. An analysis protocol with theoretical categories and conceptual criteria was developed to provide uniformity in data treatment (see Appendix 3).

DATA ANALYSIS AND DISCUSSIONS FROM THE INDUSTRIES PERSPECTIVE: AUTOMOTIVE, ENERGY, AND DIGITAL SERVICE

In the empirical context of the cases, it was possible to show that DC is associated with DT strategies based on digital technologies that enable innovation. In Appendix 4, the analyzed cases summarized strategies based on the digitization of processes followed by the offer of digital solutions (Table 1). DT processes associated with innovation were more evident in cases with well-established R&D structures.

The investigation focused on how organizations accelerate digital transformation (DT) and drive digital service innovations in developing dynamic capabilities. The cases were categorized in terms of the characteristics of the companies’ capabilities by identifying opportunities (sensing), exploiting opportunities (seizing), and digital transformation associated with agility in these capabilities (see Appendix 5). Different groups combined strong evidence of skill in sensing and seizing with enabling and innovative use of DT. These were contrasted with groups of low innovativeness and agility, which use digital technologies to optimize processes.

Table 1
Digital transformation strategies found

Organizations that promote DT with agility are effective both in taking advantage of digital opportunities and in the skill of learning and dealing with the barriers found in emerging markets, such as Brazil. One example is digital connectivity. DT is strongly supported by mobile networks and technologies, whose national reality is quite different from developed markets. According to the industrial quality manager of E23, a Japanese automaker:

We don’t have 5G, we have a connectivity that is constantly interrupted, so we can’t really deliver everything we design, that we think for our customer, this causes some frustration in the customer because it is giving an accessory that does not work.

Therefore, companies need to learn from the intrinsic characteristics of the environment in which they are competing and be effective in speeding up and applying digital resources to deliver innovations.

The orchestration of digital resources is evident as a necessary competence for agility in the delivery of value. In the analyzed cases, it was understood that the companies’ ability to respond to the environment (seizing) was supported by their ability to use information resources to identify and take advantage of market opportunities.

Furthermore, the chief digital transformation officer at E27 points out that in his multinational “integrated, autonomous, intelligent systems do half the work for us, so we can respond much faster to our internal and external customers” corroborating the logic of technological value creation by Ghobakhloo (2018)Ghobakhloo, M. (2018). The future of manufacturing industry: A strategic roadmap toward Industry 4.0. Journal of Manufacturing Technology Management, 29, 910-936. and Erro-Garcés and Aranaz-Núñez, (2020)Erro-Garcés, A., & Aranaz-Núñez, I. (2020). Catching the wave: Industry 4.0 in BRICS. Journal of Manufacturing Technology Management, 31(6), 1169-1184. for players in emerging markets.

The skillful use of digital and analytical resources provides agility in generating and delivering value in the context of dynamic environments. The CEO of the company E1, a corporate start-up of aeronautical digital services, illustrates the importance of the analytical capacity of organizations for the generation of value from data:

The generation of value, it is not within the borders of the company, right, it is it’s out [...]. This is the challenge of this model carried out by technology and data […]. We understand, well, it (technology) is not an end, it is a means.

Organizations must be agile in the DT to operate a data-driven value creation strategy. Adopting real-time executable methods that provide data for nimble decision-making is still a worrying challenge. Dealing with poor data infrastructure quality issues and ensuring data security requires technical and managerial deliverability in terms of speed and efficiency, availability, reduced latency, and tolerance to high densities of digital devices.

However, the energy and automotive industries foster innovation projects through strategic partnerships (Appendix 5) with other companies and science and technology institutions. When framed within global borders, some entities evidence the use of platforms as an exclusive stage of strategic digital transformation. It is noted that the decrease in communication and computing costs offers companies opportunities to increase their competitive advantage by applying innovative collaboration. This is evident with suppliers and complementary partnerships, notably with ecosystem effects in digital services. It is argued that these new services add value to the customer or act as a “stepping stone”, a means of advancing towards recon­figuring resources for DT.

Analysis of the strategic impact of digital platforms

Triangulated data (Appendix 3) indicates that industrial logic is essential for the intelligent application of platforms. The investigated organizations reported strategic media use with particular emphasis on streamlining capabilities. The CEO of E27, from the RFID services sector, highlighted the effect of the customer experience as an opportunity for business development: “When we mapped this market and then made the architecture of the solution, it is a pillar to be flexible to the maximum in terms of integration and to make it highly customizable”. However, the innovation director of another respondent, one of the most innovative in the national territory, highlights the challenges of offering value with personification:

This possibility of monitoring the quality and operation of the equipment, from a distance, gives you a large scope number of services, new services are being offered, new parameters are applied or thought of, and new concerns too, such as safety, such as equipment safety, and the protection of industrial parks, also come to the fore.

The integration provided in the transference of knowledge across the borders of the digital environment implies the dynamic ability to perceive the level of agile decision-making, differing from the ordinary ones. About an agricultural vehicle manufacturer - winner of innovation awards: “Our differential lies in the intelligence of the data offered that our competitors are not able to have”. This positioning implies offering agile services with a superior experience. The interviewer E15 gives evidence of decision-making agility in “ […] generating a variety of topographic and yield maps to establish yield performance and comparing them to multi-year average maps to identify areas that deliver consistently high or low yields”.

Analysis of the strategic contribution from analytical capabilities

The analysis of the 40 cases allowed us to identify a distinct set of companies that presented remarkable indicators in terms of their dynamic capabilities and agility, with particular emphasis on integration, contributing to Proposition 2. These entities are shaded at the bottom of Appendix 2.

Regarding the capacity for integration and development of dynamic capabilities, performances that are quite different among the cases studied stand out. Since this capacity for integration means skill in mobilizing tangible and intangible assets as a composition of unique DT resources, other cases highlight integrative capabilities (Helfat & Raubitschekb, 2018) associated with analytics (Batko, 2017Batko, K. (2017). The relation between dynamic analytical capabilities and competitive advantage: A theoretical approach. Ekonomia i Prawo. Economics and Law, 16(3), 259-273.) with an effect on agility.

The first case is a global manufacturer of generation equipment that showed that they created an

[…] ecosystem that connects and integrates equipment and sensors, capable of collecting and storing data and transforming them into information that makes it possible to monitor, control, and automate operations… performing analysis in real-time, is the company’s expertise applied in the development of more efficient technologies for the continuous growth of industry 4.0.

Finally, the most extensive reference in automation in the national territory confirms that “the data integrated systems end up connecting, ascending to Business Intelligence Systems and within these Dashboards Analytics are set up, in order to be able to metric results and monitor the progress of both ours and our customers’ business”.

Evidence in thirty cases indicates that developing dynamic DT capabilities implies new analytical skills from the executive and managerial levels, corroborating Proposition 1. The fluidity of data and the ability to collect them in abundance requires an analytical counterpart on the part of human resources. Agile action in the context of DT is heterogeneous as the cognition of decision makers. There is a critical element for digital innovation - as shown in Appendix 2 - which highlights both digital solutions (11 entities) and their impact on the business model, as well as the frequency of use of protocols (34 apply robust algorithms) and their decisions, unfolded with intelligence (with an emphasis on IoT/S in four entities).

The ability to orchestrate resources for DT demonstrated effects with lower transaction costs, optimization of business infrastructure, and increased sales. The cases have shown that the functional configuration of platforms allowed the simplification of work and the integration of processes. In the consumer market, companies reported that the platforms allowed greater connection with the customer, translating into relationship advantages and increased satisfaction. Digitized relationships allow a more remarkable ability to track performance metrics and obtain real-time analytics data during the consumption experience. Thus, in the inseparable logic of service provision and consumption, real-time attention allows dynamic and agile actions, adjusting to changes in the environment, consumer, or service process. This emphasizes companies that are strong in agile sensing, seizing, and transforming, all highlighted at the bottom of Appendix 2.

According to the consolidated data (Appendix 5), among the incumbents, the prioritization of DT is not always the origin factor for the development of dynamic capabilities, considering the criterion of transaction costs. Learning about the technological transition is more important than reconfiguring the business model, even if digital natives tend to make the organizational structuring nexuses of these more traditional entities obsolete. So, the effect is a mediator.

The mastery of skills associated with digital platforms also guarantees agility and the imposition of strategic barriers. The possibilities of new relationships, combined with technological capacity, the operational flexibility of organizational processes, and integrated technical systems, can make it difficult for new competitors to enter the market, especially when a dependency relationship among consumers is created with the platform offered.

Examples of this discussion can be seen in the automotive industry, where performance is related to 4.0 technologies. At the same time, in the energy chain, DT has a more significant influence on the strategic potential of its viability with strong technological governance, adapting the digital to remote operations. Both industries are associated with R&D projects (Table 2) on which digital services assign strategic solutions to the vulnerabilities listed above (breaking technological barriers quickly and adding value to the customer with innovative services). These solutions contributed to process efficiency and information agility. Reliability was also improved.

Table 2
Outstanding companies in R&D and innovation metrics

On the other hand, the orchestration of platform resources and ecosystems reveals new technological components to promote co-innovation, creativity, and cooperation, especially in the service chain. Among stakeholders, this allows a broader set of entities with more knowledge absorbed and heterogeneity for complementary innovations in digital services.

Among the cases analyzed, 14 entities attributed importance to IoT/S and AI as performance enablers, showing solution categories and models in seizing in Appendix 2. In these organizations, the use of analytics is crucial for sensing. As service organizations have a business model based on intangibility, the development of analytical capabilities occurs concomitantly with integrative ones. As consumption is not separated from its operation, real-time monitoring proves to be a critical success factor, like a company that has been operating its plants remotely for 15 years. We do this process in a super planned way, in a super safe, with all the necessary security in technical and operational terms, all monitoring systems and staff on standby if necessary”.

Therefore, an effect on agility was identified as strategic value, technological capacity, and operational flexibility of organizational processes and information technology (IT) systems (Chen et al., 2014Chen, Y., Wang, Y., Nevo, S., Jin, J., Wang, L., & Chow, W. S. (2014) IT capability and organizational performance: The roles of business process agility and environmental factors. European Journal of Information Systems, 23(3), 326-342.) as mediating factors (Zhou & Wu, 2010Zhou, K. Z., & Wu, F. (2010). Technological capability, strategic flexibility, and product innovation. Strategic Management Journal, 31(5), 547-561.). Another example is a yarn supplier in the automotive industry that justifies that “manufacturing applications are viable and machine learning systems, artificial intelligence, make the interactions, to understand what is the best sequence to produce”.

The company’s ability to innovate positively impacts organizational agility when digitization and digitization are embedded in the business model. Entities with greater innovation capacity demonstrate a more remarkable ability to leverage their digital platforms to increase agility, such as streaming and telecommunications services.

General analysis of the cases

Although the construction of capabilities for DT is strongly evidenced, the cases analyzed pointed to a gap in the relationship with innovation. Agility in DT is not a prerogative of innovation. It was observed that the development of capacities was oriented towards the operational and execution domain of the DT and was dependent on decentralization (20 entities). A South American multinational manufacturing manager says that “currently, professional excellence has gained a management in each of the operations, in each of the countries that are bringing automation concepts, of industry 4.0 to start implementing”. These entities started managing their own 4.0 ambiance and innovation projects aiming at different objectives (ranging from operational excellence and servitization to sustainability). Still, when multidivisional structured, entities showed a predisposition to budgetary freedom with a collaborative profile of innovation management that is very frequent in automobiles. E33 stands out, stating “The staff has innovated in the organizational structure so that it generates collaboration and generation of innovation in an agile, efficient and focused way”. Among energy companies, sustainability is a vector for the development of decentralized projects focused in services, start-up structures, technology verticals and applied technology centers which may generate extra revenue by offering innovative and digital services.

Practices and routines for transforming data and information into creative and innovative solutions were only weakly observed where there is no decentralization. In general, there is no recurrent practice of knowledge management performed in a way that knowledge is transferred among the involved and connected actors. This indicates that using dashboards and real-time monitoring platforms does not guarantee the synergistic effect on innovation projects and the creation of new products. This explains the difficulty of these entities in adhering to the practice of open innovation because they have not learned to deal with the risks and uncertainties of this innovation procedure.

There is no applied research in new domains in the analyzed environments. This is a gap for future investigations. Another example of capabilities that need to be developed concerns using artificial intelligence. While AI refers to the ability of a system to correctly interpret, learn and use external data, achieving specific goals and tasks through flexible adaptation is a critical success factor for DT and the readiness of the business model for digital operation. Except for automotive innovation projects based on autonomous vehicles (cars driven by intelligent systems without drivers) and eVTOLs (a combination of a flying car and an electric helicopter), the potential of AI has been little explored.

The energy industry has demonstrated above-average supply chain orchestration capabilities. It is possible that the regulation of the sector, which establishes minimum levels of investment in research and development, has contributed to the seizing capabilities. It was observed that different actors and companies in the energy generation and distribution system have a high technological capacity in their processes, products, and services. As a result, many machines, equipment, and systems have increased the scope and functionality of energy service due to partnerships in the innovation chain, with the advantage of reasonable costs and excellent reliability of operations.

The service industry also observed the integration of the supply chain as an element of DT. However, unlike energy companies, the most significant impact of these capabilities occurred in the reconfiguration of business models, depending on the end customer. Greater sensing capacity suggests an advantage in using information sources from the platforms for project intelligence, with intense personalization in electronic channels and customer relationships. The service in digital channels is a sideboard of strategic information. The elimination of intermediaries and the participation of industries directly in the retail market was also an example of the construction of new capacities to operationalize a digital strategy, of direct relationship between industry and consumer.

A truck assembler corroborates this statement, noting that

DT comes to the outputs for all channels [...] we had to modernize and have sales channels. Since the free market that we have, I don’t think so many applications have been created to provide services.

This relationship is also characterized by the offer of complementary services, as a way of differentiation or even as an additional source of revenue.

Overall, users’ IT knowledge and experience is a significant enabler of manufacturing digitization, as they can facilitate the implementation of advanced and more effective technologies by reducing the degree of uncertainty. Table 3 provides evidence that enabling technologies to anticipate vulnerabilities and, as indicated in Table 1, result in benefits by capturing and retaining opportunities for business evolution. In this decision-making logic, agility is an essential component and is associated with the potential of this anticipation by IT capacity (Ravichandran, 2018Ravichandran, T. (2018). Exploring the relationships between IT competence, innovation capacity and organizational agility. The Journal of Strategic Information Systems, 27(1), 22-42.).

Secondary data revealed a link between platforms and financial performance (Tabela 3). Monetization issues are being overcome due to the focus on user experience, as customers perceive value creation. Among the entities, when decision-making is guided by data and intelligence (11 entities that have digital or complementary platforms in the business), all digital services are related to marketing communication in an integrated way. And social media allow vertical digital integration, targeting a multifaceted platform complexity.

Table 3
Financial performance and seizing indicators

However, the seizing capabilities indicated the development of business models with a unique offering, exclusive and intelligent products, and services with a customized experience in four entities. A director of new streaming services products highlights that

[…] the way in which competitive difference is maintained has a lot to do with the ability to analyze customer data and use it to your advantage [...] what you see in your login is different from all other logins, they have like more than 20 covers for the same movie selected according to your user profile.

The previously highlighted digital solutions return with evidence of seizing and strengthening the importance of platforms for transforming and using the internet of things/services in business modeling with average frequency.

Consequently, it is noted that DT can be defined as a driver of know-how, and in addition, the patent development process and protection are associated (Table 2). On the other hand, integrating digital services on platforms showed moderate evidence concerning relevant cases in the dynamics of DT (Appendix 5). In the performance analysis, it is observed that organizations that enhance the culture for DT were better for implementing changes, as they could face better barriers to developing dynamic capability. A prominent external factor was associated with the mobility achieved by digitalization with less impact on the environment, on which digital services are responsible for capturing these investments justified by their carbon neutrality (Appendix 6).

FINAL REMARKS

This article investigated organizations in the automotive, energy, and digital services sectors to understand how to accelerate digital transformation and drive innovations in digital services in the modus operandi of dynamic capability development. Two theoretical propositions (Table 4) were elaborated to guide the reflection on the emphasized theme.

As for the first theoretical proposition - organizations can be effective learners and can accelerate the changes when they skillfully use the digital and analytical resources of digital platforms and ecosystems -, the relevance of learning associated with the applied use of 4.0-based technologies, as the strategic way of promoting an agile digital transformation. Its application in business operations offers differentiation and business opportunities to compete globally (Chen et al., 2019Chen, L., Shaheer, N., Yi, J., & Li, S. (2019). The international penetration of international business firms: Network effects, liabilities of outsidership, and country clout. Journal of International Business Studies, 50(2), 172-192.). The application of large-volume data analysis techniques presupposes that it is considered a precedent source of knowledge management.

Regarding the second theoretical proposition -the influence of integration by agile resources is a critical factor for DT in organizations which are operating in the territory of Brazil and, in particular, when driven by the synergistic effects using platforms and ecosystems -, it was observed that the technological advancement of industry 4.0 and digital transformation allows the creation of specific capabilities, which are considered critical for the effectiveness of service platforms. Among these capabilities, the most observed was the ability to be agile, revealing itself as a specific competitive factor when it becomes a dynamic capability. Industry 4.0 policies and reduced transaction costs can expedite benefits for firms and subsidiaries. This transaction cost reduction can be achieved by orchestrating platforms and ecosystems relating and integrating multiple levels of knowledge sources.

Table 4
Evidences consolidation per proposition

Platforms and ecosystems are associated with creating value to obtain sustained competitive advantages through knowledge creation by their interactions in the practices and routines established in the sensing and seizing of opportunities. It also reinforces the assumption that organizations’ dynamic capabilities can be complementary, which can improve these innovative ways of creating value.

Regarding this investigated complementarity, evidence contributed to deepening the relationship between digital governance and dynamic capa­bility with organizational agility. Elements that promote partnerships in developing projects with suppliers and complementary businesses for digital management were explored. Digital acceleration mechanisms were identified to understand which routines and development systems of each subcategory of dynamic capabilities were solidified by digital technologies, with an emphasis on the digitization of processes - digitization for a new business model with servitization singularities. The sub-categorization raised elements in the field to identify factors associated with organizational agility in digital seizing.

However, complementary assets can arise from the exchange between market scanning, externalizing other sources of knowledge, and decreasing information asymmetry. Artificial intelligence adds to more complex and assertive decision-making. An essential theoretical contribution can realize long-term benefits in innovation within new markets and new consumer needs by exploring behavioral patterns abstracted from machine learning hypotheses.

Among the analyzed cases, agility does not presuppose strong dynamic capabilities in sensing, as it depends on maturity in servitization. It is related to the mediation of the applied use of intangible resources and digitized assets that speed up the mobilization and transformation of the business. It is suggested to understand how they are involved in new domains in the analyzed environments as a particular gap for future investigations.

Limits of research and future studies

It is noteworthy that analysis and discussions are referred to a particular context, limited to the chosen cases, and other different categories could be added to explore new approaches in the research on strategic capabilities. Thus, generalization can be investigated quantitatively.

Service companies do not exhibit organizational behavior like product manufacturers or sellers. Intangibility can reveal creatively developed complementary assets. In this sense, new research strategies are explored, including, for example, the creative economy or public services, in which new contexts can lead to the construction of competitive elements. It is also proposed, in future works, to examine the investigation of digital knowledge assets with coordination of economic activities across national borders.

Appendix 1

Characterization of data sources
Entity Description Synchronous interactions Responsible for digital transformation Primary data Secondary data Transcription duration Documents (total) Public documents (total) E1 Brazilian transnational conglomerate 1 CEO of corporate start-up 1h30min - 2,045 words 5 45 E2 Spin off of American multinational 1 Operations Manager 1h2min - 1,222 words 5 39 E3 Global bank 1 Manager (DT) 1h5min - 1,345 words 8 34 E4 Global digital bank 1 Manager (DT) 58 min - 1,200 words 12 24 E5 South American multinational 1 President 57 min - 1,113 words 1 6 E6 German multinational 1 Chief Operating Officer 57 min - 1,117 words 4 28 E7 Applied technology company 2 Consultant specialist 1h2min - 1,193 words 4 18 E8 Applied technology company 2 Consultant specialist 1h3min - 1,147 words 5 13 E9 German multinational 1 Operations Manager 59 min - 1,306 words 8 28 E10 American multinational 3 Industrial Engineering Manager 3h7min - 9,328 words 13 48 E11 Japanese multinational 2 R&D and Manufacturing Managers 2h3min - 2,496 words 7 38 E12 Brazilian multinational 1 Director of Innovation 1h2min - 1,089 words 10 28 E13 Chilean multinational 1 Industrial Operations Manager 1h12min - 1,423 words 14 29 E14 American multinational 2 Improvement and Innovation Managers 2h12min - 2,267 words 12 31 E15 Italian multinational 2 HR and DT Directors 2h3min - 2,522 words 12 28 E16 American multinational 1 Industrial Engineering Manager 3h7min - 9,328 words 14 23 E17 American multinational 2 Operations Manager 2h2min - 2,118 words 13 32 E18 German global family business 2 Industrial Project Manager 2h7min - 6,722 words 3 38 E19 French multinational 2 Chief Operating Officer 2h22 min - 1,822 words 8 39 E20 German multinational 1 Industrial Commercial Manager 58 min - 1,209 words 2 14 E21 National mixed economic holding 1 Digital Transformation Director and Operations Supervisor 1h45min - 3,800 words 28 123 E22 Entity without profitable funs 1 President of Institute 1h12min - 1,422 words 29 68 E23 Japanese multinational 1 General Manager of Quality 59 min - 1,321 words 5 27 E24 German multinational 1 Digital Services Officer 1h4min - 1,339 words 22 45 E25 American multinational 1 Digital Transformation Officer 1h15min - 1,507 words 12 47 E26 South American theme park 2 Director of Innovation 1h49min - 1,792 words 2 27 E27 Specialized digital services company 1 Chief Executive Officer 1h12min - 1,377 words 2 23 E28 Digital innovation ecosystem 2 Chief Ecosystem Officer and Operations Manager 2h37min - 8,000 words 4 38 E29 American multinational 1 Director of Innovation 1h4min - 1,439 words 12 62 E30 Private power generator 2 DT Director 2h11min - 2,423 words 28 73 E31 Private renewable energy generator 2 HR and DT Managers 2h38min - 3,128 words 37 52 E32 Empresa familiar francesa 3 Vice president of Digital Services 3h8min - 8,600 words 12 57 E33 U.S. global technology company 1 New Product Director 1h7min - 1,067 words 4 16 E34 Applied technology company 2 Partner 1h34min - 1,537 words 2 10 E35 Specialized digital services company 1 Project Manager 59min - 973 words 4 22 E36 Spin off digital services 2 Chief Executive Officer 1h52min - 1,893 words 4 22 E37 Applied technology company 1 Director of Digital Services 1h5min - 1,287 words 5 21 E38 Start-up of digital services 1 Chief Executive Officer 59 min - 1,019 words 3 18 E39 National family business 2 Director of Innovation 2h5min - 4,013 words 18 56 E40 German multinational 1 Digital Transformation Officer 58min - 1,223 words 18 39

Appendix 2

Semi-structured interview protocol
Digital transformation 1. Describe what the company’s digital transformation journey has been like. 2. Have the actions been worked on at the strategic level and in the business model?a) Was it conducted in a market-imposed manner? b) In case of branches, was there a pilot project/pilot plant with replicable models? c) Is there a specific sector dealing with this issue in the company? 3. Describe how the company’s reaction was during the pandemic (critical event and decision-making skills). How has scanning helped this process? 4. What is the reason for adopting these strategic actions in the digital flow? 5. What is the role of digital platforms as a strategic resource? Is the company embedded in an ecosystem? 6. What are the perceived benefits and limitations of this process of change in the company? What is the role of leadership in this journey? 7. Which routines were impacted by digitization? 8. Which performance metrics have benefited the most from TD? Dynamic capabilities(sensing, seizing, and transforming) 9. Describe the company’s innovation process.10. What are the innovation management processes in the company? 11. Is there a department responsible for innovation? How are routines in this sense? a) Does the company invest in R&D/C&T? b) Are there partnerships with other institutions (e.g. start-ups, universities and NGOs)? 12. What is the participation of employees (external or not), suppliers and customers in innovation projects? 13. In relation to intellectual property: does the company already have a patent or application process? 14. How the company’s product/service development processes are conducted. 15. How was the impact of TD, I4.0 on the company’s innovations? Which performance metrics contributed the most? 16. How does the recovered data contribute to the generation of knowledge and insights for innovation projects? 17. Describe the day-to-day regarding innovation in the company:a) Routines and tools applied b) Development environment c) Launch and monitoring of performance Enabling technologies and platforms/ecosystems I4.0 Enabling technologies18. Describe the adoption of industry 4.0 enabling technologies on this digital transformation journey.19. What enabling technologies do you already adopt? What is the criterion for these choices? a) Big data b) Iot c) IA/ML d) Cloud e) Cyber security f) Robots g) Integration h) Other 20. What are they pretensions to adopt? How these projects are made feasible?21. What are the future goals and plans for the creation of a 4.0 system? 22. How have information security been performed in the company? a) How has data protection law affected the company’s operations? b) How dependent on cloud storage is? c) How is the degree of digital integration of the company? 23. Were company employees prepared for technological change? What skills and competences have been/should be developed? 24. What is the relationship between the adoption of technology and the company’s customers/suppliers? 25. How was the impact or recovery of investments by the company? How is it possible to carry out projects on time?26. Benefits considered in the adoption of I4.0.Platforms and ecosystems 27. Describe your relationship with digital platforms and ecosystems. 28. What is the contribution of the platform’s resource to the company’s performance and innovation? 29. What are the actors of the adopted ecosystem? 30. What is the company’s relationship with start-ups and spin offs? 31. In case of existence of a matrix how are the information of the platforms and innovation projects in this type of digital environment being worked?

Appendix 3

Standards protocol for data analysis
Categories (nodes) Subcategories (subnodes) Node analysis criteria for subnodes SS - Sensing (Teece, 2007): to identify scanning, learning and interpretation activities that allow access to information and knowledge that can create opportunities. This identification of opportunities involves the search in different technology markets in order to understand a latent demand, the evolution of a sector and a market and competitors and suppliers in that market. Demonstrate the existence of processes to target internal R&D and select new technologies. STRONG: to present evidence of the four subprocesses; AVERAGE/STRONG: present evidence in at least three subprocesses; AVERAGE: present evidence in at least two subprocesses; WEAK: present evidence in at least two subprocesses. Demonstrate the existence of processes to explore developments in exogenous science and technology. Demonstrate the existence of processes to touch innovation in Supplier and Complementary Business. Demonstrate the existence of processes to identify target market segments, changes in customer needs and customer innovation driven by TD. SZ - Seizing (Teece, 2007): for the understanding of the company’s responsiveness to the environment, culminating in investments in opportunities discovered by sensing and improving business model that meets the needs of customers and that provides the organization to capture value. Demonstrate the design of the Customer Solution and the Business Model for digital in the value offer, breakdown of servitude, digitization and digitization of processes. Selection of decision-making protocols based on digital technology and I4.0. Demonstrate the selection of corporate boundaries to manage add-ons and control platforms, with phase in digitization. Demonstrate the construction of loyalty and commitment through the development of routine actions of a digital nature. TD - Digital Transforming (Teece, 2007): to understand and classify how (factors formed by processes, positions and trajectories) and because (effects) organizations are distinct in decision making and obtain results that seem similar, although they deal with very different internal processes. They contribute to performance when the organization understands the environment and future needs, making impartial and timely investment decisions within an appropriate business model designed, promoting learning, restructuring systems that no longer work and implementing good governance. Decentralization and Quasi Decomposition in the face of service and response to changes, adoption of technologies and degree of centralization of the decision-making process. STRONG: to present evidence of the four subprocesses; AVERAGE/STRONG: present evidence in at least three subprocesses; AVERAGE: present evidence in at least two subprocesses; WEAK: present evidence in at least two subprocesses. Governance that includes processes of integration of external know-how, learning, sharing and integration of knowledge. Co-expertise in analyzing why organizations develop and use a specialized and co-specialized combination of assets. Knowledge management that organizes the main policies, processes and management and technological tools, for a better understanding of the processes of generation, identification, validation, dissemination, sharing, protection and use of knowledge to generate results. Agility (Weber &Tarba, 2014), is understood as actions carried out in a changing environment - non-routine and irregular - fast and unpredictable, quickly adapting successfully to this disruptive environment in order to invest in resources to maintain high levels of flexibility. SSA - Demonstrate the existence of generative sensing, abductive reasoning and meaning creation, use of scenario planning and the "purchase" of real options (Teece et al, 2016). PRESENT: present at least one evidence in the subnode between the category and the subcategory (agility capabilities). SZA - Demonstrate the existence of the preservation of agility, including flexible sourcing arrangements (vertical integration), opening space "in the organization itself, reengineering hierarchies linked to rules and" adopting open innovation processes (Teece et al, 2016). TDA - Identify the continuous process of using new digital technologies in everyday organizational life, which recognizes agility as the central mechanism for the strategic renewal of an organization's business model, collaborative approach and culture (Warner & Wäger, 2019).

Appendix 4

Entities and theoretical saturation
Entity Sensing (SS) strength Agile SS Solution and model (DT) Seizing (SZ) strength Agile SZ Strategic governance Knowledge management Digital tranformation (DT) strength Agile TD Brazilian bank Strong No Process digitalization Average to strong No Present Absent Average No Manufacturer of electric harnesses Strong No Innovation model Average No Absent Learning Average to strong No Manufacturer of hygiene and cleaning products Strong No Process digitalization Average No Absent Learning Average No Electrical systems manufacturer Strong No Innovation model Average No Absent Learning Average to strong No Production of automotive banks Strong No I4.0 model Average No Absent Learning Average to strong No Truck and bus assembler Strong Yes Process digitalization Average to strong No Absent Learning Average No Interconnection supplier Strong Yes Process digitalization Average No Absent Learning Average to strong No Aluminium Strong Yes IoT solution Average to strong No Absent Integration Average to strong No Generation and distribution equipment Strong Yes I4 model Strong Yes Absent Protection Average to strong Yes Manufacturer of rings and pistons Strong Yes IoT solution Strong Yes Absent Protection Average No Tractor manufacturer Strong Yes IoT solution Strong Yes Absent Protection Average to strong Yes Supplier of wire processing machines Strong Yes Digital solutions Strong Yes Present Protection Average to strong Yes Home car assembler Strong Yes I4.0 model Strong Yes Absent Protection Average No Public power generation Strong No Digital solutions Strong Yes Present Know-how Average to strong No Private power generation Strong No Innovation model Strong Yes Present Know-how Average to strong No Private power generation Strong No Innovation model Strong Yes Present Know-how Average to strong No Robotics and automation services Strong No IoT solution Strong Yes Absent Know-how Average No Global digital services platform Strong No Platform model Strong Yes Absent Know-how Average No Global video and educational services platform Strong No Singularity Strong Yes Absent Know-how Average to strong No National automation services Strong No Process digitalization Strong Yes Absent Know-how Average No Global digital innovation ecosystem Strong No Platform model Strong Yes Present Know-how Strong Yes Aerospace - global platform Strong No Platform model Average to strong No Present Know-how Strong Yes National gamification services Weak No Process digitalization Average to strong No Absent Know-how Weak No RFID digital services Average No Process digitalization Average to strong No Absent Know-how Weak No Supplier of electrical cables Average No Process digitalization Average No Absent Know-how Weak No Chassis supplier Average to strong No Process digitalization Average No Absent Know-how Weak No National reference in DT Weak No Digital solutions Average to strong No Absent Know-how Weak No Oriental car maker Average to strong No Process digitalization Weak No Absent Know-how Weak No National theme park Average to strong No Process digitalization Average to strong No Absent Know-how Weak No Digital bank Average No Digital bank model Average to strong No Present Know-how Weak No International equipment distributor Average to strong Yes Process digitalization Average to strong Yes Absent Know-how Weak Yes National reference in energy transition Weak No Absent Weak No Absent Know-how Weak No National industry reference 4.0 Weak No Absent Weak No Absent Know-how Weak No Telecommunication service Strong No Singularity Strong Yes Present Know-how Strong Yes Sports vehicles Strong Yes Singularity Strong Yes Present Know-how Strong Yes Food security Strong No Digital solutions Strong Yes Present Know-how Strong Yes Global streaming platform Strong No Singularity Strong Yes Present Know-how Strong Yes Power generation equipment manufacturer Strong No Digital solutions Strong Yes Present Know-how Strong Yes Cockpit supplier Strong Yes Digital solutions Strong Yes Present Protection Strong Yes Compressor manufacturer Strong Yes Digital solutions Strong Yes Present Protection Strong Yes

Appendix 5

Data triangulation of analyzed entities
Entity R&D C&T process Supplier and complementary innovation Change identification Sensing (SS) strength Agile SS Solution and model (digital transformation) Add-ons and control platforms Protocols and decision Brazilian bank Present Present Present Present Strong No Process digitalization Digital platform Present Manufacturer of electric harnesses Present Present Present Present Strong No Innovation model Complements Present Manufacturer of hygiene and cleaning products Present Present Present Present Strong No Process digitalization Complements Absent Electrical systems manufacturer Present Present Present Present Strong No Innovation model Complements Present Production of automotive banks Present Present Present Present Strong No I4.0 model Complements Present Truck and bus assembler Present Present Present Present Strong Yes Process digitalization Digital Platform Present Interconnection supplier Present Present Present Present Strong Yes Process digitalization Complements Present Aluminium Present Present Present Present Strong Yes IoT solution Digital platform Present Generation and distribution equipment Present Present Present Present Strong Yes I4.0 model Both Present Manufacturer of rings and pistons Present Present Present Present Strong Yes IoT solution Both Present Tractor manufacturer Present Present Present Present Strong Yes IoT solution Both Present Supplier of wire processing machines Present Present Present Present Strong Yes Digital solutions Both Present Home car assembler Present Present Present Present Strong Yes I4.0 model Both Present Public power generation Present Present Present Present Strong No Digital solutions Both Present Private power generation Present Present Present Present Strong No Innovation model Both Present Private power generation Present Present Present Present Strong No Innovation model Both Present Robotics and automation services Present Present Present Present Strong No IoT solution Both Present Global digital services platform Present Absent Absent Present Strong No Platform model Both Present Global video and educational services platform Present Absent Absent Present Strong No Singularity Both Present National automation services Absent Present Present Present Strong No Process digitalization Both Present Global digital innovation ecosystem Absent Absent Absent Present Strong No Platform model Both Present Aerospace - global platform Present Present Present Present Strong No Platform model Digital platform Present National gamification services Absent Absent Absent Present Weak No Process digitalization Digital platform Present RFID digital services Present Absent Absent Present Average No Process digitalization Digital platform Present Supplier of electrical cables Present Absent Absent Present Average No Process digitalization Complements Absent Chassis supplier Present Present Absent Present Average to strong No Process digitalization Complements Absent National reference in DT Present Absent Present Present Weak No Digital solutions Digital platform Present Oriental car maker Present Present Absent Present Average to strong No Process digitalization Absent Absent National theme park Present Absent Present Present Average to strong No Process digitalization Digital platform Present Digital bank Present Absent Absent Present Average No Digital bank model Digital platform Present International equipment distributor Absent Present Present Present Average to strong Yes Process digitalization Digital platform Present National reference in energy transition Present Absent Absent Present Weak No Absent Absent Absent National industry reference 4.0 Present Present Absent Present Weak No Absent Absent Absent Telecommunication service Present Present Present Present Strong No Singularity Both Present Sports vehicles Present Present Present Present Strong Yes Singularity Both Present Food security Present Present Present Present Strong No Digital solutions Both Present Global streaming platform Present Present Present Present Strong No Singularity Both Present Power generation equipment manufacturer Present Present Present Present Strong No Digital solutions Both Present Cockpit supplier Present Present Present Present Strong Yes Digital solutions Both Present Compressor manufacturer Present Present Present Present Strong Yes Digital solutions Both Present Entity Loyalty and commitment Seizing (SZ) strength Agile SZ Decentralization and quasi decomposition Co-specialization Strategic governance Knowledge management DT strength Agile DT Brazilian bank Present Average to strong No Absent Present Present Absent Average No Manufacturer of electric harnesses Present Average No Present Present Absent Learning Average to strong No Manufacturer of hygiene and cleaning products Present Average No Absent Present Absent Learning Average No Electrical systems manufacturer Present Average No Present Present Absent Learning Average to strong No Production of automotive banks Present Average No Present Present Absent Learning Average to strong No Truck and bus assembler Absent Average to strong No Absent Present Absent Learning Average No Interconnection supplier Present Average No Present Present Absent Learning Average to strong No Aluminium Present Average to strong No Present Present Absent Integration Average to strong No Generation and distribution equipment Present Strong Yes Present Present Absent Protection Average to strong Yes Manufacturer of rings and pistons Present Strong Yes Absent Present Absent Protection Average No Tractor manufacturer Present Strong Yes Present Present Absent Protection Average to strong Yes Supplier of wire processing Machines Present Strong Yes Absent Present Present Protection Average to strong Yes Home car assembler Present Strong Yes Absent Present Absent Protection Average No Public power generation Present Strong Yes Absent Present Present Know-how Average to strong No Private power generation Present Strong Yes Absent Present Present Know-how Average to strong No Private power generation Present Strong Yes Absent Present Present Know-how Average to strong No Robotics and automation services Present Strong Yes Absent Present Absent Know-how Average No Global digital services platform Present Strong Yes Present Present Absent Know-how Average No Global video and educational services platform Present Strong Yes Present Present Absent Know-how Average to strong No National automation services Absent Strong Yes Absent Present Absent Know-how Average No Global digital innovation ecosystem Present Strong Yes Present Present Present Know-how Strong Yes Aerospace - global platform Present Average to strong No Present Present Present Know-how Strong Yes National gamification services Present Average to strong No Absent Present Absent Know-how Weak No RFID digital services Present Average to strong No Present Present Absent Know-how Weak No Supplier of electrical cables Absent Average No Absent Present Absent Know-how Weak No Chassis supplier Absent Average No Absent Present Absent Know-how Weak No National reference in DT Present Average to strong No Absent Present Absent Know-how Weak No Oriental car maker Present Weak No Absent Present Absent Know-how Weak No National theme park Present Average to strong No Absent Present Absent Know-how Weak No Digital bank Present Average to strong No Absent Present Present Know-how Weak No International equipment distributor Present Average to strong Yes Present Present Absent Know-how Weak Yes National reference in energy transition Absent Weak No Absent Absent Absent Know-how Weak No National industry reference 4.0 Absent Weak No Absent Absent Absent Know-how Weak No Telecommunication service Present Strong Yes Present Present Present Know-how Strong Yes Sports vehicles Present Strong Yes Present Present Present Know-how Strong Yes Food security Present Strong Yes Present Present Present Know-how Strong Yes Global streaming platform Present Strong Yes Present Present Present Know-how Strong Yes Power generation equipment manufacturer Present Strong Yes Present Present Present Know-how Strong Yes Cockpit supplier Present Strong Yes Present Present Present Protection Strong Yes Compressor manufacturer Present Strong Yes Present Present Present Protection Strong Yes

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Publication Dates

  • Publication in this collection
    21 Nov 2022
  • Date of issue
    2022

History

  • Received
    22 Mar 2022
  • Accepted
    02 Sept 2022
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