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A Taxonomy of Digital Business Capabilities: Customer Intelligence, Operational Agility, Platform Coordination, and Strategic Learning

Original Research | Open access | Published: 18 September 2024
Volume 4, article number 72, (2024) Cite this article
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  1. Department of Digital Strategy and Management, Faculty of Business, University of Leeds, Leeds, United Kingdom
  2. Department of Management Innovation, Faculty of Business, University of Sheffield, Sheffield, United Kingdom
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Abstract

Digital business research has generated a wide range of capability concepts to explain how firms compete, innovate, adapt, and learn in technology-intensive environments. Yet these concepts often appear under overlapping labels, including digital capabilities, analytics capabilities, platform capabilities, operational capabilities, and dynamic capabilities. This proliferation has enriched the field but has also made it difficult to compare findings across studies. The central problem addressed in this article is the absence of a coherent taxonomy for digital business capabilities. Without clear classification rules, researchers may treat different capabilities as equivalent, while managers may invest in digital resources without understanding which capability category they are actually developing. This ambiguity weakens conceptual precision, measurement design, and strategic capability development. The objective of the article is to develop an original taxonomy that classifies digital business capabilities into four distinct categories. These categories are Customer Intelligence, Operational Agility, Platform Coordination, and Strategic Learning. Each category is defined by a distinct value-creation logic, resource orientation, temporal focus, and managerial purpose. The resulting taxonomy identifies four mutually exclusive and collectively exhaustive categories of digital business capabilities. It defines the sub-dimensions of each category, explains how the categories differ, and provides tables that support classification, comparison, and managerial application. The taxonomy offers a shared language for scholars and practitioners seeking to analyse, measure, and develop digital business capabilities with greater precision.

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Introduction

Digital business research increasingly explains firm competitiveness through capability-based concepts rather than through technology adoption alone. Nambisan, Lyytinen, Majchrzak and Song argue that digital innovation changes the locus and logic of innovation management, requiring firms to combine technological possibilities with organisational capabilities [1]. Svahn, Mathiassen and Lindgren similarly show that incumbent firms must manage competing concerns when digital innovation disrupts established products, routines, and strategic priorities [2].

The capability vocabulary has expanded because digital transformation is multidimensional. Vial conceptualises digital transformation as a process in which digital technologies trigger strategic responses, organisational changes, and value-creation outcomes [3]. Verhoef, Broekhuizen, Bart, Bhattacharya, Qi Dong, Fabian and Haenlein extend this view by showing that digital transformation involves changes in customer interaction, business models, organisational structures, and strategic positioning [4].

This expansion creates a classification problem. Some studies focus on analytics and customer insight, others on operational flexibility, others on platform ecosystems, and still others on strategic renewal through dynamic capabilities [5-7]. Because these constructs are often treated as adjacent or interchangeable, the literature lacks a stable organising framework for distinguishing what different digital capabilities actually do.

This article proposes a taxonomy of digital business capabilities that classifies them into four categories: Customer Intelligence, Operational Agility, Platform Coordination, and Strategic Learning. The taxonomy builds on capability theory, digital transformation research, analytics capability research, platform studies, and taxonomy design principles [8-11]. The article proceeds by explaining the need for classification, developing criteria for category distinction, defining each capability category, and showing how the taxonomy can guide research and managerial decision-making.

Need for a Digital Business Capability Taxonomy

A taxonomy is needed because digital capability research is fragmented across several intellectual traditions. Teece’s dynamic capabilities perspective emphasises sensing, seizing, and transforming as higher-order managerial processes that enable adaptation [8]. Warner and Wäger translate this logic into digital transformation by showing that firms build dynamic capabilities through strategic renewal, digital scouting, agile implementation, and organisational redesign [5].

Fragmentation also arises because digital transformation studies often combine multiple capability types under broad umbrella constructs. Kraus, Durst, Ferreira, Veiga, Kailer and Weinmann describe digital transformation research as spanning strategy, technology, innovation, entrepreneurship, and organisational change [12]. Plekhanov, Franke and Netland similarly show that digital transformation research has grown rapidly but still requires clearer conceptual integration and research agendas [13].

The absence of classification makes both research and management more difficult. Researchers need category boundaries to build valid measures, compare findings, and avoid construct redundancy. Managers need the same boundaries to determine whether a capability gap concerns customer understanding, operational responsiveness, platform orchestration, or organisational learning, rather than simply labelling all gaps as digital immaturity [3, 4].

Classification Criteria

The taxonomy is built on two primary classification dimensions. The first dimension is value-creation focus, which distinguishes capabilities aimed mainly at external market and ecosystem value from those aimed mainly at internal operational and organisational value. This distinction reflects the way digital transformation reshapes customer-facing activities, process architectures, ecosystem relationships, and strategic renewal mechanisms [3, 4, 7].

The second dimension is primary mechanism. Customer Intelligence works through insight generation and personalisation, Operational Agility works through rapid adaptation and process reconfiguration, Platform Coordination works through ecosystem orchestration, and Strategic Learning works through feedback-based renewal. This mechanism-based logic follows the view that capabilities should be classified by what they enable firms to do, not only by the technologies they use [5, 8].

These two dimensions produce four distinct capability categories. Customer Intelligence is externally oriented and intelligence-based, Operational Agility is internally oriented and adaptation-based, Platform Coordination is externally oriented and coordination-based, and Strategic Learning is internally oriented and learning-based. This structure is intended to make the taxonomy mutually exclusive while still acknowledging that firms often combine categories in practice [9, 14].

Table 1 defines the classification criteria used to distinguish the four capability categories. The table formalises the criteria by linking each category to value-creation focus, dominant mechanism, resource orientation, temporal focus, and typical managerial question, thereby translating the conceptual distinction into a usable classification scheme [11, 15].

Table 1. Classification Criteria for Digital Business Capabilities: Dimensions of Value Creation, Resource Orientation, and Temporal Focus

Capability category

Value-creation focus

Primary mechanism

Resource orientation

Temporal focus

Typical managerial question

Customer Intelligence

External customer value

Insight, prediction, and personalisation

Customer data, analytics models, engagement interfaces, experience knowledge

Near-term sensing and continuous customer adaptation

How can the firm understand, predict, and personalise customer interactions more effectively?

Operational Agility

Internal operational value

Process adaptation, automation, and responsiveness

Digital processes, supply chain data, automation tools, operational routines

Short-cycle adjustment and rapid execution

How can the firm reconfigure operations quickly when demand, supply, or process conditions change?

Platform Coordination

External ecosystem value

Governance, integration, and orchestration

Platform architecture, APIs, complementor relationships, ecosystem rules

Medium-term ecosystem scaling and network development

How can the firm coordinate actors, interfaces, and incentives across a digital platform ecosystem?

Strategic Learning

Internal strategic value

Experimentation, absorption, and renewal

Digital feedback, organisational knowledge, learning routines, decision forums

Long-term strategic renewal

How can the firm learn from digital signals and convert learning into strategic reconfiguration?

Figure 1 presents the overall taxonomy architecture that classifies digital business capabilities into four distinct categories based on value-creation focus and primary capability mechanism.

Figure 1. Taxonomy Architecture of Digital Business Capabilities across Value-Creation Focus and Primary Capability Mechanism

Figure 1. Taxonomy Architecture of Digital Business Capabilities across Value-Creation Focus and Primary Capability Mechanism

Customer Intelligence Capability

Customer Intelligence Capability refers to the firm’s capacity to collect, interpret, and use customer-related digital data to understand needs, predict behaviour, personalise interactions, and improve experience design. Homburg, Jozić and Kuehnl position customer experience management as an evolving marketing concept that requires firms to coordinate customer touchpoints and organisational responses [16]. In a digital business context, this capability transforms dispersed customer signals into actionable market understanding.

The first sub-dimension is customer sensing, which concerns the systematic capture of behavioural, transactional, and experiential signals across digital channels. Bleier, Harmeling and Palmatier show that effective online customer experiences depend on how firms design and manage digital interactions that shape customer perceptions and responses [17]. Customer sensing therefore differs from generic data collection because it is directed toward interpreting customer meaning, expectations, and engagement conditions.

The second and third sub-dimensions are analytics modelling and personalisation. Kumar, Rajan, Venkatesan and Lecinski argue that artificial intelligence can support personalised engagement marketing by enabling firms to tailor interactions at scale [18]. Davenport, Guha, Grewal and Bressgott further show that artificial intelligence reshapes marketing activities by changing how firms analyse customers, automate interactions, and support decision-making [19].

Table 2 describes the Customer Intelligence capability category with its sub-dimensions and exemplar capabilities. The fourth sub-dimension, experience design, links customer intelligence to the design of coherent digital journeys, while Huang and Rust’s strategic framework for artificial intelligence in marketing clarifies how analytics, automation, and customer-facing intelligence can be connected to strategic marketing objectives [20].

Table 2. Customer Intelligence Capability: Definition, Sub-Dimensions, and Representative Digital Capabilities

Taxonomic element

Description

Representative digital capabilities

Illustrative outputs

Category definition

The capability to understand, predict, personalise, and improve customer interactions through digital data, analytics, and experience design

Customer data integration, behavioural analytics, predictive modelling, personalisation engines, journey design

Customer insight, targeted engagement, improved experience quality, more precise value propositions

Customer sensing

Capturing and interpreting customer signals from digital touchpoints, transactions, service encounters, and engagement channels

Omnichannel data capture, social listening, customer journey tracking, sentiment interpretation

Early detection of customer needs, pain points, and behavioural shifts

Analytics modelling

Transforming customer data into predictive, diagnostic, or prescriptive insight

Segmentation models, churn prediction, recommendation models, lifetime value analytics

Prioritised customer segments, predicted behaviours, actionable marketing intelligence

Personalisation

Tailoring offerings, communications, and interactions to customer profiles and contexts

Personalised recommendation, dynamic content, adaptive pricing support, targeted engagement automation

More relevant customer interactions and stronger engagement outcomes

Experience design

Designing coherent digital journeys based on customer insight and behavioural feedback

Journey orchestration, touchpoint redesign, experience testing, service interface refinement

Improved customer experience consistency and digitally enabled relationship quality

Operational Agility Capability

Operational Agility Capability refers to the firm’s capacity to adapt processes, resources, supply chains, and execution routines quickly through digital technologies. Tallon, Queiroz, Coltman and Sharma show that information technology contributes to organisational agility by enabling faster sensing, decision-making, and response across organisational processes [21]. In this taxonomy, Operational Agility is therefore classified as an internally oriented capability because its primary value-creation logic is the rapid reconfiguration of operational activity.

The first sub-dimension is process digitisation, which converts analogue, fragmented, or manually coordinated activities into digitally traceable and reconfigurable processes. Khin and Ho demonstrate that digital technology and digital capability contribute to organisational performance through digital innovation, indicating that operational value depends on the ability to embed technology into organisational routines [22]. Process digitisation is not merely automation; it creates the informational visibility required for rapid process adjustment.

The second and third sub-dimensions are responsive supply chain and automation. Dubey, Gunasekaran, Childe, Blome and Papadopoulos show that big data and predictive analytics contribute to manufacturing performance when combined with resource-based and institutional conditions [23]. Dubey, Gunasekaran, Childe, Bryde, Giannakis, Foropon, Roubaud and Hazen further link big data analytics and artificial intelligence to operational performance under entrepreneurial orientation and environmental dynamism [24].

Table 3 describes the Operational Agility capability category with its sub-dimensions and exemplar capabilities. Adaptive resource allocation completes this category by explaining how firms use digital information to redirect capacity, labour, inventory, and process attention when conditions change, while Nasiri, Ukko, Saunila and Rantala show that smart technologies play an important role in managing digital supply chains [25].

Table 3. Operational Agility Capability: Definition, Sub-Dimensions, and Representative Digital Capabilities

Taxonomic element

Description

Representative digital capabilities

Illustrative outputs

Category definition

The capability to adapt operations, processes, resources, and supply chains rapidly through digital technologies and data-enabled coordination

Process digitisation, workflow analytics, automation, supply chain visibility, dynamic resource planning

Faster execution, shorter response cycles, reduced operational rigidity, improved process resilience

Process digitisation

Converting operational activities into digitally visible, measurable, and reconfigurable workflows

Digital workflow mapping, process monitoring, enterprise system integration, real-time operational data capture

Greater process transparency and improved capacity to redesign workflows

Responsive supply chain

Detecting and responding to changes in demand, supply, logistics, and production conditions

Demand sensing, predictive inventory analytics, supplier visibility systems, logistics coordination tools

More responsive procurement, production, and distribution decisions

Automation

Using digital technologies to reduce manual intervention and accelerate repeatable operational tasks

Robotic process automation, intelligent scheduling, automated quality checks, algorithmic workflow routing

Faster task completion, fewer routine delays, improved operational consistency

Adaptive resource allocation

Reassigning resources dynamically in response to operational signals and shifting priorities

Capacity analytics, dynamic workforce allocation, real-time production planning, scenario-based resource deployment

Better matching of resources to changing operational requirements

Platform Coordination Capability

Platform Coordination Capability refers to the firm’s capacity to govern digital platforms, integrate participants, manage interfaces, and coordinate ecosystem value creation. Constantinides, Henfridsson and Parker argue that platforms and infrastructures reshape information systems research by making digital innovation dependent on architectures that connect multiple actors [7]. This capability is externally oriented because its primary value logic is not internal efficiency but the coordination of interdependent actors around a shared digital architecture.

The first sub-dimension is platform governance, which involves defining rules, access conditions, participation rights, and control mechanisms for platform actors. Jacobides, Cennamo and Gawer explain that ecosystems depend on complementarities among actors whose activities must be aligned without full hierarchical control [10]. Platform governance therefore differs from ordinary partnership management because it requires the design of coordination rules for distributed and interdependent value creation.

The second and third sub-dimensions are API-based integration and ecosystem partnership management. Cenamor, Parida and Wincent show that small and medium-sized firms can compete through digital platforms by developing digital platform capability, network capability, and ambidexterity [26]. Gawer further clarifies that digital platform boundaries are shaped by firm scope, platform sides, and digital interfaces, making interface management central to platform coordination [27].

Table 4 describes the Platform Coordination capability category with its sub-dimensions and exemplar capabilities. Network orchestration completes the category because platform value often depends on attracting, aligning, and sustaining complementors, while Cennamo’s platform-based view of competition highlights how digital markets require firms to manage network effects, platform positioning, and competitive interdependence [28].

Table 4. Platform Coordination Capability: Definition, Sub-Dimensions, and Representative Digital Capabilities

Taxonomic element

Description

Representative digital capabilities

Illustrative outputs

Category definition

The capability to coordinate actors, interfaces, governance rules, and value co-creation processes across digital platforms and ecosystems

Platform governance, API integration, ecosystem management, complementor coordination, network orchestration

Stronger platform participation, scalable ecosystem relationships, improved network value creation

Platform governance

Designing and enforcing rules for participation, access, control, quality, and value appropriation

Governance rule design, access management, quality control systems, participation standards

Clearer actor roles, reduced coordination ambiguity, improved platform trust

API-based integration

Enabling technical and organisational connectivity among platform actors through digital interfaces

API architecture, interface standardisation, integration protocols, modular service access

Easier complementor integration and more scalable digital interaction

Ecosystem partnership management

Managing relationships with complementors, partners, developers, service providers, and users

Partner onboarding, complementor support, ecosystem performance monitoring, co-creation routines

Stronger ecosystem engagement and more reliable partner contribution

Network orchestration

Stimulating and balancing network effects across platform sides and actor groups

Incentive design, cross-side matching, network growth analytics, platform participation analytics

Increased platform value, stronger actor alignment, and more durable ecosystem coordination

Strategic Learning Capability

Strategic Learning Capability refers to the firm’s capacity to learn from digital data, experiments, external signals, and organisational feedback, and then convert that learning into strategic renewal. Warner and Wäger position digital transformation as an ongoing process of strategic renewal rather than a one-time technology implementation [5]. Volberda, Khanagha, Baden-Fuller, Mihalache and Birkinshaw similarly argue that strategising in a digital world requires overcoming cognitive barriers, reconfiguring routines, and introducing new organisational forms [29].

The first sub-dimension is experimentation, which involves using digital environments to test assumptions, compare alternatives, and learn from behavioural or operational feedback. Trantopoulos, von Krogh, Wallin and Woerter show that external knowledge and information technology can improve process innovation performance when firms are able to absorb and apply knowledge effectively [30]. In this taxonomy, experimentation is treated as a strategic learning mechanism because it allows firms to generate evidence for future decisions rather than merely optimise current operations.

The second and third sub-dimensions are data-driven insight generation and knowledge absorption. Wamba, Gunasekaran, Akter, Ren, Dubey and Childe show that big data analytics influences firm performance through dynamic capabilities, indicating that analytics creates value when firms can translate data into adaptive capability [6]. Mikalef, Boura, Lekakos and Krogstie similarly link big data analytics capabilities to innovation through dynamic capabilities, which supports the classification of learning as a higher-order capability rather than a purely technical resource [9].

The fourth sub-dimension is strategic reconfiguration, which concerns the transformation of learning into changes in priorities, resource commitments, business models, and organisational routines. Mikalef, Krogstie, Pappas and Pavlou show that big data analytics capability affects competitive performance through dynamic and operational capabilities, reinforcing the idea that learning connects insight with organisational change [14]. Ellström, Holtström, Berg and Josefsson also emphasise that digital transformation depends on dynamic capabilities that allow firms to renew and adjust their strategic direction [31].

Figure 2 illustrates how the four digital business capability categories differ in their dominant mechanisms while remaining complementary within a firm-level capability portfolio.

Figure 2. Capability Portfolio Logic Linking Customer Intelligence, Operational Agility, Platform Coordination, and Strategic Learning
Figure 2. Capability Portfolio Logic Linking Customer Intelligence, Operational Agility, Platform Coordination, and Strategic Learning

Comparative Taxonomy Matrix

The comparative taxonomy matrix places the four capability categories side by side to clarify their differences and complementarities. Customer Intelligence is externally oriented toward customers, Operational Agility is internally oriented toward processes, Platform Coordination is externally oriented toward ecosystems, and Strategic Learning is internally oriented toward renewal. This comparative logic follows taxonomy design principles that emphasise clear dimensions, category distinction, and conceptual usefulness [11, 15].

The matrix also shows that the categories differ in temporal focus. Customer Intelligence often operates through near-term sensing and personalisation, Operational Agility through short-cycle operational adjustment, Platform Coordination through medium-term ecosystem scaling, and Strategic Learning through long-term strategic renewal. This temporal differentiation is important because digital transformation involves both immediate execution and longer-term reconfiguration [3, 29].

Table 5 presents the comparative taxonomy matrix across all four capability categories. The table compares the categories by value-creation logic, dominant resource base, primary mechanism, temporal orientation, and indicative performance measures, thereby making the taxonomy usable for research design, measurement development, and managerial diagnosis [12, 13].

Table 5. Comparative Taxonomy Matrix of Digital Business Capabilities: Comparison across Customer Intelligence, Operational Agility, Platform Coordination, and Strategic Learning

Comparison dimension

Customer Intelligence Capability

Operational Agility Capability

Platform Coordination Capability

Strategic Learning Capability

Core definition

Capability to understand, predict, personalise, and improve customer interactions through digital data and analytics

Capability to adapt operations, processes, resources, and supply chains rapidly through digital technologies

Capability to coordinate actors, interfaces, governance rules, and ecosystem value creation across digital platforms

Capability to learn from digital data, experiments, and feedback, and convert learning into strategic renewal

Value-creation logic

Customer insight and market responsiveness

Operational responsiveness and process adaptability

Ecosystem orchestration and network value creation

Strategic renewal and organisational adaptation

Primary orientation

External customer environment

Internal operating system

External platform ecosystem

Internal strategic and organisational learning system

Dominant resource base

Customer data, analytics models, engagement interfaces, experience knowledge

Process data, automation systems, supply chain visibility, operational routines

Platform architecture, APIs, complementor relationships, governance mechanisms

Digital feedback, experimentation routines, absorptive capacity, strategic decision forums

Main mechanism

Intelligence and personalisation

Agility and reconfiguration

Coordination and orchestration

Learning and renewal

Temporal focus

Near-term sensing and continuous customer adaptation

Short-cycle adjustment and rapid execution

Medium-term scaling and ecosystem development

Long-term adaptation and strategic reconfiguration

Indicative performance measures

Customer insight quality, personalisation effectiveness, customer experience consistency, engagement improvement

Process speed, operational flexibility, supply chain responsiveness, automation effectiveness

Platform participation, complementor growth, API integration quality, network-effect strength

Experimentation quality, learning absorption, strategic adaptation speed, renewal effectiveness

Boundary condition

Becomes weak when customer data are fragmented or disconnected from experience design

Becomes weak when digital processes remain rigid or isolated from resource decisions

Becomes weak when governance rules, interfaces, or incentives fail to align actors

Becomes weak when insights do not influence strategic priorities or routines

The four categories are mutually exclusive in their primary logic but complementary in their strategic use. For example, customer data may reveal changing preferences, Operational Agility may adapt fulfilment processes, Platform Coordination may mobilise partners, and Strategic Learning may convert outcomes into revised strategic assumptions. This complementarity explains why firms often need capability portfolios rather than isolated digital investments [4, 22].

Managerial Use Cases

The first managerial use case is capability audit and gap analysis. Managers can use the taxonomy to diagnose whether weaknesses lie in Customer Intelligence, Operational Agility, Platform Coordination, or Strategic Learning, instead of treating all digital weaknesses as a single transformation problem. This is consistent with digital transformation research showing that firms must address multiple organisational dimensions rather than relying on technology implementation alone [3, 4].

The second use case is strategic investment prioritisation. If a firm competes primarily through personalised experiences, investment may need to prioritise analytics modelling and experience design, whereas a firm facing volatile supply conditions may need to prioritise process digitisation and adaptive resource allocation. This distinction reflects evidence that analytics, digital technologies, and operational capabilities affect performance through different capability pathways [6, 14, 24].

The third use case is organisational design for digital transformation. Platform-dependent firms may require governance teams, ecosystem managers, and API coordination roles, while firms pursuing strategic renewal may need routines for experimentation, knowledge absorption, and executive learning forums. Such design choices align with research showing that digital transformation requires new organisational forms, ecosystem coordination, and dynamic capabilities for strategic renewal [7, 29, 32-34].

Conclusion

This article has developed an original taxonomy of digital business capabilities to reduce conceptual fragmentation and provide a clearer classification structure for research and practice. The taxonomy classifies digital business capabilities into four categories: Customer Intelligence, Operational Agility, Platform Coordination, and Strategic Learning. Each category is defined by a distinct value-creation logic, resource orientation, primary mechanism, and temporal focus.

The taxonomy contributes by clarifying that digital business capability is not a single undifferentiated construct. Customer Intelligence explains how firms understand and personalise customer value, Operational Agility explains how firms adapt internal processes, Platform Coordination explains how firms orchestrate ecosystem value, and Strategic Learning explains how firms renew strategy through digital feedback. Together, the four categories provide a structured language for capability analysis, measurement, and development.

Future research should empirically validate the taxonomy, develop measurement scales for each capability category, and examine how the categories interact across industries and transformation stages. Managers can use the taxonomy to audit capability portfolios, prioritise digital investments, and design organisational structures that match strategic needs. The broader value of the taxonomy lies in helping scholars and practitioners move from fragmented capability labels toward a more precise and actionable understanding of digital business capability development

Acknowledgements

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George Wilson, Chloe Bennett & Jack Turner contributed to this work.

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Department of Digital Strategy and Management, Faculty of Business, University of Leeds, Leeds, United Kingdom
George Wilson & Jack Turner

Department of Management Innovation, Faculty of Business, University of Sheffield, Sheffield, United Kingdom
Chloe Bennett

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Correspondence to George Wilson

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Vancouver
Wilson G, Bennett C, Turner J. A Taxonomy of Digital Business Capabilities: Customer Intelligence, Operational Agility, Platform Coordination, and Strategic Learning. J. Digit. Bus. Manag. Stud.. 2024;4:72.
APA
Wilson, G., Bennett, C., & Turner, J. (2024). A Taxonomy of Digital Business Capabilities: Customer Intelligence, Operational Agility, Platform Coordination, and Strategic Learning. Journal of Digital Business and Management Studies, 4, 72.
Received
15 May 2024
Revised
25 June 2024
Accepted
05 August 2024
Published
18 September 2024
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18 September 2024

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