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A conceptual framework warns that AI investments rarely deliver strategic value on their own: firms convert generative and agentic AI into transformation and innovation only when culture, skills and governance absorb those capabilities, with employee AI literacy and innovation capacity mediating outcomes and regulatory context shaping effectiveness.

From Automation to Agentic Intelligence: A Framework for AI-Driven Digital Transformation, Innovation Capability, and Strategic Decision-Making in Contemporary Enterprises
Zarin Subha Progga, Mohammad Ali · August 05, 2026 · Journal of Business and Management Studies
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The paper proposes a conceptual framework arguing that generative and agentic AI capabilities translate into digital transformation maturity, improved innovation performance, and better decision quality only when mediated by organizational absorption processes (culture, skills, governance), innovation capability, and employee AI literacy, and moderated by the AI governance/regulatory environment and industry context.

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From descriptive analytics to generative systems and, most recently, autonomous agentic architectures, artificial intelligence (AI) is transforming how enterprises achieve digital transformation and develop innovation capabilities and how they shape strategic decision-making. This study highlights an AI adoption-value paradox; despite significant investments, many organizations report a lack of business value from AI. The authors present a conceptual framework for the relationship between AI capability inputs (generative, predictive, and agentic) and organizational absorption processes (culture, skills, and governance) and downstream effects (digital transformation maturity, innovation performance, and decision quality), which are moderated by the regulatory environment and innovation industry context and mediated by innovation capability and employee AI literacy. Based on decision intelligence theory, the technology-organization-environment (TOE) framework, and dynamic capabilities theory, this study follows a mixed-methods approach with a structured survey of mid-to large-sized enterprises, followed by semi-structured interviews with C-suite and senior IT executives that will be analyzed through partial least squares structural equation modelling (PLSEM) and thematic analysis. This study extends the dynamic capabilities theory to the domain of agentic AI, provides managers with practical guidelines for governing AI decisions, and provides regulators with insights into responsible AI adoption. The implications, limitations, and directions for empirical validation are discussed.

Summary

Main Finding

The paper develops a conceptual, theory-driven framework linking AI capability inputs (generative, predictive, and agentic AI) to organizational outputs (digital transformation maturity, innovation performance, and decision quality). It argues that AI capabilities only produce business value when converted through organizational absorption processes (culture, skills, governance), and that this conversion is mediated by innovation capability and employee AI literacy and moderated by the AI governance/regulatory environment and industry context. The work highlights an "AI adoption–value paradox"—substantial AI investment often fails to deliver strategic value when governance and organizational structures are not adapted—and proposes a mixed-methods empirical design (survey + interviews; PLS‑SEM + thematic analysis) to test the framework. The article is primarily conceptual and methodological: it proposes hypotheses, measurement constructs, and an analysis plan rather than reporting final empirical results.

Key Points

  • Theoretical grounding: extends Dynamic Capabilities Theory to the era of agentic AI and integrates TOE (Technology–Organization–Environment), Diffusion of Innovation, and Decision Intelligence / Bounded Rationality perspectives.
  • Novelty: explicitly includes agentic AI (systems that plan, use tools, and act autonomously) alongside generative AI as distinct inputs, focusing on their implications for strategy, governance, and organizational reconfiguration.
  • Core logic: input → process → output. AI capability inputs must be absorbed (culture, skills, governance) to produce transformation, innovation, and decision-quality outcomes.
  • Mediators and moderators:
    • Mediators: organizational innovation capability; employee AI literacy.
    • Moderators: external AI governance/regulatory environment; industry type.
  • Managerial problem: without updated governance, decision-right allocation, and capability reconfiguration, AI pilots often fail to scale or generate strategic returns.
  • Empirical plan: mixed-methods explanatory sequential design—structured survey of mid-to-large firms in finance, manufacturing, retail, and professional services; follow-up semi-structured interviews with C-suite and senior IT executives.
  • Measurement: proposed multi-item Likert scales for constructs (AI adoption, digital maturity, innovation capability, decision quality, employee AI literacy, governance environment).
  • Hypotheses (examples): H1—AI adoption positively affects digital transformation maturity; H2—innovation capability mediates AI adoption → performance; H3—AI governance quality moderates the AI adoption → performance link.
  • Analytical approach: PLS‑SEM (variance-based SEM) with bootstrapping for path significance, mediation via product-of-coefficients with bootstrapped CIs, moderation via interaction terms; thematic analysis for qualitative data with inter-coder reconciliation.

Data & Methods

  • Population/sampling: mid-sized to large enterprises that have operational/strategic AI use in finance, manufacturing, retail, and professional/business services. Survey respondents: managers/technical staff with AI decision access. Interviewees: C-suite and senior IT leaders.
  • Instruments:
    • Structured survey: multi-item reflective scales (6–8 items for AI adoption and digital maturity; 5–7 items for innovation capability and decision quality; 4–6 items for governance environment; 4–5 items for employee AI literacy). Typical scales: 7‑point Likert for core constructs, 5‑point for mediators/moderators.
    • Semi-structured interview guide: governance models, organizational absorption barriers, examples of scaling or failed pilots.
  • Analysis:
    • Quantitative: Partial least squares structural equation modeling (PLS‑SEM); composite reliability, AVE, HTMT for validity; SRMR, Q², PLSpredict for fit/predictive relevance; bootstrapped significance tests (e.g., 5,000 resamples).
    • Mediation: bootstrapped indirect effects (product of paths); assess partial vs full mediation.
    • Moderation: two-stage interaction approach; probe simple slopes at ±1 SD of moderator.
    • Qualitative: thematic analysis by multiple coders with reconciliation to ensure inter-coder reliability; used to explain governance practices and absorption dynamics not captured by survey items.
  • Ethical/validity procedures: pilot testing, Cronbach’s alpha/internal consistency checks, anonymization, informed consent, and standard institutional ethics protections.
  • Scope/limits of study: organizational/decision-level focus (not algorithmic performance); excludes consumer-only AI startups; limited to selected industries and firm sizes; the paper proposes empirical validation rather than reporting completed large‑scale empirical findings.

Implications for AI Economics

  • Returns to AI investments are heterogeneous and conditional: economic models estimating returns to AI must account for complementarities (governance, skills, culture). Merely measuring technical adoption underestimates required organizational inputs to generate value.
  • Complementary investments matter: human capital and governance (training, AI literacy, decision-right allocation) are likely to be key mediators of productivity gains—policy and firm-level cost–benefit analyses should include these investments.
  • Adoption–value paradox and misallocation risk: observed low realized returns in some firms may reflect organizational frictions, not only technological immaturity; this affects macro estimates of AI-driven productivity and may produce persistent cross‑firm dispersion.
  • Agentic AI amplifies dynamic-capability effects: as AI becomes more autonomous, firms’ ability to sense, seize, and reconfigure assets will determine comparative advantage. Models of technological diffusion should incorporate firms’ dynamic capability endowments.
  • Regulatory design has economic consequences: the governance/regulatory environment moderates AI value capture. Tighter regulation can reduce certain risks but may also change the cost–benefit calculus—affecting diffusion rates, investments in on‑premise/“sovereign” models, and incumbent vs entrant dynamics.
  • Platform and ecosystem dynamics: agentic and generative AI integrated into platforms may generate stronger network effects and winner-take-most industry structures; competition models should allow for increased returns to scale via embedded AI capabilities.
  • Labor and task reallocation: agentic AI’s capacity for multi-step autonomy changes the nature of task complementarities; economists should model shifts in task portfolios, demand for supervision/AI governance roles, and potential reductions in some middle-skill tasks but increases in governance and higher-skill roles.
  • Measurement implications: standard productivity metrics may not capture innovations in decision quality or reduced decision latency; new metrics (decision quality, innovation throughput) may be needed for evaluating AI’s economic impact.
  • Policy levers: targeted subsidies or training programs that lower the cost of organizational absorption (e.g., AI literacy programs, governance toolkits) may raise aggregate returns to AI and reduce heterogeneity in realized benefits.
  • Empirical research agenda: microdata linking firm-level AI adoption to outcomes should include variables capturing governance maturity, AI literacy, and innovation capability to avoid omitted variable bias. Natural experiments from regulation (e.g., phased AI rules) could be exploited to estimate causal effects.
  • Welfare considerations: while agentic AI could raise firm-level productivity and innovation, distributional effects (industry concentration, labor displacement) and systemic risk from autonomous decision systems warrant explicit economic analysis and possibly redistribution/mitigation policies.

Limitations to note for economists using this work: the paper proposes a framework and empirical plan but does not yet report completed empirical estimates. Any economic modeling or policy recommendations should treat the framework's causal claims as hypotheses pending empirical validation.

Assessment

Paper Typetheoretical Evidence Strengthlow — The manuscript presents a conceptual framework and a detailed proposed mixed-methods research design but does not report empirical data or results; therefore there is no empirical evidence provided to support the hypotheses. Methods Rigorlow — The proposed methods (cross-sectional survey, PLS-SEM, and thematic interviews) are standard and appropriate for theory-building, but they rely on self-reported, cross-sectional data and associative inference without strategies for causal identification (e.g., exogenous shocks, panel data, instrumental variables); potential biases (common-method variance, selection, reverse causality) are not fully addressed in the proposal. SampleProposed sample: managers and technical staff from mid-to-large firms in finance, manufacturing, retail, and professional/business services (survey); purposively sampled C-suite and senior IT executives for semi-structured interviews; no sample size, sampling frame, or geographic scope explicitly reported. Themesgovernance org_design innovation adoption human_ai_collab IdentificationProposed observational identification via cross-sectional organizational survey analyzed with partial least squares structural equation modeling (PLS-SEM) to estimate associations, mediation (innovation capability, employee AI literacy) and moderation (AI governance/regulatory environment, industry) effects using bootstrapped inference; no experimental or plausibly exogenous variation is proposed, so causal identification is associative and subject to endogeneity/reverse causality concerns. GeneralizabilitySector-limited (finance, manufacturing, retail, professional/business services) — excludes consumer-focused AI firms and many service sectors, Firm-size limitation to mid-to-large enterprises — findings may not generalize to SMEs or startups, Cross-sectional, self-reported survey data limit temporal and causal generalizability (no panel/longitudinal evidence), No explicit geographic/country scope provided; regulatory and cultural differences across jurisdictions may limit external validity, Excludes algorithm-level or technical performance variation; treats technical performance as a boundary condition

Claims (8)

ClaimDirectionOutcomeConfidence & EvidenceDetails
The paper proposes that AI adoption has a positive influence on digital transformation maturity. Organizational Efficiency positive Digital transformation maturity
Reading fidelity high
Study strength speculative
not reported
0.02
The paper proposes that innovation capability mediates the relationship between AI adoption and organizational performance. Firm Productivity positive Organizational performance through innovation capability
Reading fidelity high
Study strength speculative
not reported
0.02
The paper proposes that the quality of an organization's decision-making framework moderates the impact of AI adoption on organizational performance. Decision Quality mixed Organizational performance as affected by AI adoption and decision-making framework quality
Reading fidelity high
Study strength speculative
not reported
0.02
The proposed framework treats organizational absorption processes—culture, skills, and governance—as necessary mechanisms through which AI capabilities are converted into digital transformation, innovation, and decision-quality outcomes. Organizational Efficiency positive Digital transformation maturity, innovation performance, and decision quality
Reading fidelity high
Study strength speculative
not reported
0.02
The paper argues that employee AI literacy and organization-wide innovation capability mediate the conversion of AI capabilities into organizational outcomes. Skill Acquisition positive Digital transformation maturity, innovation performance, and decision quality
Reading fidelity high
Study strength speculative
not reported
0.02
The paper states that many organizations experience an AI adoption-value paradox in which substantial AI investment does not generate corresponding business value. Firm Productivity negative Business value from AI adoption
Reading fidelity high
Study strength low
not reported
0.06
The paper argues that organizations often implement AI without changing governance, decision rights, or organizational structure, causing pilots either not to scale or to produce efficiencies without strategic or innovation benefits. Organizational Efficiency negative AI implementation scalability and strategic or innovation benefits
Reading fidelity high
Study strength low
not reported
0.06
The paper argues that accountability, bias and fairness, and auditability are key factors in the organizational and social sustainability of AI-enhanced decision processes. Ai Safety And Ethics positive Sustainability and governance quality of AI-enhanced decision processes
Reading fidelity high
Study strength low
not reported
0.06

Notes