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Managers who report stronger AI-enabled decision intelligence also report more resilient supply chains, driven by improved human–AI collaboration and enhanced dynamic capabilities. However, the finding rests on a single-country cross-sectional survey of perceptions, so causality and external validity remain unproven.

AI-enabled decision intelligence for supply chain resilience: The roles of Human–AI collaboration and dynamic capabilities
Farshad Naderpour, Ehsan Abdollahian · August 21, 2026 · Radiant Journal of Business & Sustainability
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Based on a cross-sectional survey of 294 Iranian managers, the paper finds that self-reported AI-enabled decision intelligence is positively associated with human–AI collaboration, dynamic capabilities, and supply chain resilience, with human–AI collaboration and dynamic capabilities acting as sequential mediators.

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Artificial intelligence (AI) is increasingly embedded in supply chain decision-making, yet its contribution to resilience depends on organizations’ ability to combine AI-generated intelligence with human expertise and adaptive organizational capabilities. This study examines how AI-enabled decision intelligence (AIDI) enhances supply chain resilience through human–AI collaboration and dynamic capabilities. Drawing on dynamic capabilities theory, a research model is developed in which AIDI strengthens human–AI collaboration and dynamic capabilities, while dynamic capabilities enable organizations to anticipate, respond to, and recover from supply chain disruptions. The model further proposes that human–AI collaboration and dynamic capabilities sequentially mediate the relationship between AIDI and supply chain resilience. Using survey data from 294 managers and professionals involved in AI-supported supply chain decision-making in Iranian organizations, the proposed relationships were tested using partial least squares structural equation modeling (PLS-SEM). The results support all hypothesized relationships, showing that AIDI positively influences human–AI collaboration, dynamic capabilities, and supply chain resilience. Dynamic capabilities significantly enhance supply chain resilience and mediate the AIDI–resilience relationship, while human–AI collaboration and dynamic capabilities sequentially mediate this relationship. These findings provide a capability-based explanation of how technological intelligence, human expertise, and organizational adaptability jointly contribute to resilient supply chain outcomes. Keywords: AI-Enabled Decision Intelligence, Human–AI Collaboration, Dynamic Capabilities, Supply Chain Resilience, Artificial Intelligence, Supply Chain Management.

Summary

Main Finding

AI-enabled decision intelligence (AIDI) improves supply chain resilience both directly and indirectly. Specifically, AIDI increases human–AI collaboration and strengthens organizational dynamic capabilities (sensing, seizing, reconfiguring), and these mechanisms—individually and sequentially (human–AI collaboration → dynamic capabilities)—mediate the positive effect of AIDI on supply chain resilience. All hypothesized relationships were supported in survey data from 294 managers/professionals in Iranian organizations using PLS-SEM.

Key Points

  • Concepts
    • AIDI: an organizational capability that embeds AI-generated analyses, predictions, and recommendations into managerial decision processes (decision intelligence), not just technology adoption.
    • Human–AI collaboration: systematic interaction where AI provides analytic scale and humans provide contextual interpretation, judgment, and ethical considerations.
    • Dynamic capabilities (DCT): sensing, seizing, and reconfiguring resources and routines under changing conditions.
    • Supply chain resilience: ability to anticipate, respond to, recover from, and adapt after disruptions.
  • Theoretical framing
    • Dynamic capabilities theory explains how AI-generated intelligence must be integrated into managerial and organizational processes to produce resilience.
    • Complementarity: AI and human expertise are complementary; AI alone is insufficient — organizational processes determine value realization.
  • Hypothesized relationships (tested and supported)
    • H1: AIDI → Human–AI collaboration (positive)
    • H2: AIDI → Dynamic capabilities (positive)
    • H3: Human–AI collaboration → Dynamic capabilities (positive)
    • H4: Dynamic capabilities → Supply chain resilience (positive)
    • H5: AIDI → Supply chain resilience (direct positive effect)
    • H6: Dynamic capabilities mediate AIDI → resilience; additionally, human–AI collaboration and dynamic capabilities sequentially mediate AIDI → resilience.
  • Contributions
    • Recasts AI in supply chains as a decision capability (AIDI) rather than only a technological resource.
    • Integrates human–AI collaboration with dynamic capabilities to explain the mechanism from AI to resilience.
    • Empirically documents direct and mediated pathways linking AIDI to resilience.

Data & Methods

  • Sample: survey of 294 managers and professionals involved in AI-supported supply chain decision-making in Iranian organizations.
  • Analysis: partial least squares structural equation modeling (PLS-SEM) to test the proposed model and mediating pathways.
  • Findings: All hypothesized direct and mediated relationships were statistically supported (including sequential mediation: AIDI → human–AI collaboration → dynamic capabilities → resilience).
  • Notes/limitations (as reported or implied)
    • Cross-sectional survey design limits causal inference.
    • Sample context: firms/participants from Iran; generalizability to other institutional contexts should be tested.
    • Measurement details and control variables are not reported here; replication with longitudinal or objective outcome data would strengthen causal claims.

Implications for AI Economics

  • Complementarity and returns to investment
    • Economic returns from AI in supply chains depend critically on complementary investments in human capital (training, decision processes) and organizational dynamic capabilities. Firms that invest only in AI technology may realize limited resilience or productivity gains.
    • AIDI increases the productivity of managerial skill and adaptive routines; thus AI adoption is likely skill‑biased within firms, increasing returns to complementary managerial and organizational capabilities.
  • Risk and expected-loss economics
    • By strengthening sensing, seizing, and reconfiguration, AIDI can lower the expected costs of supply chain disruptions (reduced downtime, faster recovery), altering firms’ optimal risk-management choices (inventory, redundancy, insurance).
    • At sector level, widespread AIDI adoption with effective human–AI integration could reduce systemic vulnerability in supply networks, but heterogeneous adoption and capability gaps may create uneven resilience and new concentration/risk externalities.
  • Strategy and firm heterogeneity
    • Firms should evaluate ROI for AI investments conditional on existing dynamic capabilities and human–AI collaboration readiness. There may be thresholds or complementarities (nonlinear returns) where AI pays off only after organizational changes.
    • Mergers, alliances, or restructuring that transfer organizational capabilities (not only tech) may amplify the value of AI assets.
  • Labor-market and policy implications
    • Because human interpretation and collaboration remain central, policy and firm-level investments in upskilling managers and workers will be critical to translate AI into economic value.
    • Policymakers aiming to improve supply chain resilience should support both AI diffusion and complementary managerial/organizational capacity building (training programs, standards for human–AI decision workflows).
  • Measurement and further research priorities for economists
    • Quantify the reduction in disruption costs attributable to AIDI (direct vs mediated effects) using firm-level longitudinal performance and disruption event data.
    • Model how complementarities between AI and organizational capabilities shape adoption thresholds, wage structure, and market structure.
    • Study general equilibrium and systemic effects: does widespread AIDI adoption lower aggregate volatility or create correlated vulnerabilities through common algorithms/models?
    • Evaluate heterogeneity across contexts (industry, country institutional quality) to assess external validity of the capability-mediated pathway.

Summary takeaway: AI delivers resilience value only when paired with human–AI collaboration and dynamic organizational capabilities. For economists and decision-makers, that implies evaluating AI investments in the context of complementary human capital and adaptive processes — otherwise expected economic gains from AI in supply chains may not materialize.

Assessment

Paper Typecorrelational Evidence Strengthlow — All evidence is from a single cross-sectional survey of managers using self-reported measures and PLS-SEM; results show correlations and mediated associations but cannot rule out reverse causation, common-method bias, omitted variables, or selection bias, so causal claims are weak. Methods Rigormedium — The authors use an appropriate multivariate approach (PLS-SEM) for testing latent constructs and mediated relationships and the sample size (n=294) is reasonable for such models; however, reliance on cross-sectional self-reports, likely single-source measurement, limited information on measurement validation and potential controls, and absence of robustness checks or objective outcome measures reduce methodological rigor. SampleSurvey of 294 managers and professionals involved in AI-supported supply chain decision-making in Iranian organizations; measures appear to be self-reported perceptions of AI-enabled decision intelligence, human–AI collaboration, dynamic capabilities, and supply chain resilience; cross-sectional convenience/organizational sample (sectors not specified in excerpt). Themeshuman_ai_collab org_design adoption IdentificationCross-sectional self-report survey of managers (n=294) analyzed with PLS-SEM to estimate associations and mediation paths; no experimental or quasi-experimental source of exogenous variation and no temporal ordering to support causal identification. GeneralizabilitySingle-country study (Iran) — cultural and institutional context may limit external validity, Managerial/self-report sample — may not reflect objective resilience outcomes or lower-level operational staff perspectives, Cross-sectional design — limits inference about temporal dynamics and causal ordering, Sector/industry composition not specified — applicability across industries unclear, Potential selection bias toward organizations already investing in AI

Claims (7)

ClaimDirectionOutcomeConfidence & EvidenceDetails
AI-enabled decision intelligence positively influences human–AI collaboration. Organizational Efficiency positive Human–AI collaboration in supply chain decision-making
Reading fidelity high
Study strength medium
n=294
0.3
AI-enabled decision intelligence positively influences dynamic capabilities. Organizational Efficiency positive Organizational dynamic capabilities
Reading fidelity high
Study strength medium
n=294
0.3
AI-enabled decision intelligence positively influences supply chain resilience. Organizational Efficiency positive Supply chain resilience, including the ability to anticipate, respond to, and recover from disruptions
Reading fidelity high
Study strength medium
n=294
0.3
Human–AI collaboration positively influences dynamic capabilities. Organizational Efficiency positive Organizational dynamic capabilities
Reading fidelity high
Study strength medium
n=294
0.3
Dynamic capabilities positively influence supply chain resilience. Organizational Efficiency positive Supply chain resilience
Reading fidelity high
Study strength medium
n=294
0.3
Dynamic capabilities mediate the relationship between AI-enabled decision intelligence and supply chain resilience. Organizational Efficiency positive Supply chain resilience as mediated by dynamic capabilities
Reading fidelity high
Study strength medium
n=294
0.3
Human–AI collaboration and dynamic capabilities sequentially mediate the relationship between AI-enabled decision intelligence and supply chain resilience. Organizational Efficiency positive Supply chain resilience through sequential human–AI collaboration and dynamic-capability mechanisms
Reading fidelity high
Study strength medium
n=294
0.3

Notes