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Supply‑chain visibility delivers value only when firms build managerial systems to act on signals; interoperable data, clear exception‑routing, and institutionalized learning — not analytics alone — determine whether information yields coordinated action.

Microfoundations of Adaptive Decision‐Making Capability: How Chief Supply Chain Officers Convert Technology‐Enabled Visibility Into Coordinated Action
Sreedhar Madhavaram, Kerry T. Manis, Matthew Belford, Robert Glenn Richey · September 16, 2026 · Journal of Business Logistics
openalex theoretical low evidence 7/10 relevance Summary only summary available; pdf_status=paywall DOI Source PDF

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Technology‑enabled visibility leads to coordinated, timely supply‑chain action only when firms possess an adaptive decision‑making capability (interoperable data architectures, conversion routines, and learning stabilizers) that converts signals into accountable decisions and institutionalized adjustments.

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ABSTRACT Supply chain leaders increasingly operate with extensive technology‐enabled visibility, yet many firms still struggle to convert shared signals into timely, coordinated action. We frame this tension as the visibility‐to‐action problem in supply chain management (SCM): executives observe more than they can process and often fail to route, prioritize, and execute quickly enough for information to translate into coordinated outcomes. We examine how Chief Supply Chain Officers (CSCOs) close this gap. Drawing on dynamic capabilities and microfoundations research, we adopt a theory‐elaborating qualitative design that pairs a theories‐in‐use approach with the Gioia methodology, analyzing 25 CSCO interviews spanning manufacturing, retail, logistics, and technology sectors. Informants theorize that technology‐enabled advantage depends less on tool acquisition than on the intentional design of interoperable data architectures, conversion routines that filter and route exceptions to accountable owners, and learning stabilizers that preserve reliable adjustment over time. We conceptualize these as the microfoundations of adaptive decision‐making capability (ADMC), a higher‐order managerial capability linking information, judgment, and action into self‐reinforcing learning cycles. As a theorized downstream implication, participants further suggest that ADMC supports the development of adaptive supply chain capability (ASCC), reflected in agility, resilience, alignment, and learning velocity. The study extends microfoundations and dynamic capabilities research by specifying the cognitive, governance, and exception‐management mechanisms through which technology‐enabled visibility becomes coordinated action in data‐intensive SCM settings.

Summary

Main Finding

Technology-enabled visibility in supply chains only produces coordinated, timely action when paired with managerial microfoundations that convert information into decisions and execution. The authors define these microfoundations as an adaptive decision-making capability (ADMC) — composed of interoperable data architectures, conversion routines that filter and route exceptions to accountable owners, and learning stabilizers that preserve reliable adjustment — which in turn enables adaptive supply chain capability (ASCC) (agility, resilience, alignment, learning velocity).

Key Points

  • Visibility-to-action problem: firms collect more signals than they can process; information often fails to produce coordinated outcomes because it is not routed, prioritized, or executed fast enough.
  • ADMC (Adaptive Decision‑Making Capability) is the proposed higher-order managerial capability that links information, judgment, and action into self‑reinforcing learning cycles.
  • Three microfoundations of ADMC:
    • Interoperable data architectures (technical and semantic integration to make signals usable).
    • Conversion routines (procedures that filter, prioritize, and route exceptions to accountable decision owners).
    • Learning stabilizers (processes that preserve and institutionalize reliable adjustments over time).
  • ADMC is theorized to enable ASCC (Adaptive Supply Chain Capability) manifested as increased agility, resilience, alignment across units, and faster learning/adjustment.
  • Advantage depends less on acquiring tools than on intentionally designing architectures, governance, and routines that convert visibility into coordinated action.

Data & Methods

  • Qualitative, theory‑elaborating study.
  • Methods: theories‑in‑use approach combined with the Gioia methodology for systematic inductive qualitative analysis.
  • Data: 25 interviews with Chief Supply Chain Officers (CSCOs) across manufacturing, retail, logistics, and technology sectors.
  • Output: conceptual specification of microfoundations linking technology-enabled visibility to coordinated action in data‑intensive SCM contexts.

Implications for AI Economics

  • Complementarities matter: Economic gains from AI and visibility technologies in supply chains are mediated by organizational capabilities (ADMC). Models of AI-driven productivity should include managerial and governance complements, not just tool deployment.
  • Investment returns: Firms that invest in interoperable data architectures and conversion routines (rather than only in standalone analytic tools) will likely realize higher returns from AI/visibility investments. This suggests heterogeneity in realized productivity gains across firms due to differences in ADMC endowments.
  • Measurement and empirical strategy: Researchers should seek proxies or instruments for ADMC microfoundations (e.g., data interoperability indices, presence of formal exception-routing routines, metrics for institutionalized learning processes) when estimating causal effects of AI/visibility tech on performance.
  • Market dynamics and inequality: If ADMC is costly or hard to develop, first movers or firms with stronger managerial capabilities could capture disproportionate gains from AI-enabled supply-chain visibility, amplifying concentration and competitive gaps across firms and sectors.
  • Labor and organizational design: Effective AI deployment requires reallocation of decision rights, role definitions for exception ownership, and upskilling to support judgment and learning stabilizers — implying complementarities between automation and human governance that affect labor demand and wage structures.
  • Policy and standards: Standards for data interoperability and governance practices could lower frictions to converting visibility into action, increasing the social returns to AI investments and reducing barriers for smaller firms.
  • Future research directions: Quantify ADMC and ASCC, test their mediating role between AI/visibility technology adoption and firm-level outcomes, and evaluate interventions (e.g., governance changes, training, platform standards) that foster the microfoundations.

Suggestions for researchers/practitioners: - When evaluating or deploying AI in supply chains, diagnose the three microfoundations (data architecture, conversion routines, learning stabilizers) and prioritize fixes there before scaling analytic models. - In empirical work, control for or instrument managerial capability when estimating effects of visibility/AI on productivity or resilience.

Assessment

Paper Typetheoretical Evidence Strengthlow — The paper is a qualitative, theory‑elaborating study based on 25 interviews and inductive Gioia coding; it produces plausible microfoundations and mechanisms but provides no causal identification or quantitative testing, so empirical support for claimed causal links is limited. Methods Rigormedium — The authors use a systematic qualitative approach (theories‑in‑use + Gioia methodology), which is appropriate for building mid‑level theory and extracting constructs, but the sample is small and non‑random, there is reliance on executive self‑report, limited triangulation with objective data, and no counterfactual or causal tests. SampleQualitative sample of 25 interviews with Chief Supply Chain Officers (CSCOs) across manufacturing, retail, logistics, and technology sectors; analysis conducted using theories‑in‑use approach and the Gioia inductive coding method to derive microfoundations and a conceptual model. Themesorg_design productivity human_ai_collab adoption GeneralizabilitySmall, non‑random executive sample limits statistical representativeness, Potential self‑report and recall bias from senior executives, Sector and firm‑size heterogeneity not fully characterized (limits cross‑industry generalization), Cross‑sectional, qualitative data — no longitudinal or causal validation, Context limited to data‑intensive supply‑chain settings; may not transfer to low‑data or service contexts

Claims (11)

ClaimDirectionOutcomeConfidence & EvidenceDetails
Technology-enabled supply-chain visibility produces coordinated and timely action only when paired with managerial microfoundations that convert information into decisions and execution. Organizational Efficiency positive Conversion of supply-chain information into coordinated and timely organizational action
Reading fidelity high
Study strength medium
n=25
0.12
Adaptive decision-making capability (ADMC) is composed of interoperable data architectures, conversion routines that filter and route exceptions to accountable owners, and learning stabilizers that preserve reliable adjustment. Organizational Efficiency positive Organizational capability to convert information into decisions, execution, and learning
Reading fidelity high
Study strength medium
n=25
0.12
Interoperable data architectures make supply-chain signals technically and semantically integrated and usable for decision-making. Organizational Efficiency positive Usability and integration of supply-chain information
Reading fidelity high
Study strength medium
n=25
0.12
Conversion routines help supply-chain organizations filter, prioritize, and route exceptions to accountable decision owners. Task Allocation positive Exception prioritization, routing, and ownership
Reading fidelity high
Study strength medium
n=25
0.12
Learning stabilizers preserve and institutionalize reliable adjustments over time, supporting self-reinforcing learning cycles. Organizational Efficiency positive Institutionalized organizational learning and adjustment reliability
Reading fidelity high
Study strength medium
n=25
0.12
ADMC enables adaptive supply-chain capability (ASCC), manifested as agility, resilience, alignment across units, and faster learning and adjustment. Organizational Efficiency positive Adaptive supply-chain capability, including agility, resilience, cross-unit alignment, and learning velocity
Reading fidelity high
Study strength low
n=25
0.06
Firms collect more supply-chain signals than they can process, and information often fails to produce coordinated outcomes because it is not routed, prioritized, or executed quickly enough. Organizational Efficiency negative Timeliness and coordination of supply-chain responses to information
Reading fidelity high
Study strength low
n=25
0.06
Economic gains from AI and supply-chain visibility technologies are mediated by organizational capabilities such as ADMC, so realized productivity gains should differ across firms with different ADMC endowments. Firm Productivity mixed Firm-level productivity gains from AI and visibility-technology investments
Reading fidelity high
Study strength speculative
not reported
0.02
Firms that invest in interoperable data architectures and conversion routines rather than only standalone analytic tools are expected to realize higher returns from AI and supply-chain visibility investments. Firm Productivity positive Returns from AI and supply-chain visibility investments
Reading fidelity high
Study strength speculative
not reported
0.02
Effective AI deployment in supply chains requires reallocation of decision rights, explicit exception ownership, and upskilling to support judgment and learning stabilizers. Task Allocation positive Organizational readiness and capability for effective AI deployment
Reading fidelity high
Study strength speculative
not reported
0.02
Standards for data interoperability and governance practices could reduce frictions in converting supply-chain visibility into action, increasing the social returns to AI investments and reducing barriers for smaller firms. Governance And Regulation positive Friction, accessibility, and social returns associated with AI and visibility-technology adoption
Reading fidelity high
Study strength speculative
not reported
0.02

Notes