The Commonplace
Home Papers Evidence Explore Trends Syntheses Digests References Docs 🎲 Workforce Futures
← Papers
Direction, evidence grade, and study type are AI-generated labels (gpt-5-mini), not human-verified. Syntheses are LLM-written. "Tensions" are machine-detected candidates, not confirmed contradictions. A research-acceleration tool, not peer review. How this is built →

Autonomous AI shifts decision authority away from humans and fragments responsibility, creating an accountability gap that corporate governance must close. The Dynamic Authority Delegation Model assigns clear roles to strategic decision-makers, algorithmic execution, and institutional oversight to make accountability for agentic systems auditable and practicable.

Managing Algorithmic Initiative in Autonomous Systems: A Governance Framework for Corporate Accountability
Mustafa Kaya · August 07, 2026 · Kamu Yönetimi ve Teknoloji Dergisi
openalex theoretical n/a evidence 7/10 relevance Full text usable extracted full text DOI Source PDF

Structured author observations

Linked only from stored provider relations; the raw author line above is never matched by name.

OpenAlex

Latest observation:

  1. Mustafa Kaya provider ID

Semantic Scholar

Latest observation:

  1. Mustafa Kaya provider ID
The paper develops the Dynamic Authority Delegation Model (DADM), arguing that corporate accountability for autonomous AI should be distributed across human strategic intent, algorithmic operational execution, and institutional oversight to close the accountability gap created by delegated algorithmic initiative.

Citation observations

Cumulative provider counts captured on specific dates; providers are never combined.

Autonomous and agentic AI systems are turning information technology from a passive automation tool into an active decision-making proxy. Traditional human-centered liability models fall short once AI makes adaptive, high-impact decisions. This conceptual study analyzes the accountability gap that opens when strategic goals are delegated to algorithmic agents. Drawing on three cases (the Uber autonomous vehicle accident, the 2010 Flash Crash, and the COMPAS judicial risk assessment system), it develops the Dynamic Authority Delegation Model (DADM), which distributes responsibility among human strategic intent, algorithmic operational execution, and institutional oversight. By moving from individual blame to organizational governance, the study contributes to the IT management literature and offers a practical framework for corporate accountability, human oversight, algorithmic auditing, and responsible AI governance.

Summary

Main Finding

The paper argues that agentic, autonomous AI transforms IT from a passive tool into an "algorithmic proxy" that can make adaptive, high-impact decisions. Traditional, human-centered accountability models therefore break down. To fill the resulting accountability gap, the author develops the Dynamic Authority Delegation Model (DADM), which distributes responsibility across three layers—human strategic intent, algorithmic operational execution, and institutional oversight—and proposes concrete governance mechanisms (goal specification, boundary-setting, auditing, and institutional liability) to make corporate accountability practicable for autonomous systems.

Key Points

  • Conceptual distinction
    • Automation vs autonomy: automation follows human-defined rules; autonomy selects strategies in uncertain environments and adapts, producing opacity and unpredictability.
    • Algorithmic proxy: when organizations delegate objectives to agentic AI, the system becomes a relational agent (principal–agent framing) that executes strategies on behalf of principals but lacks moral agency.
  • Accountability taxonomy
    • Moral responsibility: requires intent and ethical understanding (only humans).
    • Causal responsibility: refers to which actor/system functionally produced an outcome (algorithms can be causally responsible).
    • Governance responsibility: institutional duty to anticipate, constrain, monitor, audit, and correct autonomous decision-making (organizational obligation).
  • Two mechanisms that generate the accountability gap
    • Black-box attribution problem: technical opacity and complex training/data interactions make tracing causal chains hard.
    • Problem of many hands: many actors (developers, deployers, vendors, operators, managers) jointly contribute to outcomes, diffusing individual responsibility.
  • Moral Crumple Zone: when accidents occur, responsibility is often unfairly concentrated on the weakest or most visible human actor (e.g., safety driver), masking organizational governance failures.
  • Dynamic Authority Delegation Model (DADM)
    • Distributes responsibility across three layers:
    • Strategic intent (human/organization sets goals and incentives).
    • Operational execution (algorithmic agent implements strategy).
    • Institutional oversight (governance, audit, constraints, liability).
    • Practical governance actions include explicit goal definition, bounded autonomy, continuous monitoring and auditing, and retaining institutional liability for high-risk deployments.
  • Contributions
    • Reframes algorithmic accountability as an IT management and corporate governance problem rather than only a philosophical or legal one.
    • Provides a theory-building, actionable framework for auditors, regulators, and managers.
  • Limitations
    • Conceptual and qualitative design; uses purposive, illustrative case analysis (Uber AV, 2010 Flash Crash, COMPAS) and published reports rather than primary empirical testing.

Data & Methods

  • Research design: qualitative, conceptual, theory-building.
  • Literature synthesis: narrative review of AI governance, ethics, and information systems literatures (search protocol inspired by PRISMA-ScR; sources include Web of Science, Scopus, ACM, IEEE, Google Scholar).
  • Case analysis: purposive cross-case comparison of three public failure cases chosen to represent physical (Uber autonomous vehicle accident), financial (2010 Flash Crash), and social (COMPAS recidivism scoring) domains.
  • Evidence base: official investigation reports and secondary scholarly analyses; cases used illustratively to derive mechanisms and validate the DADM construct rather than for formal hypothesis testing.

Implications for AI Economics

Policy and regulation - Liability design matters: allocation of governance responsibility to organizations (per DADM) supports regulatory approaches that hold deployers/providers institutionally accountable (aligns with elements of the EU AI Act). Clear liability rules will shape firms' incentives to invest in governance vs. to externalize risk. - Regulatory arbitrage risks: without harmonized standards, firms may relocate deployment to jurisdictions with weaker governance or looser liability, affecting global diffusion of agentic AI. Firm behavior and organizational economics - Governance as a production input: managing algorithmic initiative becomes an explicit, potentially costly input (monitoring, audits, compliance, human oversight). Firms will trade off governance costs against gains from autonomy; this affects adoption timing and scale. - Principal–agent framing: DADM suggests new contract and incentive structures—contracts must specify goals, enforce constraints, and internalize downstream harm; performance metrics should account for externalities and ethical constraints. - Moral hazard and risk-shifting: if institutional oversight is weak or liability is ill-specified, firms may under-invest in safe deployment; conversely, strong governance obligations increase internalization of risk and may reduce hazard-taking. Markets for governance services - Demand for third-party auditing, certification, algorithmic insurance, and compliance tools will grow. These markets will influence cost structures of AI adoption and create new firms/industries (auditors, certifiers, insurers). - Insurance implications: actuaries will need to price risks arising from autonomous agents and interacting algorithms (systemic risks like market flashes require new underwriting models). Systemic and aggregate effects - Interaction externalities and systemic risk: cases like the Flash Crash show how interacting autonomous agents can generate large, sudden aggregate consequences. Regulators and economists should model endogenous risk from multi-agent interactions. - Competition and market power: firms with superior governance capabilities (or lower governance costs) may gain advantages; conversely, small firms may be crowded out by high compliance costs, altering market structure. Research agenda for AI economics - Formalize DADM in principal–agent and contracting models to quantify how governance costs, liability rules, and incentive structures affect adoption, investment, and welfare. - Empirically estimate governance cost elasticities: how much oversight, auditing, and constraint reduce accident probability and how those costs scale with system autonomy. - Insurance and pricing: develop models for underwriting algorithmic risk and for pooling systemic risks from interacting agents. - Macro-level modeling: analyze how liability regimes and governance standards influence industry concentration, innovation rates, and social welfare when agentic AI is deployed at scale. Practical recommendations (for economists advising firms/regulators) - Incorporate governance cost channels into technology adoption models rather than treating AI as a pure productivity shock. - Design liability and incentive mechanisms that internalize externalities and encourage investments in monitoring/auditing infrastructure. - Support development of standardized audit metrics and certification processes to reduce information asymmetries in markets for algorithmic governance services.

––––– If you want, I can: (a) produce a 1-page slide-ready summary for policymakers; (b) sketch a simple principal–agent model that formalizes DADM for economists, or (c) extract policy prescriptions tied specifically to the EU AI Act. Which would you prefer?

Assessment

Paper Typetheoretical Evidence Strengthn/a — The paper is a conceptual/theoretical study using a narrative literature review and illustrative cross-case analysis; it does not present primary data, causal inference, or empirical testing of hypotheses, so conventional evidence-strength ratings for causal claims are not applicable. Methods Rigormedium — The study follows a clear qualitative, theory-building design: a targeted narrative review and purposive selection of three well-documented cases (Uber AV crash, 2010 Flash Crash, COMPAS) drawn from official reports and scholarly accounts. However, it lacks systematic case-selection criteria, primary data collection, formal qualitative coding/triangulation procedures, and empirical validation of the proposed model. SampleA narrative literature review (records retrieved from Web of Science, Scopus, ACM DL, IEEE Xplore, PhilPapers, Google Scholar using targeted terms; inclusion prioritized peer-reviewed conceptual/empirical/legal/technical work in English, with focus on 2023–2025) combined with a purposive illustrative cross-case analysis of three publicly documented failures: the Uber autonomous vehicle accident, the 2010 Flash Crash, and the COMPAS recidivism/risk-assessment system; analysis based on official investigation reports and published scholarly accounts—no primary interviews, surveys, or quantitative datasets. Themesgovernance org_design human_ai_collab GeneralizabilityConceptual model not empirically validated or statistically tested, Cases are purposively selected (three high-profile incidents) and may not represent typical deployments, Cases are concentrated in well-documented, high-income regulatory contexts (largely US), limiting transferability to other legal/organizational environments, Rapid evolution of AI architectures and governance regimes may reduce applicability over time, No sector- or firm-size-specific operationalization (may not generalize to SMEs or highly regulated sectors without adaptation)

Claims (10)

ClaimDirectionOutcomeConfidence & EvidenceDetails
Autonomous and agentic AI systems transform information technology from a passive automation tool into an active decision-making proxy, and traditional human-centered accountability models become insufficient when AI makes adaptive, high-impact decisions. Governance And Regulation negative Adequacy of traditional accountability models for autonomous AI decision-making
Reading fidelity high
Study strength low
not reported
0.06
The study identifies an accountability gap that emerges when decision authority is delegated to algorithmic agents. Governance And Regulation negative Clarity and allocation of accountability after delegation of decision authority to AI
Reading fidelity high
Study strength low
n=3
0.06
The Dynamic Authority Delegation Model (DADM) distributes responsibility across three layers: human strategic intent, algorithmic operational execution, and institutional oversight. Governance And Regulation positive Structure of responsibility allocation in autonomous AI governance
Reading fidelity high
Study strength low
n=3
0.06
In the paper's responsibility framework, humans bear moral responsibility for goal-setting, AI systems bear causal responsibility for execution, and organizations bear governance responsibility for oversight. Governance And Regulation positive Assignment of moral, causal, and governance responsibility
Reading fidelity high
Study strength low
not reported
0.06
The paper distinguishes traditional automation from autonomous AI by arguing that automation follows a human-defined goal and execution path, whereas autonomous AI receives a goal but derives its own strategy through learning and environmental interpretation. Task Allocation mixed Allocation of goal-setting and strategy-selection authority between humans and AI
Reading fidelity high
Study strength low
not reported
0.06
Autonomous AI can pursue mathematically optimal strategies that conflict with fairness, safety, or privacy unless those constraints are explicitly embedded and monitored. Ai Safety And Ethics negative Alignment of AI-optimized strategies with fairness, safety, and privacy constraints
Reading fidelity high
Study strength low
not reported
0.06
The accountability gap is generated by two mechanisms: the black-box attribution problem and the problem of many hands. Governance And Regulation negative Ability to attribute responsibility for harmful algorithmic outcomes
Reading fidelity high
Study strength low
not reported
0.06
Autonomous-system governance should prevent responsibility from being concentrated on operators who have the least control and instead distribute responsibility across design, deployment, monitoring, and institutional oversight. Governance And Regulation positive Fairness and adequacy of responsibility allocation across the AI lifecycle
Reading fidelity high
Study strength low
not reported
0.06
Organizations should define ethical objectives, restrict AI autonomy through clear boundaries, establish audit mechanisms, and retain institutional responsibility for high-risk deployment. Governance And Regulation positive Organizational capacity to govern and oversee high-risk autonomous AI deployment
Reading fidelity high
Study strength speculative
not reported
0.02
The study is theory-building and illustrative rather than an empirical test of the proposed framework. Governance And Regulation null_result Empirical testability and evidentiary status of the DADM framework
Reading fidelity high
Study strength high
n=3
0.2

Notes