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Suppliers can profitably abandon MCN reseller channels and switch to self-operated AI live-streaming when traffic spillovers and consumer preference for AI are strong, reshaping pricing and profits and — under some parameter combinations — boosting consumer welfare; MCNs may only gain when consumer AI preference is already high.

Cooperation or AI-driven self-reliance? Supplier channel exit decisions in live-streaming supply chain
Wenyu Hou, Nan Chen · August 31, 2026 · Frontiers in Artificial Intelligence
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A two-stage Stackelberg model shows that when MCN-to-supplier traffic spillovers and consumer preference for AI streamers are sufficiently strong, suppliers have incentives to exit MCN resale channels and operate self-owned AI live-streaming, changing pricing, profits, and consumer surplus and sometimes increasing social welfare.

Citation observations

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As AI technology rapidly matures, suppliers are actively establishing self-operated AI-hosted channels while continuing to rely on MCN resale channels. The cross-channel traffic spillover effect and consumers' AI preference have intensified channel conflicts, prompting some suppliers to consider exiting MCN partnerships. To examine the feasibility of such supplier exit behavior, this paper develops a two-stage Stackelberg game model between the supplier and the MCN. The analysis reveals that channel exit disrupts the inherent zero-sum competitive relationship within the supply chain, and that different combinations of spillover intensity and consumer AI preference yield differentiated equilibrium outcomes. Interestingly, when consumers exhibit strong preference for AI streamers, the MCN instead benefits from enhanced sales profits. Moreover, consumer channel preference tends to compress consumer surplus; however, a multi-party win can be achieved when a strong spillover effect coincides with low-to-moderate consumer AI preference. This study provides theoretical guidance for suppliers' channel-exit decisions and MCNs' response strategies, and offers practical references for livestream market regulation.

Summary

Citation: Hou W. & Chen N. (2026). Cooperation or AI-driven self-reliance? Supplier channel exit decisions in live‑streaming supply chain. Frontiers in Artificial Intelligence 9:1928289. doi:10.3389/frai.2026.1928289

Main Finding

A supplier’s decision to exit an MCN resale channel and operate solely via its own AI live‑streamer depends critically on two forces: the cross‑channel traffic spillover from MCN → supplier (θ) and consumers’ preference for AI streamers (k). Using a two‑stage Stackelberg model, the authors show that (1) channel exit can break the prior zero‑sum structure between supplier and MCN and produces region‑dependent equilibria; (2) under some parameter combinations a supplier exit can create a multi‑party win (supplier, MCN and consumers), but (3) strong consumer preference for AI frequently compresses consumer surplus and—counterintuitively—can improve MCN profits in some cases. The paper gives theoretical guidance on when suppliers should terminate MCN partnerships and how MCNs and regulators might respond.

Key Points

  • Model setting: two consecutive selling stages. In stage 1 supplier and MCN operate in a dual‑channel mode (MCN resale + supplier AI channel). At the end of stage 1 supplier may revoke MCN authorization and switch to single‑channel AI monopoly in stage 2 (channel exit) or continue long‑term cooperation.
  • Two main parameters drive outcomes:
    • θ: one‑way traffic spillover from MCN live rooms to the supplier’s AI live room (positive carryover).
    • k: multiplicative factor of consumer valuation for supplier’s AI channel (consumer preference for AI).
  • Main comparative results:
    • Low-to-moderate k with sufficiently strong spillover (high θ) can produce Pareto improvements (higher supplier and MCN profits and higher consumer surplus) — a multi‑party win.
    • High k (strong AI preference) tends to reduce consumer surplus; in some parameter regions MCN profits increase even when the supplier focuses on its AI channel.
    • Channel exit alters pricing strategies and demand allocations; spillover mitigates the MCN’s exclusive bargaining power because supplier can internalize traffic gains.
  • Managerial and regulatory takeaways:
    • Suppliers should consider exiting when own AI channel valuation (k) and accumulated spillover (θ) make self‑operation more profitable.
    • MCNs should account for spillover risk and may respond by changing effort levels, renegotiating exclusivity/commission terms, or adopting cooperative safeguards.
    • Regulators should monitor welfare impacts because AI adoption can compress consumer surplus even as some configurations increase aggregate welfare.

Data & Methods

  • Type: theoretical (analytical) paper with numerical simulation for illustration and robustness checks.
  • Game framework: two‑stage Stackelberg game between supplier (leader in certain choices) and MCN, solved by backward induction to obtain subgame perfect equilibria under two scenarios (long‑term cooperation vs short‑term cooperation/exit).
  • Demand and preferences:
    • Consumer valuations v (MCN channel) and k·v (AI channel) are uniformly distributed on (0,1); k ≥ 0 indexes AI preference.
    • θ captures positive one‑way spillover from MCN stage‑1 traffic to supplier stage‑2 demand.
  • Cost structure and assumptions:
    • MCN exerts effort e with quadratic cost 1/2 e^2.
    • Supplier production cost normalized to zero.
    • Supplier controls authorization of MCN resale channel (can revoke).
    • Interior equilibrium requires θ within specified bounds (ensures nonnegative demands).
  • Outputs analyzed: equilibrium prices, demands, profits (supplier and MCN), consumer surplus and social welfare across parameter regions.
  • Limitations documented by authors: stylized assumptions (uniform valuations, zero production cost, single MCN, two stages), no explicit modeling of commission contracts or multiple competing MCNs, and no direct empirical estimation.

Implications for AI Economics

  • Platform and channel power: AI‑driven self‑operation changes bargaining leverage across the ecosystem because firms can internalize spillover traffic and data — altering platform/MCN business models and bargaining positions.
  • Data ownership and strategic exit: control over user traffic and data (through AI channels) becomes a valuable strategic asset; suppliers may forgo intermediaries to capture data rents and downstream margins, reshaping industry structure.
  • Welfare tradeoffs of AI adoption: AI streamers can improve operational efficiency and aggregate welfare in some regimes (strong spillover + moderate AI preference) but may compress consumer surplus when consumer AI preference is high — implying nonlinear welfare effects from technological adoption.
  • Policy considerations: regulators should track how AI‑enabled channel consolidation affects consumer surplus, competition, and data concentration; interventions (e.g., transparency, data portability or limits on exclusive revocation) may be warranted depending on market outcomes.
  • Research directions: empirical testing of model predictions (e.g., measured θ and k in real markets), extensions to multiple competing MCNs/platforms, endogenous commission contracts or exclusivity clauses, richer consumer heterogeneity, and multi‑period dynamics beyond two stages.

Limitations to keep in mind when applying the results: the model is analytic and assumes simplified cost and preference structures; real markets feature heterogeneous consumers, multiple intermediaries, and dynamic contractual arrangements that could modify thresholds for profitable exit.

Assessment

Paper Typetheoretical Evidence Strengthn/a — This is a theoretical/analytical paper that produces implications from a formal game-theoretic model rather than drawing on empirical data or natural experiments; therefore empirical evidence strength is not applicable. Methods Rigormedium — The paper uses a standard and appropriate method (two-stage Stackelberg game with backward induction), clearly defines parameters and assumptions (uniform valuations, zero production cost, spillover θ, AI preference k), and derives equilibria and comparative statics; however, simplifying assumptions (zero production cost, single MCN, uniform distributions, omitted platform commissions and multi-agent competition) limit realism and robustness checks. SampleNo empirical sample — analytical model with three agents (one supplier, one MCN, and a continuum of consumers). Consumer valuations for MCN channel v and for AI channel kv are modeled as independent uniform(0,1). Two consecutive selling stages: first stage always dual-channel; supplier may exit (terminate MCN authorization) before second stage. Key parameters: θ (one-way positive traffic spillover from MCN to supplier AI channel), k (consumer preference multiplier for AI channel), MCN effort e with quadratic cost, supplier wholesale/pricing decisions; equilibrium demands and profits derived analytically and illustrated with numerical simulation. Themesadoption org_design IdentificationAnalytical game-theoretic identification: a two-stage Stackelberg model solved by backward induction to derive equilibrium pricing, effort, demand, and welfare outcomes as functions of model parameters (spillover θ, AI preference k, MCN effort e); causal claims are model-implied relationships rather than empirically identified effects. GeneralizabilitySingle-supplier single-MCN setting ignores competition among multiple suppliers and multiple MCNs, Assumes zero production cost and omits platform commissions/fees, which may affect incentives, Uniform distribution of valuations and simple parameterization (single k, single θ) may not capture heterogeneous consumer preferences, One-way spillover only (MCN → supplier AI) and fixed two-stage horizon; real markets have richer, continuous dynamics and bidirectional effects, Ignores strategic behavior by platforms, multi-product assortments, and regulatory constraints which could alter outcomes, Calibrated/descriptive examples are China-centric; market institutional differences may limit transferability

Claims (9)

ClaimDirectionOutcomeConfidence & EvidenceDetails
Supplier channel exit disrupts the inherent zero-sum competitive relationship between the supplier and the MCN, with equilibrium outcomes varying according to the combination of cross-channel traffic-spillover intensity and consumer preference for AI streamers. Market Structure mixed Supplier–MCN equilibrium relationship and channel-strategy outcomes
Reading fidelity high
Study strength medium
not reported
0.12
When consumers have a strong preference for AI streamers, the MCN can benefit from increased sales profits rather than being harmed by the supplier's AI channel. Firm Revenue positive MCN sales profit
Reading fidelity high
Study strength medium
not reported
0.12
Consumer preference for the AI channel tends to reduce consumer surplus. Consumer Welfare negative Consumer surplus
Reading fidelity high
Study strength medium
not reported
0.12
A multi-party win involving the supplier, MCN, and consumers can occur when the traffic-spillover effect is strong and consumer preference for AI streamers is low to moderate. Consumer Welfare positive Joint stakeholder welfare and profits
Reading fidelity high
Study strength medium
not reported
0.12
A supplier has an incentive to terminate its MCN cooperation and retain only its self-operated AI channel when consumer preference for AI streamers exceeds a threshold and the MCN-generated traffic-spillover effect is sufficiently strong. Task Allocation positive Supplier channel-exit decision
Reading fidelity high
Study strength medium
not reported
0.12
Moderate traffic spillover supports growth of the supplier's AI channel and reduces market-cultivation costs, whereas high spillover can transfer MCN-developed users to the supplier's channel and benefit a competing channel. Adoption Rate mixed AI-channel growth and market-cultivation costs
Reading fidelity high
Study strength low
not reported
0.06
The model represents traffic spillover from the MCN channel as increasing the supplier's AI-channel demand, click-through rate, and brand-exposure gains. Adoption Rate positive Supplier AI-channel demand and brand exposure
Reading fidelity high
Study strength low
not reported
0.06
Reducing the number of live-streaming channels can, under specific conditions, enhance consumer welfare. Consumer Welfare positive Consumer welfare or consumer surplus
Reading fidelity high
Study strength medium
not reported
0.12
The paper's conclusions are derived from an analytical two-stage Stackelberg game rather than from an empirical sample of firms or consumers. Other other Equilibrium prices, demands, profits, and consumer surplus
Reading fidelity high
Study strength high
not reported
0.2

Notes