This research pioneers an intelligent subsidy governance framework for drone delivery in new retail ecosystems, addressing the critical challenge of balancing efficiency, equity, and sustainability in urban logistics. We establish a theoretical framework integrating user profiles, scenario characteristics, and policy objectives. At its core, a hybrid algorithm engine synergizes: 1) Graph Neural Networks decoding industrial chain synergies through heterogeneous knowledge graphs, 2) Reinforcement Learning enabling adaptive subsidy tuning to market volatility, and 3) Meta-learning-enhanced Collaborative Filtering overcoming cold-start limitations. The “city-enterprise-consumer” knowledge graph transforms multi-source urban data into cross-domain intelligence, facilitating precision targeting from isolated entities to networked ecosystems. Key innovations include dynamic algorithm orchestration and resilience-adaptive subsidy propagation via industrial leverage nodes. This paradigm shifts subsidy design from static fiscal allocation to computationally governed spatial-temporal adaptation, establishing a replicable template for algorithmic policy intelligence in sustainable urban logistics.

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Algorithm-Enhanced Subsidy Optimization for Drone Delivery in New Retail: A Data-Governance Framework

  • Yiting Wang,
  • Junhan Chen,
  • Jingyu Xue

摘要

This research pioneers an intelligent subsidy governance framework for drone delivery in new retail ecosystems, addressing the critical challenge of balancing efficiency, equity, and sustainability in urban logistics. We establish a theoretical framework integrating user profiles, scenario characteristics, and policy objectives. At its core, a hybrid algorithm engine synergizes: 1) Graph Neural Networks decoding industrial chain synergies through heterogeneous knowledge graphs, 2) Reinforcement Learning enabling adaptive subsidy tuning to market volatility, and 3) Meta-learning-enhanced Collaborative Filtering overcoming cold-start limitations. The “city-enterprise-consumer” knowledge graph transforms multi-source urban data into cross-domain intelligence, facilitating precision targeting from isolated entities to networked ecosystems. Key innovations include dynamic algorithm orchestration and resilience-adaptive subsidy propagation via industrial leverage nodes. This paradigm shifts subsidy design from static fiscal allocation to computationally governed spatial-temporal adaptation, establishing a replicable template for algorithmic policy intelligence in sustainable urban logistics.