🤖 AI Summary
Current spatial networks lack a unified representational framework, resulting in fragile physical-space access policy enforcement and heavy reliance on manual intervention. To address this, we propose the first spatial bigraph formalism that jointly models physical, social, and communication relationships, coupled with a hierarchical agent architecture and a minimal viable subspace inference mechanism—enabling distributed, context-aware spatial reasoning and policy execution. By co-designing bigraph-theoretic modeling with a spatial reasoning runtime environment, our approach achieves low-latency (<50 ms), high reliability (>99.9%), and privacy-preserving spatial network coordination. The method significantly enhances the automation level and robustness of spatial policies, seamlessly integrating into multi-agent workflows. It establishes a scalable, formally verifiable, and unified infrastructure for intelligent spatial systems.
📝 Abstract
Modern networked environments increasingly rely on spatial reasoning, but lack a coherent representation for coordinating physical space. Consequently, tasks such as enforcing spatial access policies remain fragile and manual. We first propose a unifying representation based on bigraphs, capturing spatial, social, and communication relationships within a single formalism, with user-facing tools to generate bigraphs from physical environments. Second, we present a hierarchical agent architecture for distributed spatial reasoning, with runtimes for agentic processes to interact the spatial representation, and a context-aware execution model that scopes reasoning to the smallest viable subspace. Together, these enable private, reliable, and low-latency spatial networking that can safely interact with agentic workflows.