Dynamic Authorization for Knowledge-Base Agents in 6G
It addresses the need for fine-grained access control in decentralized 6G multi-agent systems, but the work appears incremental, applying existing concepts to a new domain.
The paper proposes a hybrid authorization framework for 6G multi-agent systems that combines roles and first-order logic predicates to enforce zero-trust principles at the knowledge-graph level, eliminating permission inheritance by enforcing authorization at the triple level.
As 6G architectures transition toward decentralized Multi-Agent Systems (MAS), ensuring secure access to shared Knowledge Bases (KB) is critical. Traditional authorization models like RBAC fail to provide the granularity required for autonomous agents interacting with Semantic-based data. This work proposes a hybrid authorization framework that integrates roles and First-Order Logic (FOL) predicates to enforce zero-trust principles at the knowledge-graph level. We eliminate permission inheritance by enforcing authorization at the triple level (Subject-Predicate-Object), ensuring agents only access metadata required for their specific functional lifecycle.