Published August 28, 2025 | Version v1
Journal Open

DETROIT: Decomposition techniques for a hierarchy of 6G network intent management functions

  • 1. Ericsson Research Networks, Turkey
  • 1. Ericsson Research Artificial Intelligence, India
  • 2. Ericsson Research Compute & Software, India
  • 3. Ericsson Research Networks, Sweden

Description

To manage the scale and complexity of 6G autonomous network deployments, the concept of intent-driven networking has been introduced. Intents are further autonomously handled by implementations of intent management functions. The scalable management of intents is foreseen to be hierarchical, with multiple intent management functions at the business, management and resource levels. This hierarchy brings in challenges in decomposing high-level intent expectations to sub-intents to be solved by lower-level intent managers. In this paper, we present DETROIT, a framework for hierarchical intent decomposition. In DETROIT, we examine the use of multiple decomposition algorithms to determine the optimal decomposition techniques. To provide correct decompositions, a QoS algebraic formulation is incorporated within the decomposition algorithms. Intent reports are further composed to provide feedback on the efficacy of the decomposition process. Further prediction and evaluation steps ensure careful deliberation of the outputs before actuation. The decomposition is implemented over a network slicing use case with multiple expectations. We demonstrate that through the use of the agents and QoS algebra proposed within DETROIT, the decomposed targets are generated within 2% deviation. This process further captures the tradeoff between reaching intent expectation targets and resource optimality. Such an automated process of intent decomposition would be crucial in a hierarchy of 6G intent management functions.

Files

DETROIT Decomposition techniques for a hierarchy of 6G network intent.pdf

Additional details

Identifiers

ISSN
1389-1286

Funding

European Commission
DESIRE6G - Deep Programmability and Secure Distributed Intelligence for Real-Time End-to-End 6G Networks 101096466

Dates

Available
2025-08-28