HLSS: An Agent-Based Adaptive Layered Perception Framework for Hyperspectral Industrial Environments

Abstract

We present Hybrid Layered Spectral Segmentation (HLSS), an agent-based multimodal framework for material-aware instance segmentation in hyperspectral industrial imagery. HLSS frames perception as a cooperative interaction of proposal agents (spatial hypotheses), verification agents (spectral coherence checks), and residual agents (shared state updates) operating over a residual hyperspectral cube. At each iteration, proposal agents generate candidate masks from pseudo-spectral prompts; verification agents accept candidates using cosine-similarity to a reference library and within-mask variance constraints; residual agents then remove accepted pixels to reveal deeper layers. We formalize this as a discrete multi-agent decision process, characterize monotonic residual dynamics, and interpret HLSS as a greedy maximization of spectral coherence under disjoint-support constraints. Finite termination follows from residual shrinkage. On the TECNALIA WEEE benchmark, HLSS attains high spectral precision and produces interpretable confidence maps while remaining training-light. The agent-based view highlights clear interfaces for learning, decentralization, and adaptive policy design.

Publication
Proceeding of the Adaptive and Learning Agents workshop (ALA 2026) held at the 25th International Conference on Autonomous Agents and Multiagent Systems (AAMAS 2026)
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Önder Gürcan
Senior Researcher

My research interests include multi-agent systems, collective intelligence, self-organization and self-adaptation, simulation of biological systems, distributed clock synchronization and behavioural economics.

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