Artificial intelligence can improve the monitoring and maintenance of roadside safety infrastructure in rural environments, where connectivity, compute, and energy constraints limit cloud-centric approaches. We present a LiDAR-based, edgenative framework for guardrail presence detection, observabilityaware typology inference, and metric deformation estimation. Inference runs fully on resource-constrained edge nodes, while learning is confined to an upstream semantic disambiguation module enabling parameter-efficient, privacy-preserving federated adaptation orchestrated by the Flexible Learning and Evaluation Toolchain (FLeeT) platform. Downstream reasoning, geometric modeling, and deformation analysis are deterministic, enforcing conservative operation under partial observability. A lightweight control plane trades accuracy for energy by adapting inference frequency, processing depth, and participation in federated rounds. Experiments on off-road LiDAR data show repeatable deformation indicators with conservative reporting, supporting scalable deployment across the edge-cloud continuum.
Edge-Native Federated Lidar Analytics for Robust Guardrail Monitoring in Rural Environments
Reggio, Maria TeresaPrimo
Writing – Review & Editing
;La Rosa, Francesco
Secondo
Supervision
;Dell'Acqua, PierluigiPenultimo
Data Curation
;Massimo, VillariUltimo
Project Administration
2026-01-01
Abstract
Artificial intelligence can improve the monitoring and maintenance of roadside safety infrastructure in rural environments, where connectivity, compute, and energy constraints limit cloud-centric approaches. We present a LiDAR-based, edgenative framework for guardrail presence detection, observabilityaware typology inference, and metric deformation estimation. Inference runs fully on resource-constrained edge nodes, while learning is confined to an upstream semantic disambiguation module enabling parameter-efficient, privacy-preserving federated adaptation orchestrated by the Flexible Learning and Evaluation Toolchain (FLeeT) platform. Downstream reasoning, geometric modeling, and deformation analysis are deterministic, enforcing conservative operation under partial observability. A lightweight control plane trades accuracy for energy by adapting inference frequency, processing depth, and participation in federated rounds. Experiments on off-road LiDAR data show repeatable deformation indicators with conservative reporting, supporting scalable deployment across the edge-cloud continuum.Pubblicazioni consigliate
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