RoamML distributed continual learning: Adaptive and flexible data-driven response for disaster recovery operations

In the aftermath of natural disasters, Human Assistance & Disaster Recovery (HADR) operations have to deal with disrupted communication networks and constrained resources. Such harsh conditions make high-communication-overhead ML approaches — either centralized or distributed — impractical, thus hindering the adoption of AI solutions to implement a critical function for HADR operations: building accurate and up-to-date situational awareness. To address this issue we developed Roaming Machine Learning (RoamML), a novel Distributed Continual Learning Framework designed for HADR operations and based on the premise that moving an ML model is more efficient and robust than either large dataset transfers or frequent model parameter updates. RoamML deploys a mobile AI agent that incrementally train models across network nodes containing yet unprocessed data; at each stop, the agent initiate a local training phase to update its internal ML model parameters. To prioritize the processing of strategically valuable data, RoamML Agents follow a navigation system based upon the concept of Data Gravity, leveraging Multi-Criteria Decision Making techniques to simultaneously consider many objectives for Agent routing optimization, including model learning efficiency and network resource utilization, while seamlessly blending subjective insights from expert judgments with objective metrics derived from quantifiable data to determine each next hop. We conducted extensive experiments to evaluate RoamML, demonstrating the framework’s efficiency to train ML models under highly dynamic, resource-constrained environments. RoamML achieves similar performance to centralized ML training under ideal network conditions and outperforms it in a more realistic scenario with reduced network resources, ultimately saving up to 75% in bandwidth utilization across all experiments. • Human Assistance & Disaster Recovery (HADR) requires accurate situational awareness. • Most distributed ML approaches assume a stable network and are unsuited for HADR. • Approaches based on distributed AI agents and continual learning are more resilient. • Data Gravity represents a solid foundational concept for agent routing optimization. • Data Gravity and MCDM allow to prioritize the processing of critical datasets.

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Publication Details

Journal
Journal of Network and Computer Applications
Published
2025-09-09
DOI
https://doi.org/10.1016/j.jnca.2025.104322
Primary Topic
Domain Adaptation and Few-Shot Learning
Type
article
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article

RoamML distributed continual learning: Adaptive and flexible data-driven response for disaster recovery operations

Filippo Poltronieri, Alessandro Gilli, Niranjan Suri, Mauro Tortonesi et al.
Journal of Network and Computer Applications
Domain Adaptation and Few-Shot Learning
article

RoamML distributed continual learning: Adaptive and flexible data-driven response for disaster recovery operations

Filippo Poltronieri, Alessandro Gilli, Niranjan Suri, Mauro Tortonesi, Simon Dahdal, Cesare Stefanelli, Sara Cavicchi
article en

Abstract

In the aftermath of natural disasters, Human Assistance & Disaster Recovery (HADR) operations have to deal with disrupted communication networks and constrained resources. Such harsh conditions make high-communication-overhead ML approaches — either centralized or distributed — impractical, thus hindering the adoption of AI solutions to implement a critical function for HADR operations: building accurate and up-to-date situational awareness. To address this issue we developed Roaming Machine Learning (RoamML), a novel Distributed Continual Learning Framework designed for HADR operations and based on the premise that moving an ML model is more efficient and robust than either large dataset transfers or frequent model parameter updates. RoamML deploys a mobile AI agent that incrementally train models across network nodes containing yet unprocessed data; at each stop, the agent initiate a local training phase to update its internal ML model parameters. To prioritize the processing of strategically valuable data, RoamML Agents follow a navigation system based upon the concept of Data Gravity, leveraging Multi-Criteria Decision Making techniques to simultaneously consider many objectives for Agent routing optimization, including model learning efficiency and network resource utilization, while seamlessly blending subjective insights from expert judgments with objective metrics derived from quantifiable data to determine each next hop. We conducted extensive experiments to evaluate RoamML, demonstrating the framework’s efficiency to train ML models under highly dynamic, resource-constrained environments. RoamML achieves similar performance to centralized ML training under ideal network conditions and outperforms it in a more realistic scenario with reduced network resources, ultimately saving up to 75% in bandwidth utilization across all experiments. • Human Assistance & Disaster Recovery (HADR) requires accurate situational awareness. • Most distributed ML approaches assume a stable network and are unsuited for HADR. • Approaches based on distributed AI agents and continual learning are more resilient. • Data Gravity represents a solid foundational concept for agent routing optimization. • Data Gravity and MCDM allow to prioritize the processing of critical datasets.

Journal of Network and Computer ApplicationsVol. 243
Florida Institute for Human and Machine Cognition (US), University of Ferrara (IT)
Openalex Percentile: Top 87%
Domain Adaptation and Few-Shot Learning
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