Antifragility via Online Learning and Monitoring: An IoT Case Study

The introduction of antifragility as a design paradigm for self-adaptive systems is shifting the attention beyond resiliency, which focuses on the ability of systems to recover from failures, towards the ability of such systems to learn from these experiences. Ideally, the manager of an autonomous system should be able to exploit a learning framework and adapt itself alongside the system it is monitoring to deal with unforeseen circumstances. Machine learning, in general, and reinforcement learning, in particular, offer the tools and framework to learn online from experience by extracting models from the collected data. However, learning tools alone are not sufficient: understanding when learning is required is a complementary problem. In fact, learning continuously can turn out to be resource demanding and may lead to faulty models. In this context, monitoring approaches for online learning, a framework of machine learning designed to deal with evolving environments through statistical analysis by predicting when the monitored system has changed, comes in handy. With this paper we offer our view on the problem of implementing antifragility using online learning and monitoring approaches in conjunction with reinforcement learning. Moreover, to support the proposed methodology, we provide a demonstrative implementation applied to the manager of an IoT network and we compare it with alternative learning approaches to showcase its benefits.

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Publication Details

Published
2025-09-29
DOI
https://doi.org/10.1109/acsos66086.2025.00022
Citations
1
Primary Topic
Software System Performance and Reliability
Type
article
Field-Weighted Citation Impact
1.49
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Antifragility via Online Learning and Monitoring: An IoT Case Study

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article

Antifragility via Online Learning and Monitoring: An IoT Case Study

Vincenzo Grassi, Raffaela Mirandola, Diego Pérez-Palacín, Vincenzo Scotti, Valerio Brauzi
article en
1 citations

Abstract

The introduction of antifragility as a design paradigm for self-adaptive systems is shifting the attention beyond resiliency, which focuses on the ability of systems to recover from failures, towards the ability of such systems to learn from these experiences. Ideally, the manager of an autonomous system should be able to exploit a learning framework and adapt itself alongside the system it is monitoring to deal with unforeseen circumstances. Machine learning, in general, and reinforcement learning, in particular, offer the tools and framework to learn online from experience by extracting models from the collected data. However, learning tools alone are not sufficient: understanding when learning is required is a complementary problem. In fact, learning continuously can turn out to be resource demanding and may lead to faulty models. In this context, monitoring approaches for online learning, a framework of machine learning designed to deal with evolving environments through statistical analysis by predicting when the monitored system has changed, comes in handy. With this paper we offer our view on the problem of implementing antifragility using online learning and monitoring approaches in conjunction with reinforcement learning. Moreover, to support the proposed methodology, we provide a demonstrative implementation applied to the manager of an IoT network and we compare it with alternative learning approaches to showcase its benefits.

Karlsruhe Institute of Technology (DE), University of Rome Tor Vergata (IT)
Openalex Percentile: Top 12%
Software System Performance and Reliability
1.49
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