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Enrique Tomás Martínez Beltrán

Postdoctoral research in AI, cybersecurity and federated learning, spanning threat analysis, closed-loop cyberdefense and trustworthy decentralized learning.

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  2. Artificial Intelligence, Cybersecurity & Federated Learning Research
  3. DATRIS: Decentralized AI for Trustworthy and Resource-efficient Intelligent Systems
DATRIS

DATRIS: Decentralized AI for Trustworthy and Resource-efficient Intelligent Systems

Trustworthy and resource-efficient decentralized AI solutions

Developed decentralized AI solutions addressing computational constraints and trust validation under armasuisse Cyber-Defence Campus sponsorship.

DATRIS: Decentralized AI for Trustworthy and Resource-efficient Intelligent Systems
University of Murcia/Jan 2024 / Dec 2024
Period
Jan 2024 / Dec 2024
Status
Completed
Institutional role
Academic partner
Partners
University of Murcia
Outcome
Developed decentralized AI solutions addressing computational constraints and trust validation under armasuisse Cyber-Defence Campus sponsorship.
Decentralized Federated LearningDecentralized Federated LearningResource EfficiencyTrustworthy AI

DATRIS (Decentralized AI for Trustworthy and Resource-efficient Intelligent Systems) is a completed research project supported by the Cyber-Defence Campus at armasuisse (Switzerland) during 2024. The research was conducted at the University of Murcia's CyberDataLab.

Project Overview

Decentralized federated systems face two critical challenges when deploying Machine Learning models to resource-constrained devices: high computational/communication overheads and vulnerability to collaborative poisoning attacks.

DATRIS addresses both challenges by studying mechanisms to optimize and secure collaborative AI. The project investigates model compression and pruning techniques alongside robust defenses such as Moving Target Defense (MTD) and LLM-assisted analysis for decentralized environments exposed to communication threats and software-level risks.

Core Accomplishments

  1. Resource Efficiency: Studied hardware-aware pruning and quantization to reduce model size for low-power edge gateways.
  2. Threat Mitigation via LLMs: Researched how Large Language Models (LLMs) may support interpretation of system calls and anomalous execution patterns in edge telemetry.
  3. Decentralized Protection (MTD): Explored Moving Target Defense (MTD) strategies for randomizing communication protocols and topologies, making DFL networks harder to map and exploit.

The DATRIS project was sponsored by the armasuisse Cyber-Defence Campus.

Methodology

  • Resource-efficient model optimization and local training protocols.

Collaborating Team

University of Murcia

Academic partner

Provided optimization, model pruning, and decentralized trust verification code.

Related Research

DEFENDIS: Decentralized Federated Learning for IoT Device Identification and Security

Apr 2023 / Nov 2023

DEFENDIS: Decentralized Federated Learning for IoT Device Identification and Security

DEFENDIS develops a framework for uniquely identifying IoT devices in a distributed manner while solving security threats through decentralized federated learning.

Cybersecurity and Distributed Federated Learning

Nov 2025 / Jan 2026

Cybersecurity and Distributed Federated Learning

An international research exchange program investigating threat mitigation models for node-to-node federated learning.