ML Boosts Tabu Search for Wireless Network Design

Wissem Ahmed Zaid, Alain Hertz, Defeng Liu· September 1, 2026 View original

Key takeaways

  • Machine learning can significantly enhance classical metaheuristics for complex optimization problems.
  • Graph Neural Networks can predict the impact of design changes in wireless networks.
  • The ML-enhanced Tabu Search reduces computation time and improves solution quality.
  • This approach offers a path to more efficient and robust network design.

Who benefits

TelecommunicationsDefenseLogisticsSmart Infrastructure

Summary

This paper proposes a data-driven framework that integrates Graph Neural Networks (GNNs) with Tabu Search to enhance the efficiency of tactical wireless network design. By learning from search trajectories to predict the impact of candidate moves, the method significantly reduces computation time and improves solution quality compared to standard Tabu Search.

This research introduces a novel framework that combines machine learning with the classical metaheuristic Tabu Search to optimize the design of tactical wireless networks. Designing these networks under real-world constraints presents complex combinatorial optimization challenges, often requiring extensive computation to evaluate potential solutions. The proposed method aims to overcome this by using a data-driven approach to guide the move selection process within Tabu Search. The framework records search trajectories, including both successful and unsuccessful transformations, along with descriptive features of the network's structural, geometric, and performance characteristics. This data is then used to train a Graph Neural Network (GNN) that predicts the quality of candidate moves. By integrating this trained GNN, the Tabu Search algorithm can prioritize promising transformations, thereby reducing the number of costly objective function evaluations. Experimental results on benchmark instances demonstrate that this learning-assisted Tabu Search not only significantly cuts down computation time but also consistently yields higher-quality network designs than the traditional algorithm.

Why it matters

Professionals in telecommunications, defense, and logistics can leverage this approach to design more efficient and robust wireless networks faster, reducing operational costs and improving performance in complex environments.

How to implement this in your domain

  1. 1Evaluate existing network design optimization processes for potential integration of ML-enhanced metaheuristics.
  2. 2Collect and analyze search trajectory data from current optimization algorithms to train predictive models.
  3. 3Develop or adapt Graph Neural Networks to predict the impact of design changes on network performance.
  4. 4Integrate the trained ML model into optimization algorithms like Tabu Search to guide move selection.

Original post by Wissem Ahmed Zaid, Alain Hertz, Defeng Liu

"arXiv:2608.28627v1 Announce Type: new Abstract: Designing high-performance tactical wireless networks under realistic operational constraints gives rise to challenging combinatorial optimization problems, where the evaluation of candidate solutions relies on detailed physical and…"

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Originally posted by Wissem Ahmed Zaid, Alain Hertz, Defeng Liu on X · view source

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