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RouteNet-Gauss: Hardware-Enhanced Network Modeling with Machine Learning

Created by
  • Haebom

Author

Carlos G uemes-Palau, Miquel Ferriol-Galm es, Jordi Paillisse-Vilanova, Albert L opez-Bresc o, Pere Barlet-Ros, Albert Cabellos-Aparicio

Outline

RouteNet-Gauss is a novel network simulation methodology that integrates a testbed network and a machine learning (ML) model to overcome the computational cost and accuracy limitations of conventional discrete event simulation (DES) methods. Leveraging the testbed as a hardware accelerator, it rapidly generates a high-quality training dataset and simulates network scenarios that closely resemble real-world environments. Experimental results demonstrate that RouteNet-Gauss reduces prediction errors by up to 95% and inference times by 488x compared to state-of-the-art DES-based methods. Its modular architecture dynamically configures the model based on characteristics such as network topology and routing, enabling understanding and generalization across diverse network configurations, including networks up to 10x the size of the training data. Furthermore, it supports Temporal Aggregate Performance Estimation (TAPE), providing configurable temporal granularity and maintaining high accuracy for flow performance metrics.

Takeaways, Limitations

Takeaways:
Dramatically improves the speed and accuracy of existing DES-based network simulations.
Efficient training data generation using testbed networks and ensuring high similarity to real environments.
Modular architecture enhances adaptability to diverse network topologies and scales.
Provides flexible temporal granularity and high-accuracy flow performance predictions through the TAPE feature.
Providing useful tools to network operators
Limitations:
Cost and resource consumption for building and maintaining a testbed network
Expertise required for training and optimizing ML models
Further validation of the generalization performance of ML models is needed.
Difficulty in perfectly matching the actual network environment (depending on the model's approximation)
Scalability verification is needed for large-scale, complex network simulations.
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