GenNP: A low-threshold and powerful network performance data generator

The existing Discrete Event Simulators (DES) cannot meet the demands of modern networks for efficient, accurate, and flexible simulation. Recent m achine l earning models have demonstrated exceptional capabilities for e stimating n etwork p erformance (MLENP). However, the quality and quantity of available data greatly limit the accuracy and generalizability of ML models. After analyzing the data requirements of MLENP over the past decade and the shortcomings of existing DES, we propose a low-threshold and powerful n etwork p erformance data gen erator (GenNP), and generate a network performance dataset consisting of 10K samples. GenNP, with OMNeT++ and INET at its simulation core, integrates the configuration generation layer, simulation transformation layer, result extraction layer, and result output layer, achieving massive random generation of simulation configurations (networks, traffic, routing protocols, faults) and multi-granularity extraction of network performance data (throughput, drop, delay, jitter, routing table). We validate the robust capabilities of GenNP through a series of simulation experiments across multi-granularity (spatial, temporal), diversity (traffic models, network load, fault types, routing protocols), and efficiency (parallelism).

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Publication Details

Journal
Computer Networks
Published
2025-03-18
DOI
https://doi.org/10.1016/j.comnet.2025.111209
Primary Topic
Software-Defined Networks and 5G
Type
article
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article

GenNP: A low-threshold and powerful network performance data generator

Nina Shu, Tao Wu, Fang Yang, Xingkui Du et al.
Computer Networks
Software-Defined Networks and 5G
article

GenNP: A low-threshold and powerful network performance data generator

Nina Shu, Tao Wu, Fang Yang, Xingkui Du, Tao Ma, Chunsheng Liu, Chunlai Ma, Chao Chang
article en

Abstract

The existing Discrete Event Simulators (DES) cannot meet the demands of modern networks for efficient, accurate, and flexible simulation. Recent m achine l earning models have demonstrated exceptional capabilities for e stimating n etwork p erformance (MLENP). However, the quality and quantity of available data greatly limit the accuracy and generalizability of ML models. After analyzing the data requirements of MLENP over the past decade and the shortcomings of existing DES, we propose a low-threshold and powerful n etwork p erformance data gen erator (GenNP), and generate a network performance dataset consisting of 10K samples. GenNP, with OMNeT++ and INET at its simulation core, integrates the configuration generation layer, simulation transformation layer, result extraction layer, and result output layer, achieving massive random generation of simulation configurations (networks, traffic, routing protocols, faults) and multi-granularity extraction of network performance data (throughput, drop, delay, jitter, routing table). We validate the robust capabilities of GenNP through a series of simulation experiments across multi-granularity (spatial, temporal), diversity (traffic models, network load, fault types, routing protocols), and efficiency (parallelism).

Computer NetworksVol. 262
National University of Defense Technology (CN)
Affordable and clean energy
Openalex Percentile: Top 95%
Software-Defined Networks and 5G
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GenNP: A low-threshold and powerful network performance data generator — Nina Shu, Tao Wu, et al. · Computer Networks (2025) | TGRS Research Map | TGRS