English

Detecting unknown HTTP-based malicious communication behavior via generated adversarial flows and hierarchical traffic features

Cryptography and Security 2023-09-08 v1 Networking and Internet Architecture

Abstract

Malicious communication behavior is the network communication behavior generated by malware (bot-net, spyware, etc.) after victim devices are infected. Experienced adversaries often hide malicious information in HTTP traffic to evade detection. However, related detection methods have inadequate generalization ability because they are usually based on artificial feature engineering and outmoded datasets. In this paper, we propose an HTTP-based Malicious Communication traffic Detection Model (HMCD-Model) based on generated adversarial flows and hierarchical traffic features. HMCD-Model consists of two parts. The first is a generation algorithm based on WGAN-GP to generate HTTP-based malicious communication traffic for data enhancement. The second is a hybrid neural network based on CNN and LSTM to extract hierarchical spatial-temporal features of traffic. In addition, we collect and publish a dataset, HMCT-2020, which consists of large-scale malicious and benign traffic during three years (2018-2020). Taking the data in HMCT-2020(18) as the training set and the data in other datasets as the test set, the experimental results show that the HMCD-Model can effectively detect unknown HTTP-based malicious communication traffic. It can reach F1 = 98.66% in the dataset HMCT-2020(19-20), F1 = 90.69% in the public dataset CIC-IDS-2017, and F1 = 83.66% in the real traffic, which is 20+% higher than other representative methods on average. This validates that HMCD-Model has the ability to discover unknown HTTP-based malicious communication behavior.

Cite

@article{arxiv.2309.03739,
  title  = {Detecting unknown HTTP-based malicious communication behavior via generated adversarial flows and hierarchical traffic features},
  author = {Xiaochun Yun and Jiang Xie and Shuhao Li and Yongzheng Zhang and Peishuai Sun},
  journal= {arXiv preprint arXiv:2309.03739},
  year   = {2023}
}

Comments

32 pages, 9 figures

R2 v1 2026-06-28T12:15:20.871Z