ModelFreeUP: Attacking Sparse Network Monitoring via Model-Free Universal Adversarial Perturbation
Abstract
Sparse network monitoring, a breakthrough technology for cost-effective network-wide monitoring, has garnered significant attention from researchers and network equipment providers. By measuring only a subset of paths and nodes, it leverages the network’s low-rank property to obtain comprehensive monitoring data. However, a previously unnoticed vulnerability called the"global diffusion vulnerability"poses a significant threat to sparse network monitoring. This vulnerability suggests that if a few measurement samples are tainted, the entire network monitoring data can become inaccurate, leading to potential network failures and adverse effects on routing and bandwidth allocation. This paper presents the first exploration of the"global diffusion vulnerability"to launch effective attacks on sparse network monitoring. Sparse monitoring often employs various imputation models to estimate unmeasured data and collects multiple perspectives of network-wide data over extended periods. The challenges in attacking sparse monitoring lie in designing perturbations that can impact all views of network-wide data over time, regardless of the specific imputation models, while remaining unobtrusive. To tackle these challenges, we propose ModelFreeUP, the first perturbation generation algorithm designed for sparse network monitoring. ModelFreeUP creates imputation model-free, universal, and unobtrusive perturbations that exert a significant influence on multiple perspectives of network-wide data over time. Our experiments demonstrate that ModelFreeUP effectively disrupts the sparse monitoring process, causing substantial deviations in the network-wide monitoring data at a relatively low attack cost. Furthermore, when the manipulated monitoring data is used for downstream routing tasks, it triggers 100% Maximum Link Utilization in the Abilene network, indicating network congestion or failure. By shedding light on these critical mismeasurement issues, our work emphasizes the need for robust countermeasures against adversarial attacks in the network monitoring domain.
Fields of Study & Subjects
Software-Defined Networks and 5G
Advanced Graph Neural Networks
Opportunistic and Delay-Tolerant Networks
Publication details
- Journal / source
- IEEE Transactions on Networking
- Publisher
- Institute of Electrical and Electronics Engineers (IEEE)
- Volume
- 34
- Pages
- 3272–3287
- Publication date
- 1 January 2026