Tracing Your Account: A Gradient-Aware Dynamic Window Graph Framework for Ethereum Under Privacy-Preserving Services

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Authors: Shuyi Miao, Wangjie Qiu, Xiaofan Tu, Yunze Li, Yongxin Wen, Zhiming Zheng
Cited by: 0
References: 33

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Abstract

With the rapid advancement of Web 3.0 technologies, public blockchain platforms are witnessing the emergence of novel services designed to enhance user privacy and anonymity. However, the powerful untraceability features inherent in these services inadvertently make them attractive tools for criminals seeking to launder illicit funds. Notably, existing de-anonymization methods face three major challenges when dealing with such transactions: highly homogenized transactional semantics, limited ability to model temporal discontinuities, and insufficient consideration of structural sparsity in account association graphs. To address these, we propose GradWATCH, designed to track anonymous accounts in Ethereum privacy-preserving services. Specifically, we first design a learnable account feature mapping module to extract informative transactional semantics from raw on-chain data. We then incorporate transaction relations into the account association graph to alleviate the adverse effects of structural sparsity. To capture temporal evolution, we further propose an edge-aware sliding-window mechanism that propagates and updates gradients at three granularities. Finally, we identify accounts controlled by the same entity by measuring their embedding distances in the learned representation space. Experimental results show that even under the conditions of unbalanced labels and sparse transactions, GradWATCH still achieves significant performance gains, with relative improvements ranging from 1.62% to 15. 22% in the MRR and from 3. 85% to 7. 31% in the F_1.

Fields of Study & Subjects

Blockchain Technology Applications and Security Privacy-Preserving Technologies in Data Internet Traffic Analysis and Secure E-voting

Publication details

Journal / source
IEEE Transactions on Information Forensics and Security
Volume
21
Pages
3325–3338
Publication date
1 January 2026
Language
EN