Yushun Xie

dblp:257/2747 · DBLP profile ↗
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8ranked-venue papers
3as first author
8since 2021 · last 2025
0000-0002-8274-7778ORCID · corroborated

Domains — the database's venue-derived domains; a paper can count in several

Artificial intelligence and machine learning · 5 · 1 first-author · 5 since 2021Databases, data management, data science and information retrieval · 4 · 3 first-author · 4 since 2021
YearPublicationVenuePosition
2025 An Enhanced Knowledge Graph Embedding for Small-Scale Sparse Knowledge Graph
Yushun Xie, Haiyan Wang 0009, Runnan Tan, Zhaoquan Gu
DASFAA (3)1
2024 CDGM: Controllable Dataset Generation Method for Cybersecurity
Yushun Xie, Haiyan Wang 0009, Runnan Tan, Zhaoquan Gu
ADMA (6)1
2024 Reinforced Negative Sampling for Knowledge Graph Embedding
Yushun Xie, Haiyan Wang 0009, Le Wang 0008, Jianxin Li 0001, Zhaoquan Gu
DASFAA (4)1
2024 P-I2Prange: An Automatic Construction Architecture for Scenarios in I2P Ranges
abstract
Anonymous networks play a crucial role in preserving information privacy, yet simultaneously spark technical conflicts and gamesmanship between their maintainers and regulatory authorities. To solve the above conflicts and economic losses in real networks, it is imminent to realize adversarial exercises in anonymous networks and validate new technologies and scenarios in the cyber range. It is well known that the two dominant types of anonymity networks are Tor and Invisible Internet Project (I2P). This paper establishes a cyber range based on I2P to realize a task-driven automated scenario construction technique. The proposed task-driven automated scenario construction technique can solve the problem of decoupling between business scenarios and I2P cyber range network infrastructure. Specifically, our approach allows users to upload models/executable code to extend flexibly and fine-grained control I2P nodes, protocols, and traffic behavior characteristics. Then it empowers users to define application scenarios as needed, enabling them to handle intricate business scenarios programmatically. Therefore, it further supports diverse adversarial exercises and the validation of new technologies and scenarios within the dark web.
Runnan Tan, Qingfeng Tan, Haiyan Wang 0009, Yushun Xie, Peng Zhang 0001
IJCNN4
2023 Evaluation Framework for Poisoning Attacks on Knowledge Graph Embeddings
Le Wang 0008, Yushun Xie, Zhaoquan Gu
NLPCC (1)4
2023 Masking and purifying inputs for blocking textual adversarial attacks
Zhaoquan Gu, Le Wang 0008, Yushun Xie, Jianxin Li 0001
Inf. Sci.6
2023 MUSEDA: Multilingual Unsupervised and Supervised Embedding for Domain Adaption
Xujian Liang, Zhaoquan Gu, Yushun Xie, Le Wang 0008, Zhihong Tian 0001
Knowl. Based Syst.3
2021 Word-Level Textual Adversarial Attack in the Embedding Space
abstract
Many studies have revealed the vulnerability of deep neural networks (DNNs) in the face of adversarial attacks. By adding a small perturbation to the input, adversarial attacks could fool many advanced models for computer vision, speech recognition and natural language processing tasks, posing severe security threats to DNNs. In this paper, we proposed a gradient-based word-level attack method in the embedding space to attack text classification models. This method computes the significance of each word and chooses the optimal word for substitution after word embedding; the generated adversarial texts have little semantic changes but could successfully fool classification DNNs. Through extensive experiments, we confirmed that the generated adversarial texts could achieve a success rate approaching 100% with a very low word substitution rate in attacking the WordCNN and LSTM models on three datasets. By human evaluation, the adversarial texts evaded human notice which implied little semantic changes were made. Experiments on different models also confirmed the transferability of the adversarial texts. Finally, we adopted adversarial training, and this improved the models' generalization capacity and robustness.
Bin Zhu 0015, Zhaoquan Gu, Yushun Xie, Danni Wu, Yaguan Qian, Le Wang 0008
IJCNN3