Tianyang Zhang

Mr. Tianyang Zhang

orcid

Research Focus & Metrics

Academic Career Length

3Years (2024-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2024
Verified
Conference Paper
Open access
PDF file
TZTianyang Zhang
Tianyang Zhang
ZJZhuoxuan Jiang
Zhuoxuan Jiang
SBShengguang Bai
Shengguang Bai
TZTianrui Zhang
Tianrui Zhang
LLLin Lin
Lin Lin
JRJiawei Ren
Jiawei Ren
Tianyang Zhang, Zhuoxuan Jiang, Shengguang Bai, Tianrui Zhang, Lin Lin, Yang Liu, Jiawei Ren. Proceedings of the 2024 Conference on Empirical Methods in Natural Language Processing: Industry Track. 2024.

1 January 2025
Verified
Conference Paper
Open access
PDF file
ZJZhuoxuan Jiang
Zhuoxuan Jiang
TZTianyang Zhang
Tianyang Zhang
PPPeiyan Peng
Peiyan Peng
JCJing Chen
Jing Chen
YXYinong Xun
Yinong Xun
SZShaohua Zhang
Shaohua Zhang
Zhuoxuan Jiang, Tianyang Zhang, Peiyan Peng, Jing Chen, Yinong Xun, Haotian Zhang, Lichi Li, Yong Li, Shaohua Zhang. Proceedings of the 63rd Annual Meeting of the Association for Computational Linguistics (Volume 6: Industry Track). 2025.

3 June 2025 in arXiv
Verified
Preprint
Open access
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ZJZhuoxuan Jiang
Zhuoxuan Jiang
TZTianyang Zhang
Tianyang Zhang
PPPeiyan Peng
Peiyan Peng
JCJing Chen
Jing Chen
YXYinong Xun
Yinong Xun
SZShaohua Zhang
Shaohua Zhang
Generating high-quality geometry problems is both an important and challenging task in education. Compared to math word problems, geometry problems further emphasize multi-modal formats and the translation between informal and formal languages. In this paper, we introduce a novel task for geometry problem generation and propose a new pipeline method: the Symbolic Deduction Engine-based Geometry Problem Generation framework (SDE-GPG). The framework leverages a symbolic deduction engine and contains four main steps: (1) searching a predefined mapping table from knowledge points to extended definitions, (2) sampling extended definitions and performing symbolic deduction, (3) filtering out unqualified problems, and (4) generating textual problems and diagrams. Specifically, our method supports to avoid inherent biases in translating natural language into formal language by designing the mapping table, and guarantees to control the generated problems in terms of knowledge points and difficulties by an elaborate checking function. With obtained formal problems, they are translated to natural language and the accompanying diagrams are automatically drew by rule-based methods. We conduct experiments using real-world combinations of knowledge points from two public datasets. The results demonstrate that the SDE-GPG can effectively generate readable, solvable and controllable geometry problems.