Yonggon Jung
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Yonggon Jung has a total of 4 co-authors. Here are the top co-authors by number of shared publications:
- Jun-Geol Baek
Department of Industrial and Management Engineering, Korea University, Seoul, South Korea
2 shared publications Gamsung Shin
1 shared publication- Ghil-Geun Oh
Samsung Electronics Co. Ltd., Suwon, South Korea
1 shared publication - Yongeun Jang
Department of Industrial and Management Engineering, Korea University, Seoul, South Korea
1 shared publication
Latest Publications
- Open Access
- 10 June 2026
- Published by Institute of Electrical and Electronics Engineers (IEEE) in IEEE Access
- Vol. 14, 90319-90333
A Gated Attention-Based Semi-Supervised Learning Framework for Label-Scarce Tabular Data
Tabular data is a data format commonly used in various industries, including finance, medical services, and manufacturing. However, deep learning research for this data type has lagged behind the progress seen in computer vision and natural language processing. Real-world applications often face severe label scarcity due to high labeling costs. Traditional Gradient Boosting Decision Trees (GBDTs) and existing deep learning architectures struggle to achieve high predictive performance under these constraints. This study proposes the Gated Attention Tabular Encoder (GATE) and a two-stage semi-supervised learning pipeline. GATE effectively captures complex feature interactions by using global context from self-attention to dynamically regulate the flow of feature information. The proposed pipeline uses a teacher-student self-distillation framework to extract robust representations from unlabeled data. Then, it employs SoftNCA-based metric learning alongside high-confidence pseudo-labeling to optimize the embedding space with minimal labeled instances. Experimental results on public benchmark data showed that the proposed framework consistently achieved superior average performance across all label-ratio scenarios. The framework achieved an average accuracy of 62.23% with only 1% of the labeled data. It also achieved the highest average accuracy of 89.26% in a fully supervised setting, confirming its universal competitiveness. Through additional experiments, we confirmed that the proposed pipeline constructs a structurally superior representation space and achieves greater class separation compared to supervised learning models. In addition, in terms of computational efficiency, the proposed pipeline achieved this performance by using only 50% of the training parameters and 33% of the FLOPs compared to the comparative transformer-based model, FT-Transformer, and using only one-hundredth of the number of parameters compared to complex SSL models such as SAINT. This study presents a highly effective and computationally efficient paradigm for learning tabular representations in label-deficient industrial environments. The code is available at https://github.com/yongeun-jang/GATE.
- 10 June 2026
- Published by Institute of Electrical and Electronics Engineers (IEEE) in IEEE Access
- Vol. 14, 90319-90333
Open AccessA Gated Attention-Based Semi-Supervised Learning Framework for Label-Scarce Tabular Data
Tabular data is a data format commonly used in various industries, including finance, medical services, and manufacturing. However, deep learning research for this data type has lagged behind the progress seen in computer vision and natural language processing. Real-world applications often face severe label scarcity due to high labeling costs. Traditional Gradient Boosting Decision Trees (GBDTs) and existing deep learning architectures struggle to achieve high predictive performance under these constraints. This study proposes the Gated Attention Tabular Encoder (GATE) and a two-stage semi-supervised learning pipeline. GATE effectively captures complex feature interactions by using global context from self-attention to dynamically regulate the flow of feature information. The proposed pipeline uses a teacher-student self-distillation framework to extract robust representations from unlabeled data. Then, it employs SoftNCA-based metric learning alongside high-confidence pseudo-labeling to optimize the embedding space with minimal labeled instances. Experimental results on public benchmark data showed that the proposed framework consistently achieved superior average performance across all label-ratio scenarios. The framework achieved an average accuracy of 62.23% with only 1% of the labeled data. It also achieved the highest average accuracy of 89.26% in a fully supervised setting, confirming its universal competitiveness. Through additional experiments, we confirmed that the proposed pipeline constructs a structurally superior representation space and achieves greater class separation compared to supervised learning models. In addition, in terms of computational efficiency, the proposed pipeline achieved this performance by using only 50% of the training parameters and 33% of the FLOPs compared to the comparative transformer-based model, FT-Transformer, and using only one-hundredth of the number of parameters compared to complex SSL models such as SAINT. This study presents a highly effective and computationally efficient paradigm for learning tabular representations in label-deficient industrial environments. The code is available at https://github.com/yongeun-jang/GATE.
- Open Access
- 5 February 2026
- Published by Elsevier in Energy Reports
- Vol. 15
Predicting unseen lithium-ion battery degradation modes through domain generalization
- 5 February 2026
- Published by Elsevier in Energy Reports
- Vol. 15
Open AccessPredicting unseen lithium-ion battery degradation modes through domain generalization