Chen Wang

Mr. Chen Wang

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

View All Publications
29 April 2024 in The Visual Computer
Verified
Journal Article
Closed access
PDF file
JFJuan Fang
Juan Fang
GYGuan Yang
Guan Yang
AHAyou Han
Ayou Han
XLXiaoming Liu
Xiaoming Liu
BCBo Chen
Bo Chen
CWChen Wang
Chen Wang

23 June 2025 in International Journal of Multimedia Information Retrieval
Verified
Journal Article
Closed access
PDF file
GYGuan Yang
Guan Yang
WSWeihao Sun
Weihao Sun
XLXiaoming Liu
Xiaoming Liu
YLYang Liu
Yang Liu
CWChen Wang
Chen Wang

10 April 2024 in Preprints.org
Verified
Preprint
Open access
PDF file
XLXiaoming Liu
Xiaoming Liu
CWChen Wang
Chen Wang
GYGuan Yang
Guan Yang
CWChunhua Wang
Chunhua Wang
YLYang Long
Yang Long
ZZzhiyuan zhang
zhiyuan zhang
Generalized zero-shot learning (GZSL) aims to simultaneously recognize both seen classes and unseen classes by training only on seen class samples and auxiliary semantic descriptions. Recent state-of-the-art methods infer unseen classes based on semantic information or synthesize unseen classes using generative models based on semantic information, all of which rely on the correct alignment of visual-semantic features. However, they often overlook the inconsistency between original visual features and semantic attributes. Additionally, due to the existence of cross-modal dataset biases, the visual features extracted and synthesized by the model may also mismatch with some semantic features, which could hinder the model from properly aligning visual-semantic features. To address this issue, this paper proposes a GZSL framework that enhances the consistency of visual-semantic features using self-distillation and disentanglement network (SDDN). The aim is to utilize self-distillation and disentanglement network to obtain semantically consistent refined visual features and non-redundant semantic features to enhance the consistency of visual-semantic features. Firstly, SDDN utilizes self-distillation technology to refine the extracted and synthesized visual features of the model. Subsequently, the visual-semantic features are then disentangled and aligned using a disentanglement network to enhance the consistency of the visual-semantic features. Finally, the consistent visual-semantic features are fused to jointly train a GZSL classifier. Extensive experiments demonstrate that the proposed method achieves more competitive results on four challenging benchmark datasets (AWA2, CUB, FLO, and SUN).

18 May 2024 in Electronics
Verified
Journal Article
Open access
PDF file
XLXiaoming Liu
Xiaoming Liu
CWChen Wang
Chen Wang
GYGuan Yang
Guan Yang
CWChunhua Wang
Chunhua Wang
YLYang Long
Yang Long
ZZzhiyuan zhang
zhiyuan zhang
Generalized zero-shot learning (GZSL) aims to simultaneously recognize both seen classes and unseen classes by training only on seen class samples and auxiliary semantic descriptions. Recent state-of-the-art methods infer unseen classes based on semantic information or synthesize unseen classes using generative models based on semantic information, all of which rely on the correct alignment of visual–semantic features. However, they often overlook the inconsistency between original visual features and semantic attributes. Additionally, due to the existence of cross-modal dataset biases, the visual features extracted and synthesized by the model may also mismatch with some semantic features, which could hinder the model from properly aligning visual–semantic features. To address this issue, this paper proposes a GZSL framework that enhances the consistency of visual–semantic features using a self-distillation and disentanglement network (SDDN). The aim is to utilize the self-distillation and disentanglement network to obtain semantically consistent refined visual features and non-redundant semantic features to enhance the consistency of visual–semantic features. Firstly, SDDN utilizes self-distillation technology to refine the extracted and synthesized visual features of the model. Subsequently, the visual–semantic features are then disentangled and aligned using a disentanglement network to enhance the consistency of the visual–semantic features. Finally, the consistent visual–semantic features are fused to jointly train a GZSL classifier. Extensive experiments demonstrate that the proposed method achieves more competitive results on four challenging benchmark datasets (AWA2, CUB, FLO, and SUN).