Dike Chen

Mr. Dike Chen


Research Focus & Metrics

Academic Career Length

2Years (2025-Present)

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

Representative Publications

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26 February 2026 in Knowledge-Based Systems
Verified
Journal Article
Closed access
BWBoyu Wang
Boyu Wang
ZDZongyuan Ding
Zongyuan Ding
HWHongyuan Wang
Hongyuan Wang
JZJi Zhang
Ji Zhang
DCDike Chen
Dike Chen
JTJiaying Tang
Jiaying Tang

3 July 2025 in Applied Sciences
Verified
Journal Article
Open access
PDF file
DCDike Chen
Dike Chen
JSJiacheng Sui
Jiacheng Sui
JZJi Zhang
Ji Zhang
HWHongyuan Wang
Hongyuan Wang
This study aims to investigate the flight endurance problems that unmanned aerial vehicles (UAVs) face when carrying out filming tasks, the relatively limited computational resources of xmini platforms carried by UAVs, and the need for fast decision making and responses when processing image data in real-time. In this study, an improved Yolov8s-CFS model based on Yolov8s is proposed to address the need for a lightweight solution when UAVs are used to perform filming tasks. First, the Bottlenet in C2f is replaced by the FasterNet Block to achieve an overall lightweighting effect; second, in order to reduce the problem of model accuracy degradation due to excessive lightweighting, this study introduces the self-weight coordinate attention (SWCA) in the C2f-Faster module connected to each detect head. This results in the C2f-Faster-SWCA module, which provides a better solution to mitigate the model accuracy degradation that may occur due to excessive lightweighting. The experimental results show that the number of parameters in the Yolov8-CFS model is decreased by 17.4% with respect to the baseline on the Visdrone2019 dataset; in addition, its average accuracy remains at 40.1%. In summary, the Yolov8-CFS model reduces the number of parameters and model complexity while ensuring the accuracy of the model, facilitating its application in mobile deployment scenarios.