Quan HuaFeng

Dr. Quan HuaFeng

orcid

Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

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

Representative Publications

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26 November 2018 in Applied Sciences
Verified
Journal Article
Open access
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QHQuan HuaFeng
Quan HuaFeng
LSLI Shaobo
LI Shaobo
JHJianjun Hu
Jianjun Hu
Creative product design is becoming critical to the success of many enterprises. However, the conventional product innovation process is hindered by two major challenges: the difficulty to capture users’ preferences and the lack of intuitive approaches to visually inspire the designer, which is especially true in fashion design and form design of many other types of products. In this paper, we propose to combine Kansei engineering and the deep learning for product innovation (KENPI) framework, which can transfer color, pattern, etc. of a style image in real time to a product’s shape automatically. To capture user preferences, we combine Kansei engineering with back-propagation neural networks to establish a mapping model between product properties and styles. To address the inspiration issue in product innovation, the convolutional neural network-based neural style transfer is adopted to reconstruct and merge color and pattern features of the style image, which are then migrated to the target product. The generated new product image can not only preserve the shape of the target product but also have the features of the style image. The Kansei analysis shows that the semantics of the new product have been enhanced on the basis of the target product, which means that the new product design can better meet the needs of users. Finally, implementation of this proposed method is demonstrated in detail through a case study of female coat design.

3 July 2019 in Symmetry
Verified
Journal Article
Open access
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QHQuan HuaFeng
Quan HuaFeng
LSLI Shaobo
LI Shaobo
HWHongjing Wei
Hongjing Wei
JHJianjun Hu
Jianjun Hu
With the improvement of human living standards, users’ requirements have changed from function to emotion. Helping users pick out the most suitable product based on their subjective requirements is of great importance for enterprises. This paper proposes a Kansei engineering-based grey relational analysis and techniques for order preference by similarity to ideal solution (KE-GAR-TOPSIS) method to make a subjective user personalized ranking of alternative products. The KE-GRA-TOPSIS method integrates five methods, including Kansei Engineering (KE), analytic hierarchy process (AHP), entropy, game theory, and grey relational analysis-TOPSIS (GRA-TOPSIS). First, an evaluation system is established by KE and AHP. Second, we define a matrix variate—Kansei decision matrix (KDM)—to describe the satisfaction of user requirements. Third, the AHP is used to obtain subjective weight. Next, the entropy method is employed to obtain objective weights by taking the KDM as input. Then the two types of weights are optimized using game theory to obtain the comprehensive weights. Finally, the GRA-TOPSIS method takes the comprehensive weights and the KMD as inputs to rank alternatives. A comparison of the KE-GRA-TOPSIS, KE-TOPSIS, KE-GRA, GRA-TOPSIS, and TOPSIS is conducted to illustrate the unique merits of the KE-GRA-TOPSIS method in Kansei evaluation. Finally, taking the electric drill as an example, we describe the process of the proposed method in detail, which achieves a symmetry between the objectivity of products and subjectivity of users.

9 March 2026 in npj Heritage Science
Verified
Journal Article
Open access
PDF file
YLYiting Li
Yiting Li
QHQuan HuaFeng
Quan HuaFeng
QLQin Li
Qin Li
JWJunjie Wang
Junjie Wang
Batik, as an important intangible cultural heritage, embodies profound cultural significance through intricate pattern systems. However, detecting these patterns in complex batik images poses significant challenges due to dense pattern distributions, scale variations, complex backgrounds, and degraded image quality. This paper proposes a robust batik pattern detection model based on improved YOLOv11 architecture that balances detection accuracy with computational efficiency. First, we construct a comprehensive Chinese batik dataset, addressing the critical data scarcity in this domain. Second, we develop an enhanced YOLOv11 model integrating Vision Outlooker (VOLO) attention mechanisms for capturing long-distance spatial dependencies and Fused-MBConv modules for efficient feature extraction. Third, we implement a prototype system that bridges visual detection with cultural knowledge interpretation through batik knowledge graphs. The proposed approach provides a practical and scalable solution for the digital preservation and interpretation of intangible cultural heritage.