Xiaofei Zhu

Prof. Dr. Xiaofei Zhu


Research Focus & Metrics

Academic Career Length

20Years (2007-Present)

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

Representative Publications

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1 January 2023 in AI Open
Verified
Journal Article
Open access
QAQingyao Ai
Qingyao Ai
TBTing Bai
Ting Bai
ZCZhao Cao
Zhao Cao
YCYi Chang
Yi Chang
JCJiawei Chen
Jiawei Chen
XZXiaofei Zhu
Xiaofei Zhu

1 December 2021 in Expert Systems with Applications
Verified
Journal Article
Closed access
XZXiaofei Zhu
Xiaofei Zhu
LZLing Zhu
Ling Zhu
JGJiafeng Guo
Jiafeng Guo
SLShangsong Liang
Shangsong Liang
SDStefan Dietze
Stefan Dietze

7 June 2022 in Knowledge-Based Systems
Verified
Journal Article
Closed access
GTGu Tang
Gu Tang
XZXiaofei Zhu
Xiaofei Zhu
JGJiafeng Guo
Jiafeng Guo
SDStefan Dietze
Stefan Dietze

30 July 2022 in Journal of Intelligent Information Systems
Verified
Journal Article
Closed access
PDF file
LZLing Zhu
Ling Zhu
XZXiaofei Zhu
Xiaofei Zhu
JGJiafeng Guo
Jiafeng Guo
SDStefan Dietze
Stefan Dietze

29 June 2024 in Neural Networks
Verified
Journal Article
Closed access
XZXiaofei Zhu
Xiaofei Zhu
LLLiang Li
Liang Li
WLWeidong Liu
Weidong Liu
XWXin DI WU
Xin DI WU

17 May 2018 in Symmetry
Verified
Journal Article
Open access
PDF file
JLJianwu Long
Jianwu Long
XFXin Feng
Xin Feng
XZXiaofei Zhu
Xiaofei Zhu
JZJianxun Zhang
Jianxun Zhang
GGGuanglei Gou
Guanglei Gou
Image segmentation is a challenging task in the field of image processing and computer vision. In order to obtain an accurate segmentation performance, user interaction is always used in practical image-segmentation applications. However, a good segmentation method should not rely on much prior information. In this paper, an efficient superpixel-guided interactive image-segmentation algorithm based on graph theory is proposed. In this algorithm, we first perform the initial segmentation by using the MeanShift algorithm, then a graph is built by taking the pre-segmented regions (superpixels) as nodes, and the maximum flow–minimum cut algorithm is applied to get the superpixel-level segmentation solution. In this process, each superpixel is represented by a color histogram, and the Bhattacharyya coefficient is chosen to calculate the similarity between any two adjacent superpixels. Considering the over-segmentation problem of the MeanShift algorithm, a narrow band is constructed along the contour of objects using a morphology operator. In order to further segment the pixels around edges accurately, a graph is created again for those pixels in the narrow band and, following the maximum flow–minimum cut algorithm, the final pixel-level segmentation is completed. Extensive experimental results show that the presented algorithm obtains much more accurate segmentation results with less user interaction and less running time than the widely used GraphCut algorithm, Lazy Snapping algorithm, GrabCut algorithm and a region merging algorithm based on maximum similarity (MSRM).