Ce Zhu
has been with University of Electronic Science
and Technology of China (UESTC), Chengdu, China,
as a Professor since 2012, and serves as the
Dean of Glasgow College, a joint school between
the University of Glasgow, UK and UESTC, China.
His research interests include video coding and
communications, video analysis and processing,
3D video, visual perception and applications. He
has served on the editorial boards of a dozen
journals, including as an Associate Editor of
IEEE TRANSACTIONS ON IMAGE PROCESSING, IEEE
TRANSACTIONS ON CIRCUITS AND SYSTEMS FOR VIDEO
TECHNOLOGY, IEEE TRANSACTIONS ON BROADCASTING,
IEEE SIGNAL PROCESSING LETTERS, an Editor of
IEEE COMMUNICATIONS SURVEYS AND TUTORIALS, and
an Area Editor of SIGNAL PROCESSING: IMAGE
COMMUNICATION. He has also served as a Guest
Editor of multiple special issues in
international journals, including as a Guest
Editor in the IEEE JOURNAL OF SELECTED TOPICS IN
SIGNAL PROCESSING.
Prof. Zhu is an IEEE/Optica/IET/AAIA Fellow. He
serves as the Chair of IEEE ICME Steering
Committee (2024-2025). He was an IEEE
Distinguished Lecturer of Circuits and Systems
Society (2019-2020), and also an APSIPA
Distinguished Lecturer (2021-2022). He is a
co-recipient of multiple paper awards at
international conferences, including the most
recent Best Demo Award in IEEE MMSP 2022, and
the Best Paper Runner Up Award in IEEE ICME 2020.
Yen-Wei
Chen received the B.E. degree in 1985 from Kobe
Univ., Kobe, Japan, the M.E. degree in 1987, and
the D.E. degree in 1990, both from Osaka Univ.,
Osaka, Japan. He was a research fellow with the
Institute for Laser Technology, Osaka, from 1991
to 1994. From Oct. 1994 to Mar. 2004, he was an
associate Professor and a professor with the
Department of Electrical and Electronic
Engineering, Univ. of the Ryukyus, Okinawa,
Japan. He is currently a professor with the
college of Information Science and Engineering,
Ritsumeikan University, Japan. He is the founder
and the first director of Center of Advanced ICT
for Medicine and Healthcare, Ritsumeikan
University.
His research interests include medical image
analysis, computer vision and computational
intelligence. He has published more than 300
research papers in a number of leading journals
and leading conferences including IEEE Trans.
Image Processing, IEEE Trans. Medical Imaging,
CVPR, ICCV, MICCAI. He has received many
distinguished awards including ICPR2012 Best
Scientific Paper Award, 2014 JAMIT Best Paper
Award. He is/was a leader of numerous national
and industrial research projects. Professor
Yen-Wei Chen is ranked in the World’s top 2% of
scientists for both the single recent year
(2023) and career-long (updated until to
end-of-2022), according to Stanford/Elsevier's
rankings.
Jun
Cheng received the B. E. degree in electronic
engineering and information science from the
University of Science and Technology of China,
and the Ph. D. degree from Nanyang Technological
University, Singapore. He is now a principal
scientist in the Institute for Infocomm
Research, A*STAR, working on AI for medical
imaging, robust vision & perception, and machine
learning. He has authored/co-authored over 200
publications at prestigious
journals/conferences, such as TMI, TIP, TBME,
IOVS, JAMIA, MICCAI, CVPR and invented more than
20 patents. He has received the IES Prestigious
Engineering Achievement Award 2013. He serves as
reviewers for many journal/conferences and area
chairs for MICCAI, AAAI, ICLR, NeurIPS. He is
currently associate editor for IEEE IEEE TMI and
Senior Area Editor for TIP.
Speech Title: Improving OCTA Imaging through
Cross-Domain Adaptation: A Noise-Guided
Framework Using Intralipid-Enhanced and
High-overlapping Rat Data
Abstract: AI based Deep learning has been
introduced into optical coherence tomography
angiography (OCTA) imaging, which is a
non-invasive technique for visualizing vascular
structures. Intralipid injection and
high-overlapping scanning have shown promise in
improving blood cell scattering for better OCTA
imaging. However, administering intralipid to
human subjects for imaging purposes may raise
ethical concerns while the high number of
overlapping leads to long scanning duration and
therefore large motion artefacts. To address
this challenge, we acquire intralipid-enhanced
high overlapping OCTA in rats and introduce
cross-domain learning to address the domain
shifts. Specifically, we collect data from eyes
of anesthetized rats to obtain motion-free data
and introduce a noise-guided self-training
framework to bridge the domain gaps between rats
and primates. Additionally, an en face
enhancement loss is incorporated to further
refine en face vectors during adaptation.
Compared with other classical and fully
supervised OCTA imaging algorithms, our method
improves B-scan denoising performance
significantly.
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