Our mission is to realize indistinguishable virtual reality contents from the perspectives of fundamental research core techniques in light field acquisition, storage, processing, rendering and display. We explore light field VR technologies ranging from micro scales to macro scales in order to take the lead in the capture, processing and tele-presence of 360-degree 3D dynamic real scenes up to the human-eye resolution.

Our vision is to offer a cross-scale, cross-disciplinary, universal technical platform to facilitate and upgrade other research and application areas, e.g. biomedicine, cultural heritage, digital city, new media, space technologies. VRVC will serve as a pillar of ShanghaiTech's path to a top-notch research institute in the world and become a world-class research center in the correlated areas. We constantly devote ourselves to improving and developing the living conditions, economic development and scientific research in China.

Recent
Publications

Xuan Cao, Zhang Chen, Anpei Chen, Xin Chen, Shiying Li and Jingyi Yu
IEEE Conference on Computer Vision and Pattern Recognition (CVPR), Salt Lake City, Utah, USA on June 19-21, 2018. [CCF A]


Zhong Li, Minye Wu, Wangyiteng Zhou and Jingyi Yu
IEEE Conference on Computer Vision and Pattern Recognition (CVPR), Salt Lake City, Utah, USA on June 19-21, 2018. [CCF A]


Yang Yang, Shi Jin, Ruiyang Liu, Sing Bing Kang and Jingyi Yu
IEEE Conference on Computer Vision and Pattern Recognition (CVPR), Salt Lake City, Utah, USA on June 19-21, 2018. [CCF A]


Yanyu Xu, Yanbing Dong, Junru Wu, Zhengzhong Sun, Zhiru Shi, Jingyi Yu and Shenghua Gao
IEEE Conference on Computer Vision and Pattern Recognition (CVPR), Salt Lake City, Utah, USA on June 19-21, 2018. [CCF A]


Kang Zhu, Yujia Xue, Qiang Fu, Sing Bing Kang, Xilin Chen and Jingyi Yu
IEEE Transactions on Pattern Analysis and Machine Intelligence (TPAMI), 2018.4.16 [CCF A]


Anpei Chen, Minye Wu, Yingliang Zhang, Nianyi Li, Jie Lu, Shenghua Gao and Jingyi Yu
ACM Symposium on Interactive 3D Graphics (i3D), Montreal, Quebec, Canada on May 15-18, 2018. [CCF B]


Research
Highlights

Computational Cameras and Projectors

Camera models are fundamental to computer vision and graphics. The classical pinhole camera model has long served as the workhorse of 3D imaging applications. Our research aims to develop new imaging systems and algorithms beyond pinhole optics to more effectively acquire, represent, analyze, and utilize the 3D imagery data.

Light Field Imaging for Vision and Graphics

Light fields are image-based representations of scenes. While the original goal of acquiring a light field is to conduct image-based modeling and rendering, our focus has been to apply light field imaging in various applications in computer vision and robotics.

Recovering “Invisible” Objects

Faithfully acquiring invisible or transparent objects such as 3D fluid wavefronts or gas density can greatly benefit fluid mechanics, oceanography, and computer animation. Our focus is to develop non-intrusive solutions by coupling computational cameras with new computer vision algorithms.

Biomedical Imaging and Bioinformatics

Our computational camera work also finds it uses in biomedical imaging and bioinformatics. In the field of bioinformatics, our focus is to apply visual analytics techniques to systematically tackle gene functions and complex regulatory processes.

Privacy-Preserving Surveillance

Video surveillance in public spaces has increased dramatically in recent history. So has concern about the potential for abuse and the general loss of privacy. We explore new solutions on the acquisition front: we aim to design computational cameras that will produce features that are recognizable at the category level but not at the object level.