Education
Purdue University, West Lafayette, Indiana, USA. 2013/08 - 2018/05
- Ph.D. in Electrical and Computer Engineering. GPA 3.98/4.
- Advisors:Zhongming Liu, Eugenio Culurciello, Charles A. Bouman, Gregory Francis and Stanley H. Chan
- Thesis: Neural Encoding and Decoding with Deep Learning for Natural Vision.
Zhejiang University, Hangzhou, China.2009/08 - 2013/06
- B.S. in Information Science and Electronic Engineering. GPA 3.90/4.
- Advisor: Dr. Haoji Hu
- Thesis: Blind Watermarking Scheme of 3D Triangular Meshes Resilient to Cropping Attacks.
Work Experience
Senior deep learning research and development engineer. Nvidia Corporation.2018/08 - present
- Apply state-of-the-art deep learning research and advanced computing hardware to create the next generation of autonomous vehicles.
- Develop perception models and algorithms for detecting objects, predicting driving paths, planning, etc.
- Build and maintain the AI infrastructure for research and development engineering.
- Active learning for sampling diverse and effective data to improve models over time.
- Reseaerch on world model and learn driving policy from human-drive data using reinforcement learning for L5 autonomy.
- Research on self-supervised learning to reduce the labeling cost and improve the robustness and generalization of DNNs.
Research assistant. Purdue University. 2013/08 - 2018/05
- Led a group that aimed to develop brain-inspired deep-learning models not only for artificial intelligence but also for studying the brain.
- Mapped human brain networks using functional MRI and electrophysiology.
Ph.D. Work Summary
Neural encoding and decoding with deep learning for natural vision
- Developed new encoding models to predict brain activities given visual stimuli by using deep neural networks (e.g. CNN, RNN, VAE).
- Developed a new decoding scheme that directly reconstructed and categorized the visual stimuli for mind-reading.
- Proposed an efficient learning method for transferring deep-learning-based encoding models across human brains, and developed artificial brains that can simulate brain activities by using deep neural networks.
- Provided systematic evaluation of the similarity between the deep neural networks and the human brain.
Brain-inspired artificial neural networks
- Developed a bidirectional and recurrent neural network, as inspired by a neuroscience theory called predictive coding. The network supports recurrent computation via feedforward, feedback, and recurrent connections.
- Demonstrated that the brain-inspired network enabled a shallow network to perform similarly or better than very deep feedforward-only neural network in object recognition.
Multimodal neuroimaging on mapping functional networks in the brain
- Developed an algorithm to separate oscillatory and fractal components of neural signals and it has been an increasingly used tool for neural signal processing.
- Mapped the organization of functional networks in the brain (using ICA, k-means, Restricted Boltzmann Machine, sparse coding).