I am generally interested in AI foundational models, Ethics, Safety and Governance of AI. My current research interests focus on the following directions:
Safety, Ethics, Governance of AI.
Human-AI Super Co-alignment.
Brain and mind inspired Cognitive AI Models.
Brain-inspired Cognitive and Neural Robotics.
AI for Sustainable Development.
AI for International Peace and Security.
The goal for my research is to propose and implement AI models and agents that can live in harmony with human and ecology.
Brain-inspired Cognitive Intelligence Engine (BrainCog) is a brain-inspired neural network based platform for realizing Brain-inspired Artificial Intelligence, and simulating the cognitive brains of different animal species at multiple scales. The ultimate goal and long term efforts of BrainCog is to provide a comprehensive theory and systems to decode the mechanisms and principles of human intelligence and its evolution, and develop artificial brains for brain-inspired conscious living machines in human-machine society.
BORN is an Artificial Intelligence Engine based on Brain-inspired Spiking Neural Networks. The ultimate vision of BORN is to achieve living Artificial General Intelligence, as a new type of evolutionary becoming, and as a moral member of the future symbiotic society. The near term goal of BORN is a self enabled learning AI powered by spiking neural networks that can coordinate various cognitive functions in a self organized way to solve complex problems. BORN is powered by BrainCog, the Brain-inspired Cognitive Intelligence Engine.
Linked Brain Data (LBD) is an effort for extracting, integrating, linking and analyzing Brain data and knowledge from multiple scale and multiple data sources and support comprehensive understandings of the brain. LBD is proud to present the association graph among various cognitive functions, brain diseases and their relationships to brain building blocks at multiple scales. This association graph provide inspirations for future Neuroscience and Brain-inspired Intelligence research.
Introduction to Brain-inspired Intelligence [2017-2021], University of Chinese Academy of Sciences
System and Computational Neuroscience [2018], University of Chinese Academy of Sciences
Introduction
A specific neuron¡¯s axonal connections to other neurons. This picture shows connections among different types of neurons by their synapses. Axonal branches and synapses are generated by an algorithm developed in the Neural Computation Group (Contributed by Yi Zeng, Weida Bi, Xuan Tang).
Introduction
A shuttle view of the mouse V1 neural network with neurons that are sensitive for orientation selection. The shading of the soma is positive relevant to the fire rate of the specific neuron (Contributed by Yi Zeng, Weida Bi, Xuan Tang, Qingqun Kong).
Introduction
A top view of the mouse V1 neural network with neurons which are sensitive for orientation selection. The shading of the soma is positive relevant to the fire rate of the specific neuron. The yellow somas are firing, while the purple ones are not (Contributed by Yi Zeng, Weida Bi, Xuan Tang, Qingqun Kong).
Introduction
Cortical column of a cat¡¯s V1 orientation selection neurons. Neurons with the same color are sensitive to the same orientations (Contributed by Yi Zeng, Weida Bi, Xuan Tang, Qingqun Kong).
Introduction
A cortical column circuit of a cat¡¯s V1 orientation selection neurons. Neurons with the same color are sensitive to the same orientations. Pinwheel structures which show the topological characteristics of the orientation selection cortical columns can be observed (Contributed by Yi Zeng, Weida Bi, Xuan Tang, Qingqun Kong).
Introduction
The morphology of the mouse hippocampus. It is composed of several sub regions which are DG, CA1, CA2, CA3. Different types of neurons are the basic components of the hippocampus network (Contributed by Yi Zeng, Weida Bi, Xuan Tang, Qingqun Kong).
Introduction
The activities of the mouse hippocampus network. Different colors represent different voltage values on the neurons (Contributed by Yi Zeng, Weida Bi, Xuan Tang, Tielin Zhang).
Introduction
CA1 in the CAS Brain knowledge base. This figure shows the structure and relevant knowledge of CA1 in the context of the whole brain structure of the mouse brain. The knowledge on CA1 contains the types and relevant morphology of neurons in CA1, the sub regions of CA1, the number of neurons in CA1, directions of signal transmissions from and to CA1, the cognitive functions and related diseases of CA1. (Contributed by Yi Zeng, Weida Bi, Dongsheng Wang, Xuan Tang).