Artificial Intelligence and Machine Learning
Research Group
- Algebraic Geometry
- Algebraic Topology and its Applications
- Analysis and Geometry
- Artificial Intelligence and Machine Learning
- Computational Mathematics
- Digital Economy
- General Relativity and Partial Differential Equations
- Mathematical Physics
- Number Theory and Representation Theory
- Quantum Fields and Strings
- Quantum Symmetry
- Statistics, Probability and Data Science
Introduction
Artificial intelligence represents a crucial research frontier and application avenue within modern information technology, bringing tremendous innovation opportunities and commercial values across diverse industries, and increasingly showcasing vitality and appeal. The main research directions of the Artificial Intelligence and Machine Learning Group are as follow:
(1) Employing machine learning methods to solve equations of mathematical physics derived from first principles.
(2) Utilizing theories of partial differential equations to understand and elucidate the processes and mechanisms of machine learning, and to enhance them.
(3) Integrating data-driven machine learning methods and numerical methods in solving partial differential equations to tackle a broader spectrum of mathematical problems.
(4) Researching and applying new mathematical methods to resolve newly emerged, interdisciplinary problems spanning natural science, engineering, biology, economics, finance, and social sciences.
(5) Leveraging machine learning methods to model and forecast complex systems, addressing challenges such as high dimensionality, uncertainty and nonlinearity for the prediction of the future development of the systems.
(6) Developing optimization theory and algorithms and implementing cutting-edge optimization solvers for large-scale nonconvex and non-smooth machine learning models.
(7) Studying the foundations of AI, including topics such as knowledge representation, logical inference, epistemic logic, formal verification, μ-calculus, game semantics, statistical inference, and game tree analysis.
(8) Conducting deep semantic analysis and understanding of various types of text, images, and audio and video data, and mining semantic associations between entities, by leveraging cutting-edge machine learning, natural language processing, large language modeling, and multimodal analysis technologies.
(1) Employing machine learning methods to solve equations of mathematical physics derived from first principles.
(2) Utilizing theories of partial differential equations to understand and elucidate the processes and mechanisms of machine learning, and to enhance them.
(3) Integrating data-driven machine learning methods and numerical methods in solving partial differential equations to tackle a broader spectrum of mathematical problems.
(4) Researching and applying new mathematical methods to resolve newly emerged, interdisciplinary problems spanning natural science, engineering, biology, economics, finance, and social sciences.
(5) Leveraging machine learning methods to model and forecast complex systems, addressing challenges such as high dimensionality, uncertainty and nonlinearity for the prediction of the future development of the systems.
(6) Developing optimization theory and algorithms and implementing cutting-edge optimization solvers for large-scale nonconvex and non-smooth machine learning models.
(7) Studying the foundations of AI, including topics such as knowledge representation, logical inference, epistemic logic, formal verification, μ-calculus, game semantics, statistical inference, and game tree analysis.
(8) Conducting deep semantic analysis and understanding of various types of text, images, and audio and video data, and mining semantic associations between entities, by leveraging cutting-edge machine learning, natural language processing, large language modeling, and multimodal analysis technologies.
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