PhD Advisors and Their Research Interests of Beijing International Center for Mathematical Research |
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No. |
Research Fields |
PhD Advisors of BICMR |
Research Interests |
Remarks |
070101 Fundamental Mathematics |
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1 |
Algebra |
Xiang Fu |
1. The distribution of roots in the root systems of infinite reflection groups and Coxeter groups, and related geometric questions. |
Co-advise with Ruochuan Liu |
2. The rigidity question of Coxeter groups (the classification of Coxeter groups which can be uniquely determined by the associated Dynkin diagrams). |
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3. Topological questions on the Cayley graphs of infinite Coxeter groups. |
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4. The classification of Infinite Coxeter groups. |
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5. The application of Coxeter group theory in physics and beyond. |
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2 |
1. Lie group and its representation. |
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2. Langlands program. |
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3 |
Jiping Zhang |
1. Finite Group and its applications. |
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2. Modular representation theory and fusion system. |
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4 |
Number Theory |
1. Local-global compatibility in p-adic Langlands program. |
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2. Higher L-invariants and their relationship with p-adic L functions. |
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5 |
1. Mathematical problems and methods related to Langlands program. |
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2. Representation theory of p-adic reductive group and real reductive group. |
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3. Trace Formula and its applications. |
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6 |
1. p-adic Hodge theory. |
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2. p-adic automorphic forms. |
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3. p-adic Langlands program. |
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7 |
1. p-adic Hodge theory. |
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2. p-adic automorphic forms. |
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3. geometry of Shimura varieties. |
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8 |
1. Arakelov geometry. |
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2. Diophantine geometry and Algebraic dynamics. |
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3. Shimura varieties and L-functions. |
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9 |
Algebraic Geometry |
Rationally Connected Varieties. |
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10 |
Arithmetic Dynamics and Related Topics in Algebraic Geometry |
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11 |
1. Geometric and Arithmetic theory of Rationally Connected Varieties. |
Temporarily not accepting students |
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2. Minimal Model Program and Classification of varieties. |
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3. Stability. |
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4. Topology and Geometry of Singularities. |
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12 |
1. Moduli spaces and algebraic cycles. |
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2. Topology and algebraic geometry of hyper-Kähler varieties. |
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3. K3 categories. |
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13 |
Differential Geometry |
His current research is focused on Differential Geometry and Mathematical Physics, including: |
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1. Gromov-Witten invariants. |
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2. Isoparametric submanifold. |
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3. Global minimal submanifold. |
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14 |
Jie Qing |
1. Conformal Geometry and Differential Equation. |
Temporarily not accepting students |
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2. Differential Geometry in General Relativity. |
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15 |
His current research is focused on Geometric Analysis and Symplectic Geometry, including: |
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1. Geometric Equation and its analysis. |
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2. Ricci Flow and its applications. |
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3. Complex geometry. |
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4. Symplectic geometry and symplectic topological invariants. |
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16 |
Mathematical Physics |
K-theory, index theory, operator algebras, and differential geometry in: |
Co-advise with Xiaobo Liu |
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1.Topological phases of matter. |
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2. T-dualities in string condensed matter and string theory. |
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3. Applications of coarse geometry and index theory. |
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17 |
1. Sheaf-theoretic method in symplectic geometry, Fukaya categories and Mirror Symmetry. |
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2. Topological recursion and Gromov-Witten invariants. |
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18 |
His current research is focused on Differential Geometry and Mathematical Physics, including: |
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1. Gromov-Witten invariants. |
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2. Isoparametric submanifold. |
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3. Global minimal submanifold. |
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19 |
Emanuel Scheidegger |
1. Mirror symmetry of Calabi-Yau manifolds, Gromov-Witten invariants. |
Co-advise with Xiaobo Liu |
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2. Topological string theory and automorphic forms, BPS invariants. |
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3. D-brane categories of Calabi-Yau manifolds. |
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20 |
Xin Sun |
1. Random geometry. |
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2. Statistical physics. |
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3. Quantum field theory. |
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21 |
His current research is focused on Geometric Analysis and Symplectic Geometry, including: |
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1. Geometric Equation and its analysis. |
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2. Ricci Flow and its applications. |
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3. Complex geometry. |
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4. Symplectic geometry and symplectic topological invariants. |
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22 |
Xiaomeng Xu |
1. Irregular singularities and representation theory. |
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2. Poisson geometry and quantization. |
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23 |
Topology |
1. Topology of 3-manifolds. |
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2. Hyperbolic geometry. |
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24 |
Yi Xie |
1. Knots and links in 3 dimensional manifolds. |
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2. Gauge theory. |
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25 |
1. Non-positively curved spaces and groups. |
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2. Random walk on groups. |
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26 |
PDE/Analysis |
1. Dynamical systems. |
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2. Mathematical Physics and Spectral Theory. |
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27 |
Yan Guo |
1. Partial Differential Equations in kinetic theory. |
Temporarily not accepting students |
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2. Stability in fluid. |
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28 |
1. Dynamical systems. |
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2. Metric geometry. |
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3. Complex analysis. |
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29 |
1. Low regularity solution for Chern-Simons-Schrodinger equation. |
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2. Long time dynamics and global center stable manifold. |
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30 |
1. The mean field limit for large systems of interacting particles. |
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2. Analysis of kinetic equations. |
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31 |
1. Free boundary problems in partial differential equations. |
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2. Equations of fluid dynamics. |
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32 |
Weijun Xu |
1. Stochastic Analysis. |
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2. Stochastic PDEs. |
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33 |
1. Nonlinear wave equations. |
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2. Einstein's equation. |
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34 |
Combinatorics |
1. Coxeter groups and Bruhat orders. |
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2. Schubert varieties and related varieties. |
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3. Polytopes and hyperplane arrangements. |
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4. Enumerative combinatorics. |
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35 |
Mathematical Logic |
1. Model theory. |
Co-advise with Wenyuan Yang |
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2. Topological dynamics. |
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070102 Computational Mathematics |
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36 |
Computational Mathematics and Applied Mathematics |
1. Deep learning from applied mathematics perspective. |
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2. Inverse Problem in image processing. |
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3. Biomedical imaging analysis. |
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37 |
1. Bayesian inverse problems and uncertainty quantification. |
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2. Scientific machine learning. |
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3. Multiphysics simulation. |
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38 |
1. Algorithms and theories for non-convex, nonlinear and non-smooth optimization. |
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2. Algorithms and theories for optimization on manifold. |
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3. Machine learning: algorithms and theories for deep learning and reinforcement learning. |
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39 |
1. Numerical algorithms and applications of rare events and its saddle-point problems. |
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2. Computational materials science. |
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3. Computational systems biology. |
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070103/071400 Probability and Statistics |
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40 |
Probability |
1. Stochastic theory of nonequilibrium thermodynamics and statistical mechanics; |
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2. Nonequilibrium landscape theory and rate formulas for single-molecule and single-cell biology; |
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3. Stochastic modeling in systems biology and biophysical chemistry; |
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4. Statistical analysis of single-cell big data. |
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41 |
Discrete stochastic models with significance in statistical physics, including: |
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1. Fractal Properties of Random walk and Brownian motion. |
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2. Percolation. |
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3. Random interlacements and related models. |
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42 |
1. Stochastic differential equations. |
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2. Large deviation estimates. |
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43 |
Xin Sun |
1. Random geometry. |
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2. Statistical physics. |
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3. Quantum field theory. |
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44 |
Weijun Xu |
1. Stochastic Analysis. |
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2. Stochastic PDEs. |
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45 |
Statistics |
1. Clinical experiment design and data statistics. |
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2. Causal inference. |
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3. Analysis and modeling of big data. |
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4. Analysis of missing data. |
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5. Evaluation of artificial intelligence-based CAD systems. |
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6. Machine learning and artificial intelligence. |
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46 |
1. Biostatistics and Bioinformatics. |
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2. Statistical Genetics. |
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3. High-dimensional omics data analysis and inference. |