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Theoretical Physics Schools (ASC) — 253 episodes · page 1 of 3

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Title
1

Topological Symmetries from Defects and Applications, part 3

2

Generalized symmetries in high energy physics and string theory, part 3

3

Topological Symmetries from Defects and Applications, part 2

4

Topological Quantum Field Theories, part 3

5

Generalized symmetries in high energy physics and string theory, part 2

6

An introduction to the higher structure of symmetry categories, part 3

7

An introduction to the higher structure of symmetry categories, part 2

8

Symmetry in Quantum Lattice Systems, part 3

9

An introduction to the higher structure of symmetry categories, part 1

10

Topological Symmetries from Defects and Applications, part 1

11

Topological Quantum Field Theories, part 2

12

Symmetry in Quantum Lattice Systems, part 2

13

Generalized symmetries in high energy physics and string theory, part 1

14

Symmetry in Quantum Lattice Systems, part 1

15

Detecting, quantifying and interpreting entanglement: (2) the multipartite case

16

Detecting, quantifying and interpreting entanglement: (1) the bipartite case

17

Topological quantum computing with Majorana fermions

18

Scaling photonic systems for quantum information processing

19

Quantum networks: theoretical foundations, practical implementations

20

Experimental Quantum Simulation with Neutral Atoms

21

A quantum computer based on trapped ions: status and prospects

22

Quantum Computing with Atomic Qubit Arrays

23

Quantum error correction, part 2

24

Quantum algorithms, part 2

25

Applications of quantum computing for quantum chemistry

26

Quantum Error Correction with Superconducting Circuits

27

Quantum error correction, part 1

28

Quantum algorithms, part 1

29

Engineering flat-bands in moiré materials, part 2

30

Theory of SU(N) Systems, part 2

31

Beyond (typical) FHM with ultracold Yb atoms in optical lattices

32

1/4 is the new 1/2: Topology and Strong Interactions

33

Introduction to DMRG and Tensor networks, part 2

34

Quantum Monte Carlo methods for fermion Hamiltonians with sign problem, and applications in the Hubbard model, part 2

35

Theory of SU(N) Systems, part 1

36

Quantum many-body physics with cold atoms and molecules, part 2

37

Quantum Monte Carlo methods for fermion Hamiltonians with sign problem, and applications in the Hubbard model, part 1

38

Quantum many-body physics with cold atoms and molecules, part 1

39

Introduction to DMRG and Tensor networks, part 1

40

Solving the Mott Problem

41

Beyond DMFT: weak and strong coupling pseudogaps and fluctuation diagnostics

42

Quantum simulation with bosonic atoms in optical lattices under the microscope

43

Engineering flat-bands in moiré materials, part 1

44

Quantum gas microscopy of the Fermi-Hubbard model: probing strongly correlated states

45

The dynamical mean-field description of strong correlations

46

An introduction to the Swampland, part 1 (2nd half)

47

Finiteness, Complexity, and the Swampland, part 2

48

Emergent Strings, the Weak Gravity Conjecture and their imprint in geometry, part 2

49

An introduction to the species scale in quantum gravity and string theory

50

S-matrix implications for fundamental physics and cosmology

51

Emergent Strings, the Weak Gravity Conjecture and their imprint in geometry, part 1

52

Finiteness, Complexity, and the Swampland, part 1

53

Distance Conjecture and the Species Scale

54

Swampland Implications for Particle Physics, part 2

55

Swampland and Cosmological Observations

56

The string theory landscape, part 2

57

An introduction to the Swampland, part 2

58

An introduction to the Swampland, part 1 (1st half)

59

The string theory landscape, part 1

60

Swampland Implications for Particle Physics, part 1

61

NetKetl: hands-on tutorial on neural network quantum states

62

Tutorial on boosting event generation & unfolding with generative networks, part 2

63

Neural network quantum states: from ground states to dynamics, part 2

64

Tutorial on boosting event generation & unfolding with generative networks, part 1

65

Neural network quantum states: from ground states to dynamics, part 1

66

Beyond ground states: Assisting sampling of physical states with generative models, part 2

67

Reliable AI: Dream or Reality?

68

Beyond ground states: Assisting sampling of physical states with generative models, part 1

69

Artificial Intelligence for Precision Cosmology

70

Machine learning for string theory

71

Tutorial on quantum state reconstruction of Rydberg atom arrays

72

Mathematical Foundations of Deep Learning

73

Autoregressive models and quantum state reconstruction

74

Generative Models, Manifolds and Symmetries: Applications

75

Understanding your network - towards interpretability in machine learning applications in many-body physics

76

Generative models and many-body physics

77

Simulation-based inference for physics and beyond

78

Generative Models, Manifolds and Symmetries: Tools

79

Spatial population genetics, Lecture 3

80

Statistical mechanics approaches for studying microbial growth, Lecture 3

81

Information theory and optimality in biological networks, Lecture 3

82

Fluid flows shaping morphology

83

Motility-induced phase separation and pattern formation, Lecture 3

84

Spatial population genetics, Lecture 2

85

Information theory and optimality in biological networks, Lecture 2

86

Motility-induced phase separation and pattern formation, Lecture 2

87

Statistical mechanics approaches for studying microbial growth, Lecture 2

88

Information theory and optimality in biological networks, Lecture 1

89

Cell migration on microstructured surfaces: From single cell to collective behavior

90

1D Active Matter, Guided Mechanochemical Pattern Formation, Lecture 3

91

1D Active Matter, Lecture 2

92

Motility-induced phase separation and pattern formation, Lecture 1

93

Protein self-organization in cell division

94

1D Active Matter, Lecture 1

95

Spatial population genetics, Lecture 1

96

Statistical mechanics approaches for studying microbial growth, Lecture 1

97

Black hole information and spacetime behind the horizon, Lecture 3

98

Holography in General Spacetimes: Quantum Null Energy Condition and Perspectives on Firewalls

99

Geometry under microscope, Lecture 2

100

Quantum Completeness versus Classical Incompleteness of Black-Holes