CS 294: Quantum Learning Theory
- Lecture 1 (Aug 28): Course overview and discriminating two pure states (scribe notes)
- Lecture 2 (Sep 4): Review of quantum measurements and discriminating mixed states (scribe notes)
- Lecture 3 (Sep 9): Average case discrimination of two mixed states (scribe notes)
- Lecture 4 (Sep 11): Worst case discrimination of two mixed states (scribe notes)
- Lecture 6 (Sep 23): The Pretty Good Measurement (scribe notes)
- Lecture 9 (Oct 2): Intro to quantum tomography (scribe notes)
- Lecture 10 (Oct 7): The "textbook" tomography algorithm (scribe notes)
- Lecture 11 (Oct 9): The symmetric subspace, part 1 (scribe notes)
- Lecture 12 (Oct 14): The symmetric subspace, part 2, and optimal pure state tomography (scribe notes)
- Lecture 13 (Oct 16): Optimal unentangled tomography (scribe notes)
- Lecture 14 (Oct 21): Efficient unentangled tomography and learning with high probability
- Lecture 15 (Oct 23): Introduction to shadow tomography (scribe notes)
- Lecture 16 (Oct 28): Introduction to shadow tomography, part 2 (scribe notes)
- Lecture 17 (Oct 30): Introduction to shadow tomography, part 3, and quantum state certification
- Lecture 18 (Nov 4): Quantum state certification, part 2
- Lecture 19 (Nov 6): Introduction to representation theory (scribe notes)
- Lecture 20 (Nov 13): The regular representation and irreps of the symmetric group (scribe notes)
- Lecture 21 (Nov 18): Irreps of the unitary group and Schur-Weyl duality (scribe notes)
- Lecture 22 (Nov 20): Spectrum estimation via representation theory (scribe notes)
- Lecture 23 (Nov 25): Full state tomography via representation theory
- Lecture 24 (Dec 2): Shadow tomography, part 1 (scribe notes)
- Lecture 24 (Dec 4): Shadow tomography, part 2 (scribe notes)
- Quantum state discrimination
Two state distinguishing
Pretty good measurement
- Quantum state learning and testing
Purity testing
Spectrum estimation
Quantum tomography
Quantum state certification
- Mathematics of quantum state tomography
Haar random unitaries and vectors
The symmetric subspace
Representation theory of the symmetric and general linear groups
- Shadow tomography
Classical shadows
Shadow tomography
- Learning and testing structured states
Testing product states
Pseudorandom states
Learning local Hamiltonians
Learning short-depth quantum states
CS 191 or equivalent is required.
Grading: 40% homeworks, 10% scribe, 50% final project