Lectures content overview
Completion requirements
| 16.2. | Practicals: Unitary space, ON basis, dual space, Dirac notation, adjoint operator |
| 18.2. | Course overview; Quantum behavior: Beamsplitters and Inteferometers |
| 23.2. | Postulates of state, dynamics and measurement |
| 25.2. | Postulate of measurement (projective measurement and an observable). Composite systems as tensor products. Entangled states. |
| 2.3. | Practicals |
| 4.3. | Tensor products. Deusch algorithm. |
| 9.3. | Practicals |
| 11.3. | Deusch-Jozsa algorithm. |
| 16.3. |
D-J algorithm discussion (Bernstein-Vazirani problem and probabilistic spped-up); reversible realization of Boolean functions; one- and two- controlled operators from CNOT (AXBXC-theorem) |
| 23.3. | Shor's algorithm overview and its circuit. |
| 25.3. | Fourier basis as characters over a finite Abelian group. |
| 30.3. | Practicals |
| 1.4. | Analysis of Shor's algorithm |
| 8.4. | Quantum circuit for DFT |
| 13.4. | Geometry of qubits |
| 15.4. | Geometry of unitary operators |
| 20.4. | Practicals |
| 22.4. | Quaternion conjugation as rotation |
| 27.4. | Extended Euler formula |
| 29.4. | AXBXC. BB84 |
| 4..5. | Mixed states |
| 6..5. | Partial trace; purification |
| 11..5. | Practicals |
| 13..5. | ------(Rector day) |
| 18..5. |
von Neumann entropy (Holevo bound) uncertainty principle of Maassen-Uffink Schmidt decomposition maximally entangled states and their measurement (TBC) |
Last modified: Monday, 18 May 2026, 7:16 PM