| S# |
Lecture |
Course |
Institute |
Instructor |
Discipline |
| 5776 |
Quantum opertions form 2: Kraus operator picture
|
Quantum Information Science II, Part 1
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5777 |
The dephasing channel as depicted on the Bloch sphere
|
Quantum Information Science II, Part 1
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5778 |
|
Quantum Information Science II, Part 1
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5779 |
Quantum states and density matrices
|
Quantum Information Science II, Part 1
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5780 |
Trace-preserving completely positive maps == Kraus rep: complete positivity
|
Quantum Information Science II, Part 1
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5781 |
|
Quantum Information Science II, Part 1
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5782 |
Trace-preserving completely positive maps == Kraus rep: trace preservation
|
Quantum Information Science II, Part 1
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5783 |
The five-qubit code – error correction
|
Quantum Information Science II, Part 1
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5784 |
Very important fact about QEC: difference from analog computation
|
Quantum Information Science II, Part 1
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5785 |
The five-qubit code – normalizers
|
Quantum Information Science II, Part 1
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5786 |
What is a noisy quantum state? Introduction to density matrices
|
Quantum Information Science II, Part 1
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5787 |
A BQP-complete problem: quantum circuit evaluation
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5788 |
Amplifying approximate counting accuracy
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5789 |
Approximate Counting is contained in Post-BPP
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5790 |
Beyond Clifford gates – the Gottesman-Chuang hierarchy
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5791 |
Beyond NP: approximate and exact counting
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5792 |
Computational capacity – computation with noisy gates
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5793 |
Beyond NP: starting with counting solutions
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5794 |
Constructing the magic state for the T gate
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5795 |
Classical simulation algorithms for quantum computational supremacy experiments
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5796 |
Crude estimate of the threshold for reliable quantum computation
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5797 |
Cluster quantum computation – controlled-not gate example
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5798 |
Efficient quantum computing – codes and fault tolerance
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5799 |
Cluster quantum computation – process description
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5800 |
Exact Counting is contained in PostBQP
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
