| S# |
Lecture |
Course |
Institute |
Instructor |
Discipline |
| 5801 |
Cluster quantum computation – single qubit gate example I
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5802 |
Examples of fault-tolerant and non-fault-tolerant procedures
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5803 |
Cluster quantum computation – single qubit gate example II
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5804 |
Models of computing – random and quantum
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5805 |
Fault-tolerant construction of a general element in C3
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5806 |
Cluster states and graph states – definition
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5807 |
Models of computing – Turing machines I
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5808 |
Fault-tolerant measurements – scheme with error
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5809 |
Cluster states and graph states – examples I
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5810 |
Models of computing – Turing machines II
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5811 |
Fault-tolerant non-clifford 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
|
| 5812 |
Cluster states and graph states – examples I
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5813 |
Models of quantum computation – perspective
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5814 |
Fault-tolerant quantum circuit construction 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
|
| 5815 |
Complete problems and the generality of complexity class definitions – reductions
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5816 |
Post-BPP is contained in Approximate 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
|
| 5817 |
Fault-tolerant quantum computation – ingredients I
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5818 |
Complexity and hardness – lecture introduction
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5819 |
The role of classical error correction in FTQC – measurement
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5820 |
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5821 |
Fault-tolerant quantum computation – ingredients II
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5822 |
Complexity classes – BPP and BQP
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5823 |
The threshold theorem – proof sketch – level 1
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5824 |
PostBQP is equal to Exact Counting in complexity
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
| 5825 |
Fault-tolerant quantum computation – introduction
|
Quantum Information Science II, Part 2 - Efficient Quantum Computing - fault tolerance and complexity
|
MIT
|
Prof. Isaac Chuang, Dr. Aram Harrow
|
Basic and Health Sciences
|
