Running a quantum computer: Theory and Experiment
Dozent: Dr. Philipp Hauke, JProf. Dr. Fred Jendrzejewski
Link zum LSF
53 Teilnehmer/innen
In this lecture, we will explore the possibilities of first quantum computers like IBM-Q. We will discuss underlying concepts and different architectures. We will put special focus on a practical implementation of simple algorithms through the publicly available IBM-Q machine in the exercises. Please be aware that this is a completely new lecture as the field is rapidly evolving. So, expect some unexpected things. But the currently planned topics include:
- Quantum computing gates
- Algorithms like Shor or Grover
- Quantum simulation and annealing
- Entanglement
- Error correction and topological quantum computing
The discussed hardware architectures will (possibly) include:
- Ions
- Superconducting qubits
- Cold atoms
- Photons
- Majorana fermions
Materialien
- Lecture 9_Decoherence_20190619.pdf
- Lecture 9_Decoherence_20190619_notes.pdf
- Lecture1-QuantumComputing-2019-04-17.pdf
- Lecture12_QuantumSimulation_20190710.pdf
- Lecture12_QuantumSimulation_20190710_notes.pdf
- Lecture3-Entanglement-2019-05-08.pdf
- Lecture3-Entanglement-2019-05-08_notes.pdf
- Lecture5-6_ComplexityTheoryAndAlgorithms_20190522-29.pdf
Übungsblätter
- 1
- 2
- 3
- 4
- 5
- 6
- 7
- 8
- 9
- X Final Project
Übungsgruppen
- Gruppe RPB (Rohit Prasad Bhatt)
English
12 Teilnehmer/innen
Philos.-weg 12 / R 059, Mi 14:15 - 15:45 - Gruppe CV (Celia Viermann)
17 Teilnehmer/innen
Philos.-weg 12 / R 070, Mi 14:15 - 15:45 - Gruppe SL (Stefan Lannig)
13 Teilnehmer/innen
Philos.-weg 12 / R 056, Mi 14:15 - 15:45 - Gruppe RCA (Ricardo Costa de Almeida)
11 Teilnehmer/innen
Philos.-weg 12 / R 056 (SR), Do 9:15 - 11:00