About
We have known for over twenty years that quantum computers would have unique powers for solving certain classes of computational problems.
Throughout these twenty years, workers have striven to identify a physical setting in which high-quality qubits can be created and employed in a quantum computing system. Very promising devices have been identified in several different areas of low-temperature electronics, namely in superconductor and in single-electron semiconductor structures (e.g., quantum dots). Efforts at scale-up are presently underway, with Google achieving now a 53-qubit system; even for modules of 10 qubits, the complexity of the classical electronic control system were clearly going to be one of the main barriers to further progress. The specifications of this control system are now well defined, and are daunting. In this talk I will touch on progress in modelling these complex control systems, and on the architectural objective based on mimicking the protection of quantum states afforded by topological matter.
Current Challenges for Quantum Computing: https://cern.zoom.us/j/61529574325?pwd=a2RIY2hMOFNsRWdwRHpoaCs2cE1nUT09.
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The talk
Credits and licence
- Institution
- CERN
- Department
- CERN Colloquium
- Speaker
- David DiVincenzo
- Year
- 2021
- Language
- English
- Subjects
- Physics, Computer science
- Source
- CERN
- Licence
- CERN, as CERN states it. CERN's terms
- Attribution
- © CERN. CERN provides its audiovisual media free of charge for educational and informational use, credited to CERN; this lecture is shown in CERN's own player.
- Who can watch
- CERN gives no rating. Invisible Network shows it to Tweens profiles and older, judged from what the source says about it. How courses are placed