The Continuous-Variable Quantum Technology Program is led by Associate Professor Nicolas Menicucci from RMIT University in Melbourne. World record-breaking experiments in recent years have revealed continuous-variable (CV) cluster states to be a highly promising technology for large-scale quantum computing. This is because extremely large quantum resource states can be made using a minimum of experimental hardware. The goals of this Program are three-fold:
- To reduce the experimental resources required for these states to be used in a fault-tolerant setting by improving the algorithms and theoretical designs for using them;
- To provide theoretical support for the experimentalists working to demonstrate these states in the laboratory through improved experimental designs and methodology; and
- To discover ways to use CV cluster states beyond their original design (quantum computing). This could be in quantum communication, quantum sensing, or the fundamental study of large-scale many-body entanglement.
People
- Prof. Nicolas C Menicucci Work Package Leader, Program Manager RMIT University
- Dr. Rafael Alexander Research Fellow RMIT University
- Lucky Antonopoulos PhD Student RMIT University
- William Astete Honours Student RMIT University
- Dr. Ben Baragiola Research Fellow RMIT University
- Tom Harris Honours Student RMIT University
- Dominic Lewis PhD Student RMIT University
- Dr. Takaya Matsuura Research Assistant RMIT University
- Blayney Walshe PhD Student RMIT University
Warning: Use of undefined constant php - assumed 'php' (this will throw an Error in a future version of PHP) in /home/customer/www/cqc2t.org/public_html/wp-content/themes/cqc2t-v2/single-cpt_research.php on line 249
​
Featured publications
view all
Measurement-based generation and preservation of cat and grid states within a continuous-variable cluster state
Quantum, 6, 769 (2022)
Fault-Tolerant Quantum Computation with Static Linear Optics
PRX Quantum, 2, 040353 (2021)
Universal Quantum Computation with Continuous-Variable Cluster States
Phys. Rev. Lett., 97, 110501 (2006)
Particle scattering in a sonic analogue of special relativity
Physical Review D, 104, 064035 (2021)
Phase-space methods for representing, manipulating, and correcting Gottesman-Kitaev-Preskill qubits
Physical Review A, 104, 022408 (2021)
Hidden qubit cluster states
Physical Review A, 104, 012431 (2021)
​