Oxford Research Group Demonstrate Fundamental Speed-Up of Two-Qubit Gate With Novel Superconducting Circuit Design, Showing 99.8% Fidelity in 25 Ns
Oxford Research Group Demonstrate Fundamental Speed-Up of Two-Qubit Gate With Novel Superconducting Circuit Design, Showing 99.8% Fidelity in 25 Ns
The University of Oxford research group led by OQC CSO Dr. Peter Leek today announced research demonstrating a fundamental speedup of the controlled-Z gate in superconducting qubits reaching a fidelity of 99.8% in only 25 ns.
Material Evaluation Technology to Support Large-Scale Quantum Computing
Material Evaluation Technology to Support Large-Scale Quantum Computing
AIST researchers have developed a technique to evaluate the electrical properties of radio-frequency (RF) substrate materials under cryogenic conditions. They have developed a technique to evaluate the electrical properties of substrate materials in cryogenic environments.
Keysight Introduces Quantum Circuit Simulation the First Circuit Environment with Frequency-Domain Flux Quantization
Keysight Introduces Quantum Circuit Simulation the First Circuit Environment with Frequency-Domain Flux Quantization
Keysight Technologies, Inc. introduces Quantum Circuit Simulation (Quantum Ckt Sim), an innovative circuit design environment that speeds up the development of intricate quantum circuits. In addition, by joining forces with Google Quantum AI, the solution incorporates advanced flux quantization which marks an industry-first achievement.
Helping Qubits Stay in Sync
Helping Qubits Stay in Sync
As part of the Center for Quantum Leaps, a signature initiative of the Arts & Sciences strategic plan, physicist Kater Murch and his research group use nano-fabrication techniques to construct superconducting quantum circuits that allow them to probe fundamental questions in quantum mechanics. Qubits are promising systems for realizing quantum schemes for computation, simulation and data encryption.
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