3 of 3 Experimental Design Jobs in Reading

performance of future quantum processing units. The Role You’ll be a senior member of our Quantum Science & Exploratory Research team, combining hands‐on experimental research with technical leadership, project ownership and mentoring. Working across superconducting quantum circuits, processor characterisation, calibration, benchmarking and cryogenic measurement systems, you’ll investigate … qubit design, packaging and quantum‐processing infrastructure. You’ll also help shape the QSER roadmap, coordinate the resources required to deliver experimental programmes and support the development of Quantum Engineers across the team. What You’ll Be Working On Lead complex scientific research projects from initial concept ...

processors through advanced control theory, pulse optimisation and rigorous processor characterisation. You’ll develop and validate techniques that improve gate fidelity and stability, turning experimental breakthroughs into scalable calibration capabilities while providing insight that shapes future chip design. The Role As a Quantum Engineer specialising in control … experimentally validate high-fidelity single- and two-qubit operations. Design, optimise and benchmark pulse shapes using quantum control, numerical optimisation and experimental techniques. Characterise gate error mechanisms, including coherent error, leakage, crosstalk, drift and control-chain distortion. Build robust experimental pipelines, data-analysis workflows and performance ...

reality - and we’re just getting started. The Purpose Advance the performance of OQC’s superconducting quantum processors by connecting quantum theory, simulation and experimental evidence. As a Senior Quantum Engineer specialising in Processor Research, you’ll investigate the physics behind qubit behaviour, develop calibration and characterisation techniques … uncover error sources, validate physical models and establish the performance limitations of quantum hardware. The Role You’ll combine quantum modelling, scientific computing and experimental analysis to understand how quantum systems behave under realistic conditions. From Hamiltonian-based simulations to modelling decoherence, dissipation and noise, you’ll connect theoretical ...