Quantum Device Researcher

About The Opportunity

• Develop and refine quantum-mechanical models of coupled superconducting qubit systems using Hamiltonian engineering principles.
• Perform large-scale numerical simulations to characterize circuit QED properties, coherence phenomena, and error-correction performance.
• Collaborate with device and control-engineering teams to translate models into optimized qubit designs and control schemes.
• Design and validate experimental protocols for measuring coherence times, gate fidelities, and quantum process tomography.
• Analyze simulation and experimental data to identify performance bottlenecks and propose targeted improvements.
• Document methods, results, and recommendations in technical reports and peer-reviewed publications.
  

Skills & Qualifications

• MSc/MTech/PhD in Physics, Electrical Engineering, or related field with a focus on quantum mechanics or quantum technologies.
• Deep understanding of Hamiltonian engineering and circuit QED principles in superconducting qubits.
• Expertise in numerical methods and computational modeling (e.g., finite-element analysis, matrix diagonalization).
• Proficiency in Python, MATLAB, or C++ for simulation development and data analysis.
• Experience designing DoE-driven experimental protocols and analyzing coherence time, gate fidelity, and tomography measurements.
• Track record of publications or patents in quantum device research.
  

Preferred

• Familiarity with bosonic error-correction codes and autonomous feedback techniques.
• Hands-on experience with quantum computing frameworks such as Qiskit or Cirq.
• Background in cryogenic electronics, RF instrumentation, or control system integration.
  

• Collaborative, innovation-driven environment with access to cutting-edge tools and cross-disciplinary expertise.
• Opportunities for rapid career growth, conference participation, and peer-reviewed publications.
• Flexible work policies, comprehensive health benefits, and relocation assistance for outstanding candidates.