Quantum Applied Scientist, Device and Architecture Theory, Center for Quantum Computing

About the role

The Amazon Center for Quantum Computing (CQC) is a multi-disciplinary team of scientists, engineers, and technicians on a mission to develop a fault-tolerant quantum computer. As a Quantum Applied Scientist on our Device and Architecture Theory team, you will focus on the theory and modeling of our superconducting qubit processors. You will work closely with our measurement, design, and calibration teams to interpret experimental results, inform new processor designs, and optimize device performance. You will also conduct pathfinding research to guide the development of next-generation processors, focusing on device-level physics, novel qubits and gate schemes, and implementations of error correcting codes.

Responsibilities

• Develop theoretical and numerical models of superconducting qubit processors, working across theory, measurement, design, and calibration teams to validate predictions and translate modeling insights into device improvements
• Conduct pathfinding research on novel qubit designs, gate schemes, and processor architectures to push the performance of next-generation devices
• Communicate scientific findings across the CQC, and, when appropriate, share results externally via conference presentations and publications in scientific journals
• Stay abreast of new research developments in the field of quantum computation

Requirements

We are looking for candidates with excellent problem-solving and communication skills, and with a genuine passion for applied, collaborative work.

Qualifications

• Experience in patents or publications at top-tier peer-reviewed conferences or journals
• Currently has (or in the process of obtaining) a PhD in physics, applied physics, electrical engineering, or an equivalent degree in a similar field
• A demonstrated track record of original, impactful research in quantum physics (e.g., in quantum computing, communication, or sensing; condensed matter physics; atomic, molecular, and optical physics; etc)
• Experience successfully delivering on projects as part of a cross-team collaboration
• Proficiency in a scientific programming environment

Preferred Qualifications

• Expertise in one or more of the following areas: superconducting circuits, cavity/circuit QED, quantum optics, open quantum systems
• Familiarity with quantum error correction and fault tolerant logic
• Experience with theoretical and numerical modeling of multi-qubit quantum processors or many-body quantum systems
• Experience working directly with experimental data or supporting an experimental collaboration
• Experience in numerical methods and experience with high-performance computing