SummaryIn this role, you will contribute to the advancement of neutral-atom-based quantum computing technologies by architecting, prototyping and integrating optical subsystems into QuEra's next-generation quantum computers. These subsystems rely on diffractive optics, holography, optical tiling strategies, aberration correction, and camera-in-loop feedback to deliver stable, uniform, and precisely controlled optical fields across large qubit arrays. As part of an R&D team, you will collaborate closely with a multidisciplinary group of physicists, engineers, and computer scientists to push the boundaries of quantum computing using neutral-atom platforms by helping shape long-term optical system design decisions.
Responsibilities- Design and prototype scalable optical architectures for trapping, addressing, and readout of next-generation neutral atom qubit arrays.
- Model optical systems including diffraction, aberrations, polarization effects, and alignment sensitivities.
- Establish integration strategies of new optical modules to optimize performance of neutral atom quantum computers.
- Implement diagnostic and calibration strategies linking optical design to experimental outcomes, enabling rapid commissioning and long-term stability.
- Partner with hardware engineering team to translate architectural concepts into deployable hardware and alignment procedures.
- Evaluate emerging beam-shaping and multiplexing technologies for next-generation scalability.
- Stay current with the latest advancements in optical engineering, beam shaping, and optical computing relevant to neutral atom quantum computing.
Qualifications- Ph.D. or equivalent experience in Optics, Physics, or a related field with a strong background in optical system design and implementation.
- Hands-on laboratory experience with free-space optical alignment, diagnostics, and characterization techniques.
- Proven experience architecting and integrating complex systems with both hardware and software components.
- Demonstrated experience modeling optical propagation, aberrations, and system tolerances using analytical or numerical tools, e.g., Zemax.
- Strong programming skills in Python, C++, MATLAB, or similar environments for modeling, analysis, and calibration workflows.
- Strong analytical and problem-solving skills, with the ability to take technical ownership of complex subsystems.
- Effective communication skills and the ability to collaborate across physics, engineering, and software teams.
- Track record of publications or significant technical contributions in relevant areas.
Preferred Qualifications- CAD design skills.
- Proficiency with git, GitHub, and modern collaborative development workflows.
- Experience with neutral atom, ion, or other quantum computing platforms.
- Familiarity with beam shaping technologies such as spatial light modulators, acousto-optic deflectors, diffractive optics.
- Background in stability engineering, including mitigation of thermal, mechanical, and pointing drifts.
The approximate base salary range for this position is $130,400 - $211,900.
We consistently monitor external market data and update base salary ranges accordingly. We determine base compensation decisions on several factors, including as geographic placement, role-specific knowledge, skills, and/or experience. In addition to our base salary offerings, we also provide equity grants for all new hires.
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