Quantum Error Correction
We’re working with a well-funded, fast‑scaling quantum technology company building next‑generation hardware platforms based on neutral atom architectures. As they move toward fault‑tolerant quantum computing, they are looking to strengthen their capabilities in quantum error correction (QEC) particularly in distributed and networked settings.
This is a high‑impact research role focused on designing and implementing error correction strategies that operate across modular or distributed quantum systems.
The Role
You’ll lead and contribute to the development of distributed quantum error correction protocols, working at the intersection of theory and experiment. The role involves close collaboration with hardware and systems teams to ensure QEC strategies are aligned with real‑world constraints and scalable architectures.
Key Responsibilities
- Design and develop quantum error correction codes tailored to distributed or modular quantum computing architectures
- Explore and implement fault‑tolerant protocols across networked quantum systems
- Model and simulate noise processes and error propagation in distributed settings
- Collaborate with experimental physicists and engineers to integrate QEC into hardware platforms
- Contribute to system‑level architecture decisions related to scalability and reliability
- Publish research findings and represent the company within the quantum research community
Required Background
- PhD in Quantum Physics, Quantum Information, or a closely related field
- Strong expertise in quantum error correction, including stabilizer codes, surface codes, or LDPC codes
- Demonstrated experience with distributed or modular quantum systems (e.g., quantum networks, multi‑node architectures)
- Solid understanding of noise models and fault tolerance thresholds
- Proficiency in scientific programming (e.g., Python, Julia, or C++)