qubitsok.com
Cut Noise. Work Quantum.
Europe, Norway, Bergen
•
Posted 105 days ago
🎓 Simula UiB AS
Role Type
Role Focus
Seniority
Employer Type
This is a three-year PhD researcher position at Simula UiB in Norway, focused on advanced topics in quantum error correction and quantum information theory. The primary goal is to investigate the fundamental limits of quantum error correction and develop efficient decoding algorithms for near-term quantum systems. The successful candidate will conduct independent research aimed at advancing the practical realization of fault-tolerant quantum computing.
Key Responsibilities
Conduct research focusing on elucidating the fundamental limits of quantum error correction (QEC).
Advance efficient decoding algorithms for quantum error-correcting codes suitable for the noisy intermediate-scale quantum (NISQ) era.
Contribute to the design of novel, practical quantum decoding algorithms that approach ultimate performance limits.
Pursue and shape an independent research agenda within quantum error correction and quantum information theory.
Contribute meaningfully to the practical realisation of fault-tolerant quantum computing.
Required Skills
Completed or near completion of a Master’s degree in Electrical Engineering, Computer Science, Applied Mathematics, Quantum Physics, or a closely related field.
Strong theoretical and practical understanding of error correction.
Strong theoretical and practical understanding of information theory.
Strong theoretical and practical understanding of quantum information theory.
Fluent in English (writing and speaking).
Demonstrated potential for conducting original research in quantum error correction and quantum information theory.
Nice-to-have Skills
Solid background in mathematical methods and algorithms related to the decoding performance of error-correcting codes.
Technology Tags
The PhD position focuses centrally on quantum error correction (QEC) codes and algorithms.
This is an explicit area of focus for the research and a required background for the candidate.
The project contributes to the practical realisation of fault-tolerant quantum computing.
The project is constrained to decoding algorithms relevant to the noisy intermediate-scale quantum (NISQ) era.
A core goal is investigating efficient, low-complexity decoding algorithms for quantum codes.
Designing efficient, high-performance decoding algorithms inherently requires optimization techniques.
The project involves deriving tighter bounds on logical error rates under phenomenological or circuit-level noise models.