Quantum ML Scientist: Error Correction & Decoding

Finq Tech Inc.; Boston, Northern (MA, KY); Hybrid; USD 130,000 - 212,000; Full time

Job summary

QuEra Computing seeks a talented researcher with strong expertise in quantum error correction and decoding to advance our hardware-driven QEC protocols and decoding strategies. You will develop decoding algorithms and leverage machine learning methods to design efficient QEC solutions, engaging with a vibrant network of collaborators across academia and industry.

The role emphasizes hardware-aware QEC, fault-tolerant protocol design, and the implementation of fault-tolerant quantum algorithms,

Qualifications

• PhD in Physics/CS/Math/EE or equivalent experience.
• Experience applying machine learning to scientific problems.
• Experience in quantum computing and quantum error correction.
• Exceptional publication record in relevant fields.
• Strong written and verbal communication skills.
• Strong software skills.

Responsibilities

• Develop and implement quantum error correction protocols and decoding algorithms on our hardware.
• Explore machine learning methods for decoding and QEC design.
• Collaborate with academic and industry partners to advance QEC research.
• Address challenges across hardware, decoders, and fault-tolerant protocols.
• Design and prototype fault-tolerant quantum algorithms with ML-guided decoders.

Skills

PhD level expertise

Machine learning for science

Quantum computing

Publications track

Communication skills

Software skills

Education

PhD in Physics/CS/Math/EE

Job description

QuEra Computing seeks a talented researcher with strong expertise in quantum error correction and decoding to advance our hardware-driven QEC protocols and decoding strategies. You will develop decoding algorithms and leverage machine learning methods to design efficient QEC solutions, engaging with a vibrant network of collaborators across academia and industry.

The role emphasizes hardware-aware QEC, fault-tolerant protocol design, and the implementation of fault-tolerant quantum algorithms,