Job Description
Join Nexus Labs at the forefront of technological evolution as we pioneer quantum computing solutions for 2026 and beyond. We're seeking visionary Quantum Computing Research Scientists to develop breakthrough algorithms and architectures that will redefine computational boundaries. In this role, you'll collaborate with Nobel laureates and industry disruptors in our state-of-the-art Austin facility, leveraging cutting-edge quantum processors to solve previously impossible challenges in cryptography, materials science, and artificial intelligence.
Our team operates at the intersection of theoretical physics and practical application, with access to proprietary quantum annealing systems and 100+ qubit processors. You'll contribute to projects with global impact while enjoying unparalleled professional development opportunities through our partnership with MIT's Quantum Engineering Center.
Responsibilities
- Design and implement novel quantum algorithms for optimization and simulation problems
- Develop error correction protocols for quantum processors with >99.9% fidelity
- Lead cross-functional teams in translating quantum proofs into commercial applications
- Author breakthrough research papers for Nature Physics and IEEE journals
- Architect quantum-classical hybrid computing frameworks for enterprise clients
- Collaborate with hardware teams to co-design next-generation quantum processors
- Mentor junior researchers in quantum information theory and computational complexity
Qualifications
- PhD in Quantum Computing, Theoretical Physics, or Computer Science
- 3+ years of hands-on quantum algorithm development experience
- Published research in quantum error correction or topological quantum computing
- Proficiency with Qiskit, Cirq, and quantum circuit optimization tools
- Deep understanding of quantum decoherence mitigation techniques
- Experience with high-performance computing clusters (>10,000 cores)
- Strong background in linear algebra and probability theory
- Track record of translating theoretical concepts into functional prototypes