Job Description
Join Nexus Quantum Labs at the forefront of technological evolution as we pioneer the next wave of quantum computing breakthroughs. As a Quantum Computing Research Lead for our 2026 initiative, you'll architect the future of computational science by designing scalable quantum algorithms and pushing the boundaries of quantum supremacy. This role demands a visionary thinker capable of translating complex quantum theories into transformative solutions for Fortune 500 partners in finance, logistics, and pharmaceuticals. You'll lead a multidisciplinary team of physicists and engineers while publishing groundbreaking research in Nature and IEEE journals.
We offer unparalleled resources including our 128-qubit 'Orion' quantum processor and collaborate with MIT, Caltech, and CERN. The ideal candidate thrives in ambiguity and possesses a proven track record of turning theoretical concepts into commercial applications. If you're ready to redefine human technological capabilities, this is your moment.
Responsibilities
- Design and implement novel quantum algorithms for optimization and simulation problems
- Lead cross-functional R&D teams in developing quantum error correction protocols
- Collaborate with industry partners to prototype quantum solutions for real-world challenges
- Secure $5M+ in research grants from NSF and DARPA programs
- Publish 3+ peer-reviewed papers annually in top-tier quantum journals
- Mentor PhD researchers and postdoctoral fellows in quantum information theory
- Develop patent portfolios for quantum hardware innovations
Qualifications
- PhD in Quantum Physics, Computer Science, or related field
- 5+ years of experience in quantum computing research
- Published research in Nature/Science journals or equivalent
- Expertise in quantum circuit design and gate-based architectures
- Proficiency with Qiskit, Cirq, or similar quantum programming frameworks
- Experience securing federal research funding (NSF/DARPA)
- Demonstrated leadership in managing quantum research teams
- Deep understanding of quantum decoherence mitigation strategies