Job Description
Join Nexus Quantum Labs at the forefront of technological evolution as we pioneer breakthroughs that will redefine 2026 and beyond. We're seeking a visionary Quantum Computing Research Lead to architect next-gen solutions for global industries. This role offers unparalleled opportunities to shape the quantum landscape while collaborating with Nobel laureates and industry disruptors. Our state-of-the-art facility in San Francisco provides an incubator environment where theoretical physics meets real-world application.
What You'll Achieve: Design quantum algorithms that solve previously unsolvable computational challenges, publish groundbreaking research in top-tier journals, and mentor the next generation of quantum pioneers. You'll directly contribute to our mission of making quantum computing commercially viable by 2026.
Responsibilities
- Lead cross-functional teams in developing quantum algorithms for optimization and simulation problems
- Architect scalable quantum computing architectures compatible with existing infrastructure
- Secure $5M+ in research grants through compelling proposals and technical demonstrations
- Collaborate with industry partners to implement quantum solutions in finance, healthcare, and logistics
- Publish 4+ peer-reviewed papers annually in Nature/Science journals
- Mentor PhD researchers and interns in quantum mechanics and computational theory
- Drive patent development for novel quantum error correction methodologies
Qualifications
- PhD in Quantum Physics, Computer Science, or related field with 5+ years industry experience
- Proven track record of publishing in top-tier quantum computing journals
- Expertise in quantum programming languages (Qiskit, Cirq, Q#) and hardware architectures
- Demonstrated success securing federal or corporate research funding
- Strong background in quantum error correction and fault-tolerant systems
- Experience leading technical teams of 10+ researchers
- Published patents in quantum computing or related fields
- Familiarity with NISQ-era constraints and hybrid quantum-classical approaches