Job Description
Join Nexus Innovations Inc. at the forefront of technological evolution as we pioneer the quantum frontier in 2026. We seek a visionary Quantum Computing Architect to design next-gen computational systems that will redefine industries. This role demands a blend of theoretical physics expertise, engineering excellence, and strategic innovation. You'll lead cross-functional teams to develop scalable quantum solutions while navigating the complex landscape of qubit stability, error correction, and quantum supremacy.
Our state-of-the-art research facility in San Francisco offers unparalleled resources including cryogenic quantum processors, advanced simulation environments, and direct access to quantum cloud platforms. You'll collaborate with Nobel laureates and industry pioneers to transform theoretical concepts into real-world applications in cryptography, materials science, and artificial intelligence.
Responsibilities
- Architect quantum computing systems leveraging superconducting and photonic qubit technologies
- Develop error correction protocols and quantum algorithms for commercial applications
- Lead integration of quantum-classical hybrid computing frameworks
- Design fault-tolerant quantum circuits with 99.9%+ fidelity targets
- Collaborate with hardware teams to optimize qubit connectivity and coherence times
- Translate business requirements into quantum computing roadmaps
- Drive innovation in quantum machine learning and cryptography
Qualifications
- PhD in Quantum Physics, Computer Science, or related field (or equivalent experience)
- 5+ years in quantum computing research or industrial quantum development
- Expertise in quantum algorithms (Shor's, Grover's, VQE) and quantum circuit design
- Proficiency with quantum programming languages (Qiskit, Cirq, Q#)
- Experience with quantum error correction codes and fault-tolerant architectures
- Strong background in superconducting systems or photonic quantum processors
- Published research in peer-reviewed quantum computing journals
- Deep understanding of quantum decoherence mitigation strategies