Job Description
Shape the technological landscape of 2026 as a Quantum Computing Research Scientist at QuantumLeap Labs. Join our pioneering team in San Francisco where you'll develop next-gen quantum algorithms that will revolutionize industries from AI to pharmaceuticals. We offer cutting-edge resources, collaborative innovation labs, and the opportunity to work alongside Nobel Prize-winning physicists. Your research will directly contribute to breakthroughs in quantum supremacy, cryptography, and computational modeling.
We're seeking visionaries who thrive at the intersection of theoretical physics and practical application. If you're passionate about solving humanity's most complex challenges using quantum principles, this is your moment to make history.
Responsibilities
- Design and implement novel quantum algorithms for optimization, simulation, and machine learning applications
- Develop error-correction techniques to advance fault-tolerant quantum computing
- Collaborate with hardware teams to translate theoretical models into practical quantum circuits
- Lead research initiatives in quantum machine learning and quantum neural networks
- Publish findings in leading scientific journals and present at international conferences
- Secure government and industry research funding through grant proposals
- Mentor junior researchers and contribute to quantum education initiatives
Qualifications
- PhD in Quantum Physics, Computer Science, or related field with quantum specialization
- Expertise in quantum information theory, quantum algorithms, and quantum complexity
- Proficiency in quantum programming languages (Qiskit, Cirq, Q#) and high-performance computing
- Strong publication record in top-tier quantum computing journals/conferences
- Experience with quantum simulation frameworks and quantum hardware interfaces
- Demonstrated ability to translate theoretical concepts into experimental prototypes
- Deep understanding of quantum error correction and fault-tolerant architectures
- Knowledge of machine learning frameworks and classical-quantum hybrid systems