Research Physicist - Quantum Topological Superconductivity & Nexgen Materials
Stealth Communications
Stealth Communications is hiring multiple Research Physicist specializing in Quantum Topological Superconductivity to lead cutting-edge research in exotic quantum phases, topological matter and emergent superconducting states.
In this role: you will develop and apply next-generation quantum materials, hybrid superconducting-semiconducting systems and Josephson junction architectures for high-performance computing, quantum networking and beyond-classical electronics.
This role is ideal for experimental and theoretical physicists pushing the boundaries of Majorana fermion-based qubits, fault-tolerant quantum computing and emergent many-body quantum states. You will design, fabricate and characterize novel superconducting platforms.. with a focus on ultra-low dissipation transport, non-Abelian quasiparticle behavior and chiral edge modes in engineered materials.
Responsibilities
- Design, fabricate, and test quantum devices based on topological superconductors, hybrid superconducting-semiconducting heterostructures & high-coherence quantum circuits
- Develop Josephson junction-based quantum systems, leveraging gate-tunable superconductivity, proximity effects and fractional Josephson states
- Investigate Majorana zero modes (MZMs), parafermionic states and exotic non-Abelian quasiparticles for topological quantum computation
- Conduct ultra-low-temperature transport experiments using millikelvin cryogenic setups (e.g., dilution refrigerators) and high-precision quantum measurement techniques
- Model topological superconducting phases, Chern-Simons field interactions, and fractionalized charge states using advanced quantum field theory and density functional theory (DFT) simulations
- Engineer fault-tolerant quantum circuits leveraging topologically protected qubits, braiding protocols, and high-coherence hybrid qubit architectures
- Develop low-dimensional materials, including twisted bilayer graphene, van der Waals heterostructures, and transition metal dichalcogenide (TMD)-based superconductors
- Collaborate with Stealth’s Advanced Materials Division to develop and refine quantum wafers, superconducting thin films, and heterostructure materials optimized for next-generation superconducting circuits
- Implement machine learning algorithms for quantum state classification, phase transition detection & real-time device tuning in quantum circuits
- Explore superconducting quantum memory, dissipation-free transport, and robust edge-state superconductivity for ultra-energy-efficient quantum devices
- Write internal research papers, contribute to classified reports
Qualifications
- Ph.D. in Condensed Matter Physics, Quantum Materials, Electrical Engineering, or Applied Physics with a focus on topological superconductivity and quantum transport
- 10+ years of experience in experimental or theoretical quantum physics, superconducting systems, or novel quantum materials research
- Active TS/SCI CI Poly U.S. government-issued security clearance prior to start.
- Experience working with classified quantum materials research, defense applications, or high-performance superconducting electronics.
- Strong background in quantum transport measurements, Andreev reflection spectroscopy, and topological band structure analysis.
- Expertise in fabrication of low-dimensional superconducting systems, including molecular beam epitaxy (MBE), atomic-layer deposition (ALD), and nanofabrication lithography.
- Proficiency in Josephson junction engineering, including tunneling spectroscopy, phase-slip analysis, and supercurrent interference effects.
- Experience in Majorana fermion manipulation, braiding operations, and non-Abelian quantum statistics for fault-tolerant quantum computation.
- Hands-on expertise in dilution refrigerator setups, superconducting quantum interference devices (SQUIDs), and hybrid quantum devices.
- Proficiency in tight-binding models, Green’s function methods, and tensor network techniques for theoretical modeling of strongly correlated quantum systems.
- Experience with high-fidelity quantum control, noise mitigation techniques, and superconducting qubit coherence enhancement strategies.
- Strong programming skills in Python, MATLAB, Julia, or C++ for quantum simulation, real-time measurement automation, and computational quantum modeling.
- Experience working with classified quantum materials programs for DoD, DARPA, or national laboratories.
Competitive compensation: $425,000+ annual salary, $400,000 sign-on bonus, and relocation assistance.