FOUNDER & LEADERSHIP
Ibrahim Nsanzineza, PhD
Founder, QUENCIT
Quantum Technology Developer
Developing Quantum Technologies • Building Sustainable Technical Capability
Transforming Quantum Hardware Concepts into Manufacturable Technologies
PROFESSIONAL IDENTITY
Ibrahim Nsanzineza is a Quantum Technology Developer whose career has evolved from fundamental research in superconducting circuits and cryogenic quantum measurements into end-to-end development of superconducting quantum hardware and enabling technologies.
His work integrates superconducting materials and thin-film engineering, advanced nanofabrication, process development and integration, circuit design and electromagnetic simulation, microwave engineering, device characterization, and cryogenic quantum measurements. This multidisciplinary foundation enables him to connect device concepts and scientific requirements with practical fabrication processes, experimental validation, manufacturability, and technology implementation.
Throughout his career, he has focused not only on developing devices and processes, but also on building the technical capability required to sustain them. His approach combines engineering knowledge, hands-on experience, structured troubleshooting, documentation, mentoring, and technology transfer so that technologies can be reproduced, improved, and advanced beyond an individual project.
CORE TECHNOLOGY EXPERTISE
Superconducting Materials & Thin-Film Engineering
Circuit Design & Electromagnetic Simulation
Process Development & Integration
Microwave Engineering
Advanced Nanofabrication
Cryogenic Quantum Measurements
Superconducting Quantum Hardware
Technology Transfer
TECHNOLOGY DEVELOPMENT & TECHNICAL LEADERSHIP
Ibrahim approaches quantum technology development as an integrated engineering process that connects device concepts, scientific requirements, materials, fabrication, process integration, characterization, and experimental validation.
His work spans the complete development cycle, enabling technical decisions to be made with an understanding of how choices at one stage influence manufacturability, reproducibility, device performance, and downstream implementation.
His technical leadership combines hands-on engineering with process strategy, multidisciplinary problem solving, and capability development. He has led and supported the development of superconducting fabrication methodologies, thin-film and multilayer processes, device and microwave technologies, process optimization, experimental troubleshooting, and technology transfer—while providing technical guidance and mentorship to researchers working across different stages of quantum hardware development.
SELECTED CAREER IMPACT
17+ YEARS
Superconducting Quantum Technologies
15+ YEARS
Advanced Nanofabrication & Device Fabrication
18,000+ ACTIVE FABRICATION HOURS
Hands-on Process Development, Fabrication & Integration
10+ YEARS
Quantum Hardware Development at the Institute for Quantum Computing (IQC)
20+
Peer-Reviewed Publications & International Conference Contributions
INDUSTRY & RESEARCH COLLABORATION
Ibrahim’s work has included strategic collaborations connecting academic research, advanced engineering, and emerging quantum technology organizations. These engagements have involved superconducting quantum hardware, device fabrication, materials and thin-film development, process engineering, experimental development, and technology transfer, while respecting the confidential and proprietary nature of partner technologies.
LOCKHEED MARTIN | 2016–2017
Quantum Technology Research Collaboration
Contributed to superconducting circuit fabrication and experimental development for a prototype quantum heat engine at IQC.
QUBIC TECHNOLOGIES | 2023–2024
Superconducting Thin-Film Development
Supported the development of high-quality NbTiN thin films, with emphasis on material quality, process reproducibility, and device fabrication requirements.
ANYON SYSTEMS | 2019–2020
Superconducting Fabrication & Technology Transfer
Supported fabrication methodologies, process development, documentation, and technology transfer.
QUANTUMCORE INC. | 2025–2026
Quantum Hardware Process Development & Technology Transfer
Contributed to superconducting thin-film and fabrication-process development for kinetic-inductance quantum microwave technologies, including process integration, engineering guidance, and technology transfer.
CAPABILITY BUILDING & TECHNOLOGY TRANSFER
Ibrahim views technology transfer as more than the delivery of a process, recipe, or technical document. Sustainable technology transfer requires the transfer of engineering knowledge, practical experience, troubleshooting methods, technical judgment, and the ability to continue learning and improving.
Throughout his work, he has contributed to capability building by developing and documenting fabrication methodologies, training and mentoring researchers, supporting process optimization and troubleshooting, and transferring practical knowledge required to reproduce and refine complex technologies. The objective is not simply to demonstrate that a technology can work, but to help establish the technical capability required to understand, sustain, and advance it.
This approach directly informs the philosophy behind QUENCIT: engineering creates greater and more sustainable value when knowledge, processes, experience, and technical capability can endure beyond an individual project or person.
FROM IPOS TO QUENCIT EPOS™
Ibrahim’s professional experience → IPOS → generalization and engineering review → QUENCIT EPOS™
The Ibrahim Professional Operating System (IPOS) emerged from the systematic examination of professional experience through an engineering lens. It developed as a founder-specific operating architecture for applying systems thinking to technical judgment, professional effectiveness, organizational interaction, leadership, sustainable performance, and long-term professional development.
Following the completion of IPOS Version 1.0, its underlying architecture was subjected to engineering review and generalization. Founder-specific experiences and constructs were translated into transferable engineering principles, while the originating IPOS framework was preserved as the Founder’s Edition and development record.
This evolution gave rise to QUENCIT EPOS™ — the Engineering Professional Operating System, a generalized and institutionalized engineering architecture designed for engineers, researchers, technical professionals, technical leaders, consultants, and other capability-building practitioners.
SELECTED SCIENTIFIC CONTRIBUTIONS
Selected peer-reviewed contributions spanning superconducting quantum circuits, quantum microwave systems, engineered quantum interactions, and quantum many-body physics.
2026 • PHYSICAL REVIEW LETTERS
Observation of Genuine Tripartite Non-Gaussian Entanglement from a Superconducting Three-Photon Spontaneous Parametric Down-Conversion Source
Jarvis-Frain, B. et al., including I. Nsanzineza
Non-Gaussian entanglement • Three-photon quantum processes
2021 • PHYSICAL REVIEW LETTERS
Quantum Simulation of the Bosonic Creutz Ladder with a Parametric Cavity
Hung, J. S. C. et al., including I. Nsanzineza
Parametric quantum systems • Synthetic lattice physics
2025 • PHYSICAL REVIEW B
Native Three-Body Interactions in a Superconducting Lattice Gauge Quantum Simulator
Busnaina, J. H. et al., including I. Nsanzineza
Quantum simulation • Engineered many-body interactions
2020 • PHYSICAL REVIEW X
Observation of Three-Photon Spontaneous Parametric Downconversion in a Superconducting Parametric Cavity
Sandbo Chang, C. W. et al., including I. Nsanzineza
Superconducting quantum circuits • Three-photon processes
2024 • NATURE COMMUNICATIONS
Quantum Simulation of the Bosonic Kitaev Chain
Busnaina, J. H. et al., including I. Nsanzineza
Quantum simulation • Topological quantum systems
2014 • PHYSICAL REVIEW LETTERS
Trapping a Single Vortex and Reducing Quasiparticles in a Superconducting Resonator
I. Nsanzineza and B. L. T. Plourde
Superconducting resonators • Vortex and quasiparticle physics
RESEARCH ADVISORS & POSTDOCTORAL MENTORSHIP
Professor Christopher Wilson
Postdoctoral Research Advisor • Institute for Quantum Computing, University of Waterloo
Postdoctoral Research: Superconducting Quantum Circuits, Parametric Quantum Systems, Quantum Microwave Technologies & Quantum Heat Engine
Dr. Simon Mullins & Professor David Aschman
Postgraduate Diploma Co-Advisors • University of Cape Town & iThemba LABS
Postgraduate Diploma Thesis: Metastable States in Atomic Nuclei: High-K Isomers
Professor Britton Plourde
M.S. & PhD Research Advisor • Syracuse University
M.S. Research: Quantum Coherence and Vortex Dynamics in Nanostructured Superconductors
PhD Thesis: Vortices and Quasiparticles in Superconducting Microwave Resonators
Professor Lakhan Lal Yadav
B.Sc. Research Advisor • Kigali Institute of Education
B.Sc. Thesis: Kinematics and Laws of Motion Using the Perspectives of Physics Education Research
EDUCATION & PROFESSIONAL DEVELOPMENT
2015 • PhD, EXPERIMENTAL CONDENSED MATTER PHYSICS
Syracuse University
Syracuse, New York, USA
2008 • POSTGRADUATE DIPLOMA, MATHEMATICAL SCIENCES
African Institute for Mathematical Sciences (AIMS)
University of Cape Town
Cape Town, South Africa
2010 • M.S., PHYSICS
Syracuse University
Syracuse, New York, USA
2005 • B.Sc., PHYSICS & CHEMISTRY
Kigali Institute of Education (now University of Rwanda, College of Education)
Kigali, Rwanda
Minor in Science Teaching