Updated on 23 July 2026
QUDL: cross-platform calibration for quantum detectors, converting theoretical predictions into absolute counts.
CEO at Physivitis Ltd
London, United Kingdom
About
QUDL is a calibration method for quantum detection. Detection theory produces dimensionless predictions; instruments produce counts. QUDL bridges the two through the Mugenzi calibration coefficient (κ_M), a detector- and readout-specific constant determined once, which converts amplitude predictions into absolute counts per gate.
The calibration sits inside the detection model rather than being fitted afterwards, so detector acceptance, efficiency and the readout chain are accounted for from the start.
What it offers
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Absolute counts rather than relative signals, so results are comparable across devices and sites
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Calibration that transfers between operating regimes and detector platforms
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Drift tracked over time rather than assumed constant, so recalibration is scheduled on evidence
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Calibration uncertainty carried through to the prediction, which matters for audit and certification
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One formulation from the single-photon regime through to saturation
QUDL recovers the established limits (Glauber photodetection, Lindblad dynamics, S-matrix scattering) under their standard conditions. It is built on that foundation rather than replacing it.
Where it applies
Quantum computing readout, PET imaging, quantum communications and QKD, metrology and standards, LiDAR and time-of-flight, and faint-light detection in aerospace, astronomy and semiconductor inspection.
Current stage
QUDL is validated in simulation, including against an independent Lindblad (QuTiP) ground truth. It has not yet been validated on hardware or in a clinical setting. That is the next step and the reason for attending.
What we are looking for
Validation partners with detector hardware, OEM and clinical partners (particularly in PET), and R&D collaborators in quantum computing and photonics where readout calibration is a live constraint. Findings are publishable either way.
Physivitis Ltd. Patent pending GB2613829.7.
rene.mugenzi@physivitis.tech
Looking for
- Joint Development
- Research
Organisation
Similar opportunities
Expertise
R&D Project Leadership in Advanced Instrumentation
- Quantum Sensing
- Enabling technologies (electronics, photonics, vacuum etc.)
Stefania Bordoni
R&D Project Leader | Physicist at Université de Genève - Department of Nuclear and Particle Physics
Geneva, Switzerland
Job position
Master Thesis - Quantum Computing & Quantum Technologies
- Internship
- Private Sector
Mathias Findrihan
MSc Applied Physics | Minor in Quantum science and engineering | EPFL at EPFL
Lausanne, Switzerland
Service
Computational Quantum Matter Dynamics
- Development
- Quantum Computing
- Enabling technology (electronics, photonics, vacuum etc.)
Sayan Nikolai Ali Khan
Master‘s Student in Condensed Matter Physics at ETH Zürich
Zurich, Switzerland