Quantum Sensor Network Algorithms for Transmitter Localization

A physics-based digital twin simulator and algorithm benchmarking suite for Fluorescent Nanodiamond (FND) Lock-In Optical Imaging.

Simulate the interaction between two systems of spins (sensors and targets)

Deep learning to make predictions from quantum sensor measurements

Fundamentals of Quantum Computing and Sensors workshop at Illinois Institute of Technology (2021)

Physics-informed ESR tip magnetometry for Haldane chains with sparse 3D sensing and inverse recovery of beta and global magnetization.

biological-qubits-atlas

Simulation-only quantum sensor fusion (QSFM) — seeded demo, CI, MIT, patent pending (dual-use).

Regolith Observatory for Kaluza-Klein Yield (ROCKY) — Artemis II and the Emergent Cosmos: Gravity as a Geometric Projection from a Non-Linear Compactified 5D Manifold. A synthesis and lunar test proposal with a 150 kg dual-species atom-interferometer payload for the lunar South Pole. Zenodo DOI: https://zenodo.org/records/19790009

Reproducible ESR-STM workflow to probe spin fractionalization in S=1 Haldane chains (Phys. Rev. B 110, 045145, 2024).

An interactive research paper exploring Quantum Gravity, bridging theoretical frameworks like String Theory and LQG with empirical testing, quantum sensing, and the socio-economic ethics of Big Science infrastructure.

Sequential hypothesis testing for continuously-monitored quantum systems. Real-time analysis of measurement signals with adaptive stopping criteria. Published in Quantum 8, 1289 (2024).

This repository contains python code to control the various components required to conduct an experiment to optically detect the electron spin resonance in fluorescent micordiamonds.

A modular Python framework for simulating quantum spin defects, ODMR, and sensing protocols. Supports ensemble modelling, electric and magnetic fields, and magnetometry workflows for research in AMO and condensed matter physics.

Estimate NV distance with implantation dose and transform ratio

Code associated with the manuscript: "Optimal squeezing for quantum target detection" by G. Spedalieri and S. Pirandola, Phys. Rev. Research 3, L042039 (2021). This work was funded by the EU Horizon 2020 Research and Innovation Action under grant agreement No. 862644 (FET Open project: Quantum readout techniques and technologies, QUARTET)

Reproducible data processing and analysis pipeline for the manuscript "Superconducting antiqubit simulation enables optimal phase estimation via unitary inversion".

Recherche fondamentale sur la manipulation de la lumière par la géométrie cristalline. Analyse comparative Diamant/Quartz et application de la frustration géométrique pour créer des métamatériaux photoniques et des pièges optiques quantiques

Publication-ready ODMR diagrams for NV-center physics