A Hardware Measurement Platform for Quantum Current Sensors

A concept towards current measurement in low and medium voltage power distribution networks is presented. The concentric magnetic field around the current-carrying conductor should be measured using a nitrogen-vacancy quantum magnetic field sensor. A bottleneck in current measurement systems is the readout electronics, which are usually based on optically detected magnetic resonance (ODMR). The idea is to have a hardware that tracks up to four resonances simultaneously for the detection of the three-axis magnetic field components and the temperature. Normally, expensive scientific instruments are used for the measurement setup. In this work, we present an electronic device that is based on a Zynq 7010 FPGA (Red Pitaya) with an add-on board, which has been developed to control the excitation laser, the generation of the microwaves, and interfacing the photodiode, and which provides additional fast digital outputs. The T1 measurement was chosen to demonstrate the ability to read out the spin of the system.

Authors

Publication Details

Journal
FH Münster
Published
2026-01-01
DOI
https://doi.org/10.25974/fhms-20239
Primary Topic
Quantum and electron transport phenomena
Type
article
Field-Weighted Citation Impact
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article

A Hardware Measurement Platform for Quantum Current Sensors

Ludwig Horsthemke, Jens Pogorzelski, Markus Gregor, Frederik Hoffmann et al.
FH Münster
Quantum and electron transport phenomena
article

A Hardware Measurement Platform for Quantum Current Sensors

Ludwig Horsthemke, Jens Pogorzelski, Markus Gregor, Frederik Hoffmann, Dennis Stiegekötter, Ann-Sophie Bülter, Peter Glösekötter
article en

Abstract

A concept towards current measurement in low and medium voltage power distribution networks is presented. The concentric magnetic field around the current-carrying conductor should be measured using a nitrogen-vacancy quantum magnetic field sensor. A bottleneck in current measurement systems is the readout electronics, which are usually based on optically detected magnetic resonance (ODMR). The idea is to have a hardware that tracks up to four resonances simultaneously for the detection of the three-axis magnetic field components and the temperature. Normally, expensive scientific instruments are used for the measurement setup. In this work, we present an electronic device that is based on a Zynq 7010 FPGA (Red Pitaya) with an add-on board, which has been developed to control the excitation laser, the generation of the microwaves, and interfacing the photodiode, and which provides additional fast digital outputs. The T1 measurement was chosen to demonstrate the ability to read out the spin of the system.

FH Münster
Affordable and clean energy
Openalex Percentile: Top 8%
Quantum and electron transport phenomena
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A Hardware Measurement Platform for Quantum Current Sensors — Ludwig Horsthemke, Jens Pogorzelski, et al. · FH Münster (2026) | TGRS Research Map | TGRS