Advancing Quantum Temperature Sensors for Ultra-Precise Measurements (UPMs): A Comparative Study

In this study, we compared the performance of quantum temperature sensors (QTSs) with conventional sensors (CSs), highlighting differences in measurement accuracy and stability. Quantum sensors (QSs), known for their ability to provide ultra-precise measurements (UPMs), were tested across a temperature range of −10 to 40 °C. The results indicate that QSs offer superior accuracy, with a lower average error and a smaller standard deviation compared to CSs, indicating better measurement stability. For this comparison, we utilized Python scripts to conduct simulations and statistical analyses, leading to precise and reproducible results. The sensor performance was simulated in a controlled environment, and the obtained data were compared with experimental results. This comparison reveals that QSs are more reliable for applications requiring high precision, such as those in the Internet of Things (IoT) domain. These findings underscore the potential advantage of QSs in critical systems where measurement accuracy is paramount.

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Publication Details

Journal
Electronics
Published
2024-09-19
DOI
https://doi.org/10.3390/electronics13183715
Citations
5
Primary Topic
Mechanical and Optical Resonators
Type
article
Field-Weighted Citation Impact
1.69
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article

Advancing Quantum Temperature Sensors for Ultra-Precise Measurements (UPMs): A Comparative Study

Ahmed Lakhssassi, Aziz Oukaira, Ouafaa Ettahri
5 citations
Electronics
Mechanical and Optical Resonators
1.69
article

Advancing Quantum Temperature Sensors for Ultra-Precise Measurements (UPMs): A Comparative Study

Ahmed Lakhssassi, Aziz Oukaira, Ouafaa Ettahri
article en
5 citations

Abstract

In this study, we compared the performance of quantum temperature sensors (QTSs) with conventional sensors (CSs), highlighting differences in measurement accuracy and stability. Quantum sensors (QSs), known for their ability to provide ultra-precise measurements (UPMs), were tested across a temperature range of −10 to 40 °C. The results indicate that QSs offer superior accuracy, with a lower average error and a smaller standard deviation compared to CSs, indicating better measurement stability. For this comparison, we utilized Python scripts to conduct simulations and statistical analyses, leading to precise and reproducible results. The sensor performance was simulated in a controlled environment, and the obtained data were compared with experimental results. This comparison reveals that QSs are more reliable for applications requiring high precision, such as those in the Internet of Things (IoT) domain. These findings underscore the potential advantage of QSs in critical systems where measurement accuracy is paramount.

ElectronicsVol. 13(18)
Université de Moncton (CA), Université du Québec en Outaouais (CA)
Openalex Percentile: Top 16%
Mechanical and Optical Resonators
1.69
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