Improving NMR Sensitivity with a Predictive Noise Modeling Calculator

Nuclear magnetic resonance (NMR) spectroscopy systems face significant challenges, including noiserelated limitations that impact sensitivity and prolong measurement times. These issues arise from suboptimal configurations in the receiving chain, where background noise, gain mismatches, and signal deterioration collectively reduce system performance. Addressing these problems often requires labor-intensive trial-and-error approaches, which are inefficient and costly. To overcome these challenges, a comprehensive noise model has been developed, enabling precise predictions of signal-to-noise ratios (SNRs) and overall noise properties for NMR receiving chains. This model identifies the weakest components in the chain, enabling targeted improvements to system sensitivity and performance. Here, we present a JavaScript-based calculator that implements this noise model to make this solution accessible and practical. The tool allows users to input critical parameters such as noise figures, gains, and losses for each component in the receiving chain. It then computes the overall noise figure and predicts system performance metrics, providing clear insights for optimizing the chain configuration. This calculator offers an accessible and practical solution for researchers, allowing digital experimentation with configurations and reducing the need for costly physical adjustments. The tool aims to empower the NMR community to achieve faster, more precise measurements and advance experimental efficiency and accuracy.

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Publication Details

Published
2025-06-02
DOI
https://doi.org/10.1109/mipro65660.2025.11131808
Primary Topic
Neural Networks and Applications
Type
article
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article

Improving NMR Sensitivity with a Predictive Noise Modeling Calculator

Dario Bojanjac, Lovro Blažok
Neural Networks and Applications
article

Improving NMR Sensitivity with a Predictive Noise Modeling Calculator

Dario Bojanjac, Lovro Blažok
article en

Abstract

Nuclear magnetic resonance (NMR) spectroscopy systems face significant challenges, including noiserelated limitations that impact sensitivity and prolong measurement times. These issues arise from suboptimal configurations in the receiving chain, where background noise, gain mismatches, and signal deterioration collectively reduce system performance. Addressing these problems often requires labor-intensive trial-and-error approaches, which are inefficient and costly. To overcome these challenges, a comprehensive noise model has been developed, enabling precise predictions of signal-to-noise ratios (SNRs) and overall noise properties for NMR receiving chains. This model identifies the weakest components in the chain, enabling targeted improvements to system sensitivity and performance. Here, we present a JavaScript-based calculator that implements this noise model to make this solution accessible and practical. The tool allows users to input critical parameters such as noise figures, gains, and losses for each component in the receiving chain. It then computes the overall noise figure and predicts system performance metrics, providing clear insights for optimizing the chain configuration. This calculator offers an accessible and practical solution for researchers, allowing digital experimentation with configurations and reducing the need for costly physical adjustments. The tool aims to empower the NMR community to achieve faster, more precise measurements and advance experimental efficiency and accuracy.

University of Rijeka (HR), University of Zagreb (HR), VERN' University (HR)
Openalex Percentile: Top 88%
Neural Networks and Applications
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Improving NMR Sensitivity with a Predictive Noise Modeling Calculator — Dario Bojanjac, Lovro Blažok · (2025) | TGRS Research Map | TGRS