First Measurements of Surface Nuclear Magnetic Resonance Signals Without an Oscillating Excitation Pulse – Exploiting Non‐Adiabatic Prepolarization Switch‐Off

Magnetic resonance imaging allows us to spatially resolve signals from within our samples providing information not only on the nature of their content, but also on the distribution of features both in up to three-dimensional space and in time. An earlier chapter has introduced the power of magnetic resonance spectroscopy as a tool to study soil contamination which will be extended here to consider how imaging can provide complementary information, particularly with respect to spatial and temporal dynamics in transport, migration and flow. This is a continually growing area of interest in environmental science. To support this growth, where possible, a starting point for protocols and parameters is provided to minimise some of the challenges involved in running such experiments from scratch.

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Simulations of Dual Electrical Source-Based SNMR for Deep Water in Urban Environments

Lin,

Chang,

Lin

et al. 2024

IEEE Geosci. Remote Sensing Lett.

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First Measurements of Surface Nuclear Magnetic Resonance Signals Without an Oscillating Excitation Pulse – Exploiting Non‐Adiabatic Prepolarization Switch‐Off

Abstract: Surface nuclear magnetic resonance (SNMR) is a well-established method for groundwater exploration and non-invasive aquifer characterization (

Cited by 6 publications

References 28 publications

Advanced surface coil layout with intrinsic noise cancellation properties for surface-NMR applications

Advanced surface coil layout with intrinsic noise cancellation properties for surface-NMR applications

Using Magnetic Resonance Imaging to Study Contaminant Dynamics

Simulations of Dual Electrical Source-Based SNMR for Deep Water in Urban Environments

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