Leonard Strouk - Academia.edu (original) (raw)

Leonard Strouk

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Papers by Leonard Strouk

Research paper thumbnail of Full Correlations across Broad NMR Spectra by Two‐Field Total Correlation Spectroscopy

ChemPhysChem, Jul 13, 2017

Research paper thumbnail of Optimal control RF pulses for excitation and suppression of NMR signals in a conductive medium

The Journal of Chemical Physics, 2018

In this work, optimal control theory was used to design efficient excitation schemes in highly co... more In this work, optimal control theory was used to design efficient excitation schemes in highly conductive materials, where both the radio frequency field strength and phase vary as a function of penetration depth. A pulse was designed to achieve phase alignment between signals at different depths within the conductor and thus to obtain higher signals from that region. In addition, an efficient suppression pulse was designed by insuring mutual suppression between the signals from various depths in the sample. The performance of the new approach was demonstrated experimentally for a bulk lithium sample for the excitation problem and for a biphasic metal/liquid sample for the selective suppression pulse.

Research paper thumbnail of Full Correlations across Broad NMR Spectra by Two‐Field Total Correlation Spectroscopy

ChemPhysChem, Jul 13, 2017

Research paper thumbnail of Optimal control RF pulses for excitation and suppression of NMR signals in a conductive medium

The Journal of Chemical Physics, 2018

In this work, optimal control theory was used to design efficient excitation schemes in highly co... more In this work, optimal control theory was used to design efficient excitation schemes in highly conductive materials, where both the radio frequency field strength and phase vary as a function of penetration depth. A pulse was designed to achieve phase alignment between signals at different depths within the conductor and thus to obtain higher signals from that region. In addition, an efficient suppression pulse was designed by insuring mutual suppression between the signals from various depths in the sample. The performance of the new approach was demonstrated experimentally for a bulk lithium sample for the excitation problem and for a biphasic metal/liquid sample for the selective suppression pulse.

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