Literature DB >> 31066109

Toward "plug and play" prospective motion correction for MRI by combining observations of the time varying gradient and static vector fields.

Adam van Niekerk1, Andre van der Kouwe1,2,3, Ernesta Meintjes1,4.   

Abstract

PURPOSE: The efficacy of a Wireless Radio frequency triggered Acquisition Device (WRAD) is evaluated for high frequency (50 Hz) prospective motion correction in a 3-dimensional spoiled gradient echo pulse sequence.
METHODS: The device measures the rate of change in the gradient vector fields (slew) using a 3-dimensional assembly of Printed Circuit Board (PCB) inductors and the direction of the static magnetic field using a 3-axis Hall effect magnetometer. The slew vector encoding is highly efficient, because the Maxwell-term position encoding is observable, allowing overconstrained pose measurement using 3 sinusoidal gradient pulses lasting 880 μs. Since small offsets in the magnetometer can introduce bias into the pose estimates, sensor/system biases are tracked using a lightweight Kalman filter. The only calibration required is determining a geometric scaling factor for the pickup coils, which is specific to the device and will therefore be valid in any scanner.
RESULTS: The device was used to perform prospective motion correction in 3 subjects, resulting in an increase in Average Edge Strength (AES) for involuntary and deliberate motion.
CONCLUSIONS: The WRAD is simple to set up and use, with well-defined measurement variance. This could enable "plug and play" prospective motion correction if pulse sequence independence is achieved.
© 2019 International Society for Magnetic Resonance in Medicine.

Entities:  

Keywords:  MRI; Motion; WRAD; prospective; slew; wireless

Mesh:

Year:  2019        PMID: 31066109      PMCID: PMC7266630          DOI: 10.1002/mrm.27790

Source DB:  PubMed          Journal:  Magn Reson Med        ISSN: 0740-3194            Impact factor:   4.668


  19 in total

1.  A Wireless Radio Frequency Triggered Acquisition Device (WRAD) for Self-Synchronised Measurements of the Rate of Change of the MRI Gradient Vector Field for Motion Tracking.

Authors:  Adam van Niekerk; Ernesta Meintjes; Andre van der Kouwe
Journal:  IEEE Trans Med Imaging       Date:  2019-01-10       Impact factor: 10.048

2.  NMR probes for measuring magnetic fields and field dynamics in MR systems.

Authors:  Nicola De Zanche; Christoph Barmet; Jurek A Nordmeyer-Massner; Klaas P Pruessmann
Journal:  Magn Reson Med       Date:  2008-07       Impact factor: 4.668

3.  Dynamic scan-plane tracking using MR position monitoring.

Authors:  J A Derbyshire; G A Wright; R M Henkelman; R S Hinks
Journal:  J Magn Reson Imaging       Date:  1998 Jul-Aug       Impact factor: 4.813

4.  Concomitant gradient terms in phase contrast MR: analysis and correction.

Authors:  M A Bernstein; X J Zhou; J A Polzin; K F King; A Ganin; N J Pelc; G H Glover
Journal:  Magn Reson Med       Date:  1998-02       Impact factor: 4.668

5.  Retrospective correction of involuntary microscopic head movement using highly accelerated fat image navigators (3D FatNavs) at 7T.

Authors:  Daniel Gallichan; José P Marques; Rolf Gruetter
Journal:  Magn Reson Med       Date:  2015-04-14       Impact factor: 4.668

6.  Collapsed fat navigators for brain 3D rigid body motion.

Authors:  Mathias Engström; Magnus Mårtensson; Enrico Avventi; Ola Norbeck; Stefan Skare
Journal:  Magn Reson Imaging       Date:  2015-06-25       Impact factor: 2.546

7.  Head motion measurement and correction using FID navigators.

Authors:  Tess E Wallace; Onur Afacan; Maryna Waszak; Tobias Kober; Simon K Warfield
Journal:  Magn Reson Med       Date:  2018-07-29       Impact factor: 4.668

8.  Prospective motion correction with NMR markers using only native sequence elements.

Authors:  Alexander Aranovitch; Maximilian Haeberlin; Simon Gross; Benjamin E Dietrich; Bertram J Wilm; David O Brunner; Thomas Schmid; Roger Luechinger; Klaas P Pruessmann
Journal:  Magn Reson Med       Date:  2017-08-24       Impact factor: 4.668

9.  Markerless high-frequency prospective motion correction for neuroanatomical MRI.

Authors:  Robert Frost; Paul Wighton; F Işık Karahanoğlu; Richard L Robertson; P Ellen Grant; Bruce Fischl; M Dylan Tisdall; André van der Kouwe
Journal:  Magn Reson Med       Date:  2019-02-28       Impact factor: 4.668

10.  An RF-gated wireless power transfer system for wireless MRI receive arrays.

Authors:  Kelly Byron; Fraser Robb; Pascal Stang; Shreyas Vasanawala; John Pauly; Greig Scott
Journal:  Concepts Magn Reson Part B Magn Reson Eng       Date:  2018-02-14       Impact factor: 1.176

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  3 in total

1.  Comparison of prospective and retrospective motion correction in 3D-encoded neuroanatomical MRI.

Authors:  Jakob M Slipsager; Stefan L Glimberg; Liselotte Højgaard; Rasmus R Paulsen; Paul Wighton; M Dylan Tisdall; Camilo Jaimes; Borjan A Gagoski; P Ellen Grant; André van der Kouwe; Oline V Olesen; Robert Frost
Journal:  Magn Reson Med       Date:  2021-09-07       Impact factor: 4.668

2.  What is next in African neuroscience?

Authors:  Kirsten A Donald; Mahmoud Maina; Nilesh Patel; Carine Nguemeni; Wael Mohammed; Amina Abubakar; Matthew Brown; Raliza Stoyanova; Andrew Welchman; Natasha Walker; Alexis Willett; Symon M Kariuki; Anthony Figaji; Dan J Stein; Amadi O Ihunwo; William Daniels; Charles R Newton
Journal:  Elife       Date:  2022-06-22       Impact factor: 8.713

3.  Tracking of rigid head motion during MRI using an EEG system.

Authors:  Malte Laustsen; Mads Andersen; Rong Xue; Kristoffer H Madsen; Lars G Hanson
Journal:  Magn Reson Med       Date:  2022-04-25       Impact factor: 3.737

  3 in total

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