Imaging coronary plaques using 3D motion-compensated [18F]NaF PET/MR

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Location: Deutsche Nationalbibliothek Frankfurt am Main

Extent: Online-Ressource

Language: Englisch

Bibliographic citation: In: European Journal of Nuclear Medicine and Molecular Imaging (48:8) - Heidelberg : Springer Nature - S. 2455-2465

Event: Veröffentlichung

(where): Berlin

(who): Technische Universität Berlin

(when): 2023

Creator: Mayer, Johannes
Wurster, Thomas-Heinrich
Schaeffter, Tobias
Landmesser, Ulf
Morguet, Andreas
Bigalke, Boris
Hamm, Bernd
Brenner, Winfried
Makowski, Marcus R.
Kolbitsch, Christoph

DOI: 10.14279/depositonce-17251

Handle: 11303/18442

URN: urn:nbn:de:101:1-2023041201584714496289

Rights: Der Zugriff auf das Objekt ist unbeschränkt möglich.

Last update: 14.08.2025, 10:50 AM CEST

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Associated

Mayer, Johannes
Wurster, Thomas-Heinrich
Schaeffter, Tobias
Landmesser, Ulf
Morguet, Andreas
Bigalke, Boris
Hamm, Bernd
Brenner, Winfried
Makowski, Marcus R.
Kolbitsch, Christoph
Technische Universität Berlin

Time of origin

2023

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Imaging coronary plaques using 3D motion-compensated [18F]NaF PET/MR

Motion‐compensated fat‐water imaging for 3D cardiac MRI at ultra‐high fields

Velocity spectrum imaging using radial k-t SPIRiT

Real time phase encoded MR for assessment of acute variability of central pulse wave velocity

4D flow imaging with 2D spatially selective excitation

A dual-slice k-t approach for highly accelerated flow MRI

Deep supervised dictionary learning by algorithm unrolling—Application to fast 2D dynamic MR image reconstruction

P1.17 The Ventricle’s Prominent Role in Pressure Amplification; an Incremental Experimental Study

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Fully automated background phase correction using M‐estimate SAmple consensus (MSAC)—Application to 2D and 4D flow

Imaging coronary plaques using 3D motion-compensated [18F]NaF PET/MR

Motion‐compensated fat‐water imaging for 3D cardiac MRI at ultra‐high fields

Velocity spectrum imaging using radial k-t SPIRiT

Real time phase encoded MR for assessment of acute variability of central pulse wave velocity

4D flow imaging with 2D spatially selective excitation

A dual-slice k-t approach for highly accelerated flow MRI

Deep supervised dictionary learning by algorithm unrolling—Application to fast 2D dynamic MR image reconstruction

P1.17 The Ventricle’s Prominent Role in Pressure Amplification; an Incremental Experimental Study

An end‐to‐end‐trainable iterative network architecture for accelerated radial multi‐coil 2D cine MR image reconstruction

Motion‐corrected model‐based reconstruction for 2D myocardial T1 mapping

Pilot tone–based prospective respiratory motion correction for cardiac MRI

Fully automated background phase correction using M‐estimate SAmple consensus (MSAC)—Application to 2D and 4D flow

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Imaging coronary plaques using 3D motion-compensated [18F]NaF PET/MR

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Other Objects (12)

Imaging coronary plaques using 3D motion-compensated [18F]NaF PET/MR

Motion‐compensated fat‐water imaging for 3D cardiac MRI at ultra‐high fields

Velocity spectrum imaging using radial k-t SPIRiT

Real time phase encoded MR for assessment of acute variability of central pulse wave velocity

4D flow imaging with 2D spatially selective excitation

A dual-slice k-t approach for highly accelerated flow MRI

Deep supervised dictionary learning by algorithm unrolling—Application to fast 2D dynamic MR image reconstruction

P1.17 The Ventricle’s Prominent Role in Pressure Amplification; an Incremental Experimental Study

An end‐to‐end‐trainable iterative network architecture for accelerated radial multi‐coil 2D cine MR image reconstruction

Motion‐corrected model‐based reconstruction for 2D myocardial T1 mapping

Pilot tone–based prospective respiratory motion correction for cardiac MRI

Fully automated background phase correction using M‐estimate SAmple consensus (MSAC)—Application to 2D and 4D flow

Imaging coronary plaques using 3D motion-compensated [18F]NaF PET/MR

Motion‐compensated fat‐water imaging for 3D cardiac MRI at ultra‐high fields

Velocity spectrum imaging using radial k-t SPIRiT

Real time phase encoded MR for assessment of acute variability of central pulse wave velocity

4D flow imaging with 2D spatially selective excitation

A dual-slice k-t approach for highly accelerated flow MRI

Deep supervised dictionary learning by algorithm unrolling—Application to fast 2D dynamic MR image reconstruction

P1.17 The Ventricle’s Prominent Role in Pressure Amplification; an Incremental Experimental Study

An end‐to‐end‐trainable iterative network architecture for accelerated radial multi‐coil 2D cine MR image reconstruction

Motion‐corrected model‐based reconstruction for 2D myocardial T1 mapping

Pilot tone–based prospective respiratory motion correction for cardiac MRI

Fully automated background phase correction using M‐estimate SAmple consensus (MSAC)—Application to 2D and 4D flow

Imaging coronary plaques using 3D motion-compensated [18F]NaF PET/MR

Motion‐compensated fat‐water imaging for 3D cardiac MRI at ultra‐high fields

Velocity spectrum imaging using radial k-t SPIRiT

Real time phase encoded MR for assessment of acute variability of central pulse wave velocity

4D flow imaging with 2D spatially selective excitation

A dual-slice k-t approach for highly accelerated flow MRI

Deep supervised dictionary learning by algorithm unrolling—Application to fast 2D dynamic MR image reconstruction

P1.17 The Ventricle’s Prominent Role in Pressure Amplification; an Incremental Experimental Study

An end‐to‐end‐trainable iterative network architecture for accelerated radial multi‐coil 2D cine MR image reconstruction

Motion‐corrected model‐based reconstruction for 2D myocardial T1 mapping

Pilot tone–based prospective respiratory motion correction for cardiac MRI

Fully automated background phase correction using M‐estimate SAmple consensus (MSAC)—Application to 2D and 4D flow

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