A laminar flow model for 3D time-of-flight MR angiography

A theoretical flow model for laminar flow has been developed by Chen and Hedges (1997). A theoretical flow model for plug flow previously developed by using the Bloch equation was used by Parker et al. (1991) in their paper about MOTSA technique. Both models assume constant flow through a tube of co...

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Published inProceedings of the 22nd Annual International Conference of the IEEE Engineering in Medicine and Biology Society (Cat. No.00CH37143) Vol. 3; pp. 2167 - 2170 vol.3
Main Authors Chen, D., Hedges, L.K., Yu, C.X.
Format Conference Proceeding
LanguageEnglish
Published IEEE 2000
Subjects
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ISBN9780780364653
0780364651
ISSN1094-687X
DOI10.1109/IEMBS.2000.900560

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Abstract A theoretical flow model for laminar flow has been developed by Chen and Hedges (1997). A theoretical flow model for plug flow previously developed by using the Bloch equation was used by Parker et al. (1991) in their paper about MOTSA technique. Both models assume constant flow through a tube of constant circular cross section. However, the plug flow model is used to simulate the signal from the center portion of the flow, which has almost unique flow velocity; while the laminar flow model is used to simulate the average signal from the whole cross section, which has a distribution of flow velocities. For detection of small vessels of width close to the voxel width, the laminar model is more appropriate. Phantom and human subject studies validate the use of laminar flow model for cross-sectional average signal for small vessels.
AbstractList A theoretical flow model for laminar flow has been developed by Chen and Hedges (1997). A theoretical flow model for plug flow previously developed by using the Bloch equation was used by Parker et al. (1991) in their paper about MOTSA technique. Both models assume constant flow through a tube of constant circular cross section. However, the plug flow model is used to simulate the signal from the center portion of the flow, which has almost unique flow velocity; while the laminar flow model is used to simulate the average signal from the whole cross section, which has a distribution of flow velocities. For detection of small vessels of width close to the voxel width, the laminar model is more appropriate. Phantom and human subject studies validate the use of laminar flow model for cross-sectional average signal for small vessels.
Author Yu, C.X.
Chen, D.
Hedges, L.K.
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Snippet A theoretical flow model for laminar flow has been developed by Chen and Hedges (1997). A theoretical flow model for plug flow previously developed by using...
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StartPage 2167
SubjectTerms Angiography
Blood
Computer simulation
Equations
Humans
Imaging phantoms
Instruments
Paramagnetic materials
Plugs
Slabs
Title A laminar flow model for 3D time-of-flight MR angiography
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