Repeatability of ultrashort echo time‐based two‐component T2* measurements on cartilages in human knee at 3 T
Identifieur interne : 005D32 ( Main/Exploration ); précédent : 005D31; suivant : 005D33Repeatability of ultrashort echo time‐based two‐component T2* measurements on cartilages in human knee at 3 T
Auteurs : Yongxian Qian [États-Unis] ; Ashley A. Williams [États-Unis] ; Constance R. Chu [États-Unis] ; Fernando E. Boada [États-Unis]Source :
- Magnetic Resonance in Medicine [ 0740-3194 ] ; 2013-06.
Descripteurs français
- Wicri :
- topic : Scanner.
English descriptors
- KwdEn :
- Anterior articular, Arbitrary unit, Articular, Articular cartilage, Articular cartilages, Background noise, Better repeatability, Biexponential, Bydder, Cartilage, Cartilage regions, Collagen, Collagen fiber orientation, Collagen fibers, Collagen fibrils, Color figure, Component intensity, Component intensity fraction, Component intensity fractions, Consecutive days, Constant term, Curve fittings, Data points, Deep layer, Deep layers, Delay time, Different subjects, Echo times, Exponential, Exponential decay, Extracellular matrix, Femoral, Femoral cartilage, Fitting process, Free water, Free water molecules, Full thickness, Full thickness rois, Gaussian decay, Good repeatability, Grant sponsor, High repeatability, Human knee, Human subjects, Image intensity, Imaging, Imaging marker, Individual subject, Individual subjects, Individual voxels, Intensity fraction, Intersubject, Intersubject repeatability, Intrasubject, Intrasubject repeatability, Knee cartilage, Knee cartilages, Knee coil, Large mismatches, Lateral side, Logarithmic scale, Long component, Long components, Magic angle effect, Magn, Magn reson, Magn reson imaging, Magnetic resonance imaging, Magnitude images, Major contributor, Monoexponential, Monoexponential model, Monte carlo simulations, Nonexponential, Nonexponential decay, Online issue, Orientation angle, Other nonexponential, Patellar, Patellar cartilage, Pixel, Previous studies, Pulse repetition time, Qian, Radiofrequency excitation, Relaxation, Relaxation properties, Relaxation time, Relaxation times, Repeatability, Reson, Roi, Scanner, Session scans, Short component, Signal intensity, Single component, Single pixel, Slice location, Straight line, Study subjects, Superficial layers, Tibial cartilage, Total scan time, Ultrashort, Ultrashort echo time, Ultrashort echo time imaging, Visible motion, Vivo measurement, Vivo measurements, Water molecules, Wiley periodicals.
- Teeft :
- Anterior articular, Arbitrary unit, Articular, Articular cartilage, Articular cartilages, Background noise, Better repeatability, Biexponential, Bydder, Cartilage, Cartilage regions, Collagen, Collagen fiber orientation, Collagen fibers, Collagen fibrils, Color figure, Component intensity, Component intensity fraction, Component intensity fractions, Consecutive days, Constant term, Curve fittings, Data points, Deep layer, Deep layers, Delay time, Different subjects, Echo times, Exponential, Exponential decay, Extracellular matrix, Femoral, Femoral cartilage, Fitting process, Free water, Free water molecules, Full thickness, Full thickness rois, Gaussian decay, Good repeatability, Grant sponsor, High repeatability, Human knee, Human subjects, Image intensity, Imaging, Imaging marker, Individual subject, Individual subjects, Individual voxels, Intensity fraction, Intersubject, Intersubject repeatability, Intrasubject, Intrasubject repeatability, Knee cartilage, Knee cartilages, Knee coil, Large mismatches, Lateral side, Logarithmic scale, Long component, Long components, Magic angle effect, Magn, Magn reson, Magn reson imaging, Magnetic resonance imaging, Magnitude images, Major contributor, Monoexponential, Monoexponential model, Monte carlo simulations, Nonexponential, Nonexponential decay, Online issue, Orientation angle, Other nonexponential, Patellar, Patellar cartilage, Pixel, Previous studies, Pulse repetition time, Qian, Radiofrequency excitation, Relaxation, Relaxation properties, Relaxation time, Relaxation times, Repeatability, Reson, Roi, Scanner, Session scans, Short component, Signal intensity, Single component, Single pixel, Slice location, Straight line, Study subjects, Superficial layers, Tibial cartilage, Total scan time, Ultrashort, Ultrashort echo time, Ultrashort echo time imaging, Visible motion, Vivo measurement, Vivo measurements, Water molecules, Wiley periodicals.
Abstract
Repeatability of in vivo measurement of multicomponent T2* relaxation in articular cartialges in human knee is important to clinical use. This study evaluated the repeatability of two‐component T2* relaxation on seven healthy human subjects. The left knee was scanned once a day in three consecutive days, on a clinical 3T MRI scanner with eight‐channel knee coil and ultrashort echo time pulse sequence at 11 echo times = 0.6–40 ms. The intrasubject and intersubject repeatability was evaluated via coefficient of variation (CV = standard deviation/mean) in four typical cartilage regions: patellar, anterior articular, femoral, and tibial regions. It was found that the intrasubject repeatability was good, with CV < 10% for the short‐ and long‐T2* relaxation time in the layered regions in the four cartilages (with one exception) and CV < 13% for the component intensity fraction (with two exceptions). The intersubject repeatability was also good, with CV ∼8% (range 1–15%) for the short‐ and long‐T2* relaxation time and CV ∼10% (range 2–20%) for the component intensity fraction. The long‐T2* component showed significantly better repeatability (CV ∼8%) than the short‐T2* component (CV∼12%) (P < 0.005). These CV values suggest that in vivo measurement of two‐component T2* relaxation in the knee cartilages is repeatable on clinical scanner at 3 T, with a signal‐to‐noise ratio of 90. Magn Reson Med, 2013. © 2012 Wiley Periodicals, Inc.
Url:
DOI: 10.1002/mrm.24392
Affiliations:
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<term>Articular</term>
<term>Articular cartilage</term>
<term>Articular cartilages</term>
<term>Background noise</term>
<term>Better repeatability</term>
<term>Biexponential</term>
<term>Bydder</term>
<term>Cartilage</term>
<term>Cartilage regions</term>
<term>Collagen</term>
<term>Collagen fiber orientation</term>
<term>Collagen fibers</term>
<term>Collagen fibrils</term>
<term>Color figure</term>
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<term>Component intensity fraction</term>
<term>Component intensity fractions</term>
<term>Consecutive days</term>
<term>Constant term</term>
<term>Curve fittings</term>
<term>Data points</term>
<term>Deep layer</term>
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<term>Delay time</term>
<term>Different subjects</term>
<term>Echo times</term>
<term>Exponential</term>
<term>Exponential decay</term>
<term>Extracellular matrix</term>
<term>Femoral</term>
<term>Femoral cartilage</term>
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<term>Free water</term>
<term>Free water molecules</term>
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<term>Full thickness rois</term>
<term>Gaussian decay</term>
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<term>Grant sponsor</term>
<term>High repeatability</term>
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<term>Imaging marker</term>
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<term>Individual subjects</term>
<term>Individual voxels</term>
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<term>Intersubject repeatability</term>
<term>Intrasubject</term>
<term>Intrasubject repeatability</term>
<term>Knee cartilage</term>
<term>Knee cartilages</term>
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<term>Arbitrary unit</term>
<term>Articular</term>
<term>Articular cartilage</term>
<term>Articular cartilages</term>
<term>Background noise</term>
<term>Better repeatability</term>
<term>Biexponential</term>
<term>Bydder</term>
<term>Cartilage</term>
<term>Cartilage regions</term>
<term>Collagen</term>
<term>Collagen fiber orientation</term>
<term>Collagen fibers</term>
<term>Collagen fibrils</term>
<term>Color figure</term>
<term>Component intensity</term>
<term>Component intensity fraction</term>
<term>Component intensity fractions</term>
<term>Consecutive days</term>
<term>Constant term</term>
<term>Curve fittings</term>
<term>Data points</term>
<term>Deep layer</term>
<term>Deep layers</term>
<term>Delay time</term>
<term>Different subjects</term>
<term>Echo times</term>
<term>Exponential</term>
<term>Exponential decay</term>
<term>Extracellular matrix</term>
<term>Femoral</term>
<term>Femoral cartilage</term>
<term>Fitting process</term>
<term>Free water</term>
<term>Free water molecules</term>
<term>Full thickness</term>
<term>Full thickness rois</term>
<term>Gaussian decay</term>
<term>Good repeatability</term>
<term>Grant sponsor</term>
<term>High repeatability</term>
<term>Human knee</term>
<term>Human subjects</term>
<term>Image intensity</term>
<term>Imaging</term>
<term>Imaging marker</term>
<term>Individual subject</term>
<term>Individual subjects</term>
<term>Individual voxels</term>
<term>Intensity fraction</term>
<term>Intersubject</term>
<term>Intersubject repeatability</term>
<term>Intrasubject</term>
<term>Intrasubject repeatability</term>
<term>Knee cartilage</term>
<term>Knee cartilages</term>
<term>Knee coil</term>
<term>Large mismatches</term>
<term>Lateral side</term>
<term>Logarithmic scale</term>
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<term>Magn reson</term>
<term>Magn reson imaging</term>
<term>Magnetic resonance imaging</term>
<term>Magnitude images</term>
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<term>Monoexponential model</term>
<term>Monte carlo simulations</term>
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<term>Online issue</term>
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<term>Pixel</term>
<term>Previous studies</term>
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<term>Radiofrequency excitation</term>
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<term>Relaxation properties</term>
<term>Relaxation time</term>
<term>Relaxation times</term>
<term>Repeatability</term>
<term>Reson</term>
<term>Roi</term>
<term>Scanner</term>
<term>Session scans</term>
<term>Short component</term>
<term>Signal intensity</term>
<term>Single component</term>
<term>Single pixel</term>
<term>Slice location</term>
<term>Straight line</term>
<term>Study subjects</term>
<term>Superficial layers</term>
<term>Tibial cartilage</term>
<term>Total scan time</term>
<term>Ultrashort</term>
<term>Ultrashort echo time</term>
<term>Ultrashort echo time imaging</term>
<term>Visible motion</term>
<term>Vivo measurement</term>
<term>Vivo measurements</term>
<term>Water molecules</term>
<term>Wiley periodicals</term>
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<front><div type="abstract" xml:lang="en">Repeatability of in vivo measurement of multicomponent T2* relaxation in articular cartialges in human knee is important to clinical use. This study evaluated the repeatability of two‐component T2* relaxation on seven healthy human subjects. The left knee was scanned once a day in three consecutive days, on a clinical 3T MRI scanner with eight‐channel knee coil and ultrashort echo time pulse sequence at 11 echo times = 0.6–40 ms. The intrasubject and intersubject repeatability was evaluated via coefficient of variation (CV = standard deviation/mean) in four typical cartilage regions: patellar, anterior articular, femoral, and tibial regions. It was found that the intrasubject repeatability was good, with CV < 10% for the short‐ and long‐T2* relaxation time in the layered regions in the four cartilages (with one exception) and CV < 13% for the component intensity fraction (with two exceptions). The intersubject repeatability was also good, with CV ∼8% (range 1–15%) for the short‐ and long‐T2* relaxation time and CV ∼10% (range 2–20%) for the component intensity fraction. The long‐T2* component showed significantly better repeatability (CV ∼8%) than the short‐T2* component (CV∼12%) (P < 0.005). These CV values suggest that in vivo measurement of two‐component T2* relaxation in the knee cartilages is repeatable on clinical scanner at 3 T, with a signal‐to‐noise ratio of 90. Magn Reson Med, 2013. © 2012 Wiley Periodicals, Inc.</div>
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