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lightweight magnetic resonance imaging distortion in 3d phantom mrid 3d  (Modus Medical Devices Inc)

 
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    Structured Review

    Modus Medical Devices Inc lightweight magnetic resonance imaging distortion in 3d phantom mrid 3d
    (a) The sagittal view of the MRID <t>3D</t> phantom with the onboard <t>distortion</t> correction turned (i) Off (DstOff) and (ii) On (DstOn) and (b) the axial view of the Fluke phantom with (i) DstOff and (ii) DstOn. In the Fluke phantom, the circular dots indicate the distortion analysis regions for the phantom and the blue and orange arrows indicate the 175 and 100 mm radius analysis regions, respectively.
    Lightweight Magnetic Resonance Imaging Distortion In 3d Phantom Mrid 3d, supplied by Modus Medical Devices Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/lightweight+magnetic+resonance+imaging+distortion+in+3d+phantom+mrid+3d/quasar+mri4d+phantom/pmc09903949-98-6-25
    Average 90 stars, based on 1 article reviews
    lightweight magnetic resonance imaging distortion in 3d phantom mrid 3d - by Bioz Stars, 2026-10
    90/100 stars

    Images

    1) Product Images from "System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction"

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction

    Journal: Journal of Applied Clinical Medical Physics

    doi: 10.1002/acm2.13826

    (a) The sagittal view of the MRID 3D phantom with the onboard distortion correction turned (i) Off (DstOff) and (ii) On (DstOn) and (b) the axial view of the Fluke phantom with (i) DstOff and (ii) DstOn. In the Fluke phantom, the circular dots indicate the distortion analysis regions for the phantom and the blue and orange arrows indicate the 175 and 100 mm radius analysis regions, respectively.
    Figure Legend Snippet: (a) The sagittal view of the MRID 3D phantom with the onboard distortion correction turned (i) Off (DstOff) and (ii) On (DstOn) and (b) the axial view of the Fluke phantom with (i) DstOff and (ii) DstOn. In the Fluke phantom, the circular dots indicate the distortion analysis regions for the phantom and the blue and orange arrows indicate the 175 and 100 mm radius analysis regions, respectively.

    Techniques Used:

    MRID 3D phantom images mean and the maximum (Max) geometric distortion error for DstOff original and resampled images at all gantry angles
    Figure Legend Snippet: MRID 3D phantom images mean and the maximum (Max) geometric distortion error for DstOff original and resampled images at all gantry angles

    Techniques Used:

    MRID 3D phantom images mean and the maximum geometric distortion error for DstOn original and resampled images at all gantry angles
    Figure Legend Snippet: MRID 3D phantom images mean and the maximum geometric distortion error for DstOn original and resampled images at all gantry angles

    Techniques Used:

    Mean distortion using MRID 3D phantom. The mean distortion values of the original and resampled images on the right–left (RL), anterior–posterior (AP), and superior–inferior (SI) directions across all gantry angles. Plots show the values of (a) distortion correction off (DstOff) with distortion correction off resampled (DstOff (R)) and (b) distortion correction on (DstOn) with distortion correction on resampled (DstOn(R)).
    Figure Legend Snippet: Mean distortion using MRID 3D phantom. The mean distortion values of the original and resampled images on the right–left (RL), anterior–posterior (AP), and superior–inferior (SI) directions across all gantry angles. Plots show the values of (a) distortion correction off (DstOff) with distortion correction off resampled (DstOff (R)) and (b) distortion correction on (DstOn) with distortion correction on resampled (DstOn(R)).

    Techniques Used:

    Isocenter shift using MRID 3D phantom. The MRI isocenter distance to agreement (DTA) original and resampled for the (a) right–left (RL), (b) anterior–posterior (AP), and (c) superior–inferior (SI) directions across all gantry angles. Each plot includes the value for the distortion correction turned on (DstOn) and off (DstOff) for original images and DstOn(R), DstOff(R) for resampled images.
    Figure Legend Snippet: Isocenter shift using MRID 3D phantom. The MRI isocenter distance to agreement (DTA) original and resampled for the (a) right–left (RL), (b) anterior–posterior (AP), and (c) superior–inferior (SI) directions across all gantry angles. Each plot includes the value for the distortion correction turned on (DstOn) and off (DstOff) for original images and DstOn(R), DstOff(R) for resampled images.

    Techniques Used:

    The axial view of the human chest MR image acquired at gantry 300° showing the original image and resampled image using the extended DVF generated from the MRID 3D phantom. The images are shown with the onboard Siemens distortion correction function turned on (DstOn) and turned off (DstOff). The dotted blue square box indicates the overlayed original and resampled images. In the overlay images, the primary image (DstOn) upper color is shown in white, and the secondary image (DstOff) upper color is shown in light brown.
    Figure Legend Snippet: The axial view of the human chest MR image acquired at gantry 300° showing the original image and resampled image using the extended DVF generated from the MRID 3D phantom. The images are shown with the onboard Siemens distortion correction function turned on (DstOn) and turned off (DstOff). The dotted blue square box indicates the overlayed original and resampled images. In the overlay images, the primary image (DstOn) upper color is shown in white, and the secondary image (DstOff) upper color is shown in light brown.

    Techniques Used: Generated

    Related Articles

    Magnetic Resonance Imaging:

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction
    Article Snippet: .. Recently, Lewis et al. used the lightweight magnetic resonance imaging distortion in 3D (MRID 3D ) phantom, and phantom‐dependent geometric distortion analysis software produced by Modus Medical Devices Inc. (Modus QA) to study the imaging distortion and isocenter shifts for multiple gantry angles and to generate distortion vector fields (DVFs) for the correction of the system‐dependent image distortion. ..

    Software:

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction
    Article Snippet: .. Recently, Lewis et al. used the lightweight magnetic resonance imaging distortion in 3D (MRID 3D ) phantom, and phantom‐dependent geometric distortion analysis software produced by Modus Medical Devices Inc. (Modus QA) to study the imaging distortion and isocenter shifts for multiple gantry angles and to generate distortion vector fields (DVFs) for the correction of the system‐dependent image distortion. ..

    Produced:

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction
    Article Snippet: .. Recently, Lewis et al. used the lightweight magnetic resonance imaging distortion in 3D (MRID 3D ) phantom, and phantom‐dependent geometric distortion analysis software produced by Modus Medical Devices Inc. (Modus QA) to study the imaging distortion and isocenter shifts for multiple gantry angles and to generate distortion vector fields (DVFs) for the correction of the system‐dependent image distortion. ..

    Imaging:

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction
    Article Snippet: .. Recently, Lewis et al. used the lightweight magnetic resonance imaging distortion in 3D (MRID 3D ) phantom, and phantom‐dependent geometric distortion analysis software produced by Modus Medical Devices Inc. (Modus QA) to study the imaging distortion and isocenter shifts for multiple gantry angles and to generate distortion vector fields (DVFs) for the correction of the system‐dependent image distortion. ..

    Plasmid Preparation:

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction
    Article Snippet: .. Recently, Lewis et al. used the lightweight magnetic resonance imaging distortion in 3D (MRID 3D ) phantom, and phantom‐dependent geometric distortion analysis software produced by Modus Medical Devices Inc. (Modus QA) to study the imaging distortion and isocenter shifts for multiple gantry angles and to generate distortion vector fields (DVFs) for the correction of the system‐dependent image distortion. ..



    Similar Products

    lightweight magnetic resonance imaging distortion in 3d phantom mrid 3d  (Modus Medical Devices Inc)
    90
    Modus Medical Devices Inc lightweight magnetic resonance imaging distortion in 3d phantom mrid 3d
    (a) The sagittal view of the MRID <t>3D</t> phantom with the onboard <t>distortion</t> correction turned (i) Off (DstOff) and (ii) On (DstOn) and (b) the axial view of the Fluke phantom with (i) DstOff and (ii) DstOn. In the Fluke phantom, the circular dots indicate the distortion analysis regions for the phantom and the blue and orange arrows indicate the 175 and 100 mm radius analysis regions, respectively.
    Lightweight Magnetic Resonance Imaging Distortion In 3d Phantom Mrid 3d, supplied by Modus Medical Devices Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/lightweight+magnetic+resonance+imaging+distortion+in+3d+phantom+mrid+3d/quasar+mri4d+phantom/pmc09903949-98-6-25
    Average 90 stars, based on 1 article reviews
    lightweight magnetic resonance imaging distortion in 3d phantom mrid 3d - by Bioz Stars, 2026-10
    90/100 stars
    		  Buy from Supplier

    Image Search Results


    (a) The sagittal view of the MRID 3D phantom with the onboard distortion correction turned (i) Off (DstOff) and (ii) On (DstOn) and (b) the axial view of the Fluke phantom with (i) DstOff and (ii) DstOn. In the Fluke phantom, the circular dots indicate the distortion analysis regions for the phantom and the blue and orange arrows indicate the 175 and 100 mm radius analysis regions, respectively.

    Journal: Journal of Applied Clinical Medical Physics

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction

    doi: 10.1002/acm2.13826

    Figure Lengend Snippet: (a) The sagittal view of the MRID 3D phantom with the onboard distortion correction turned (i) Off (DstOff) and (ii) On (DstOn) and (b) the axial view of the Fluke phantom with (i) DstOff and (ii) DstOn. In the Fluke phantom, the circular dots indicate the distortion analysis regions for the phantom and the blue and orange arrows indicate the 175 and 100 mm radius analysis regions, respectively.

    Article Snippet: Recently, Lewis et al. used the lightweight magnetic resonance imaging distortion in 3D (MRID 3D ) phantom, and phantom‐dependent geometric distortion analysis software produced by Modus Medical Devices Inc. (Modus QA) to study the imaging distortion and isocenter shifts for multiple gantry angles and to generate distortion vector fields (DVFs) for the correction of the system‐dependent image distortion.

    Techniques:

    MRID 3D phantom images mean and the maximum (Max) geometric distortion error for DstOff original and resampled images at all gantry angles

    Journal: Journal of Applied Clinical Medical Physics

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction

    doi: 10.1002/acm2.13826

    Figure Lengend Snippet: MRID 3D phantom images mean and the maximum (Max) geometric distortion error for DstOff original and resampled images at all gantry angles

    Article Snippet: Recently, Lewis et al. used the lightweight magnetic resonance imaging distortion in 3D (MRID 3D ) phantom, and phantom‐dependent geometric distortion analysis software produced by Modus Medical Devices Inc. (Modus QA) to study the imaging distortion and isocenter shifts for multiple gantry angles and to generate distortion vector fields (DVFs) for the correction of the system‐dependent image distortion.

    Techniques:

    MRID 3D phantom images mean and the maximum geometric distortion error for DstOn original and resampled images at all gantry angles

    Journal: Journal of Applied Clinical Medical Physics

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction

    doi: 10.1002/acm2.13826

    Figure Lengend Snippet: MRID 3D phantom images mean and the maximum geometric distortion error for DstOn original and resampled images at all gantry angles

    Article Snippet: Recently, Lewis et al. used the lightweight magnetic resonance imaging distortion in 3D (MRID 3D ) phantom, and phantom‐dependent geometric distortion analysis software produced by Modus Medical Devices Inc. (Modus QA) to study the imaging distortion and isocenter shifts for multiple gantry angles and to generate distortion vector fields (DVFs) for the correction of the system‐dependent image distortion.

    Techniques:

    Mean distortion using MRID 3D phantom. The mean distortion values of the original and resampled images on the right–left (RL), anterior–posterior (AP), and superior–inferior (SI) directions across all gantry angles. Plots show the values of (a) distortion correction off (DstOff) with distortion correction off resampled (DstOff (R)) and (b) distortion correction on (DstOn) with distortion correction on resampled (DstOn(R)).

    Journal: Journal of Applied Clinical Medical Physics

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction

    doi: 10.1002/acm2.13826

    Figure Lengend Snippet: Mean distortion using MRID 3D phantom. The mean distortion values of the original and resampled images on the right–left (RL), anterior–posterior (AP), and superior–inferior (SI) directions across all gantry angles. Plots show the values of (a) distortion correction off (DstOff) with distortion correction off resampled (DstOff (R)) and (b) distortion correction on (DstOn) with distortion correction on resampled (DstOn(R)).

    Article Snippet: Recently, Lewis et al. used the lightweight magnetic resonance imaging distortion in 3D (MRID 3D ) phantom, and phantom‐dependent geometric distortion analysis software produced by Modus Medical Devices Inc. (Modus QA) to study the imaging distortion and isocenter shifts for multiple gantry angles and to generate distortion vector fields (DVFs) for the correction of the system‐dependent image distortion.

    Techniques:

    Isocenter shift using MRID 3D phantom. The MRI isocenter distance to agreement (DTA) original and resampled for the (a) right–left (RL), (b) anterior–posterior (AP), and (c) superior–inferior (SI) directions across all gantry angles. Each plot includes the value for the distortion correction turned on (DstOn) and off (DstOff) for original images and DstOn(R), DstOff(R) for resampled images.

    Journal: Journal of Applied Clinical Medical Physics

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction

    doi: 10.1002/acm2.13826

    Figure Lengend Snippet: Isocenter shift using MRID 3D phantom. The MRI isocenter distance to agreement (DTA) original and resampled for the (a) right–left (RL), (b) anterior–posterior (AP), and (c) superior–inferior (SI) directions across all gantry angles. Each plot includes the value for the distortion correction turned on (DstOn) and off (DstOff) for original images and DstOn(R), DstOff(R) for resampled images.

    Article Snippet: Recently, Lewis et al. used the lightweight magnetic resonance imaging distortion in 3D (MRID 3D ) phantom, and phantom‐dependent geometric distortion analysis software produced by Modus Medical Devices Inc. (Modus QA) to study the imaging distortion and isocenter shifts for multiple gantry angles and to generate distortion vector fields (DVFs) for the correction of the system‐dependent image distortion.

    Techniques:

    The axial view of the human chest MR image acquired at gantry 300° showing the original image and resampled image using the extended DVF generated from the MRID 3D phantom. The images are shown with the onboard Siemens distortion correction function turned on (DstOn) and turned off (DstOff). The dotted blue square box indicates the overlayed original and resampled images. In the overlay images, the primary image (DstOn) upper color is shown in white, and the secondary image (DstOff) upper color is shown in light brown.

    Journal: Journal of Applied Clinical Medical Physics

    Article Title: System‐dependent image distortion related to gantry positions of a 0.35 T MRgRT: Characterization and the corresponding correction

    doi: 10.1002/acm2.13826

    Figure Lengend Snippet: The axial view of the human chest MR image acquired at gantry 300° showing the original image and resampled image using the extended DVF generated from the MRID 3D phantom. The images are shown with the onboard Siemens distortion correction function turned on (DstOn) and turned off (DstOff). The dotted blue square box indicates the overlayed original and resampled images. In the overlay images, the primary image (DstOn) upper color is shown in white, and the secondary image (DstOff) upper color is shown in light brown.

    Article Snippet: Recently, Lewis et al. used the lightweight magnetic resonance imaging distortion in 3D (MRID 3D ) phantom, and phantom‐dependent geometric distortion analysis software produced by Modus Medical Devices Inc. (Modus QA) to study the imaging distortion and isocenter shifts for multiple gantry angles and to generate distortion vector fields (DVFs) for the correction of the system‐dependent image distortion.

    Techniques: Generated