‡Not licensed in accordance with Canadian law. Not available for sale in Canada. Not CE marked. Not available for sale in all regions.
‡Not licensed in accordance with Canadian law. Not available for sale in Canada. Not CE marked. Not available for sale in all regions.
Not licensed in accordance with Canadian law. Not available for sale in Canada. Not CE marked. Not available for sale in all regions.
‡Not licensed in accordance with Canadian law. Not available for sale in Canada. Not CE marked. Not available for sale in all regions.
‡Not licensed in accordance with Canadian law. Not available for sale in Canada. Not CE marked. Not available for sale in all regions.
A
Figure 2.
(A) Coronal T2w STIR PROPELLER MB; (B) Coronal LAVA; (C) Coronal DW-EPI, 2 stations; (D) whole-body DWI, radial MIP; (E) whole-body Coronal DWI radial MIP, 2 stations.
B
Figure 2.
(A) Coronal T2w STIR PROPELLER MB; (B) Coronal LAVA; (C) Coronal DW-EPI, 2 stations; (D) whole-body DWI, radial MIP; (E) whole-body Coronal DWI radial MIP, 2 stations.
C
Figure 2.
(A) Coronal T2w STIR PROPELLER MB; (B) Coronal LAVA; (C) Coronal DW-EPI, 2 stations; (D) whole-body DWI, radial MIP; (E) whole-body Coronal DWI radial MIP, 2 stations.
D
Figure 2.
(A) Coronal T2w STIR PROPELLER MB; (B) Coronal LAVA; (C) Coronal DW-EPI, 2 stations; (D) whole-body DWI, radial MIP; (E) whole-body Coronal DWI radial MIP, 2 stations.
E
Figure 2.
(A) Coronal T2w STIR PROPELLER MB; (B) Coronal LAVA; (C) Coronal DW-EPI, 2 stations; (D) whole-body DWI, radial MIP; (E) whole-body Coronal DWI radial MIP, 2 stations.
A
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
B
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
C
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
D
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
E
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
F
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
A
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
D
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
B
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
E
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
C
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
F
Figure 1.
With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
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CASE STUDIES

Diffusion imaging with AIR Technology Suite

Submitted by Kawasaki Saiwai Hospital


CASE STUDIES

Diffusion imaging with AIR Technology Suite

Submitted by Kawasaki Saiwai Hospital
Case 1
A 59-year-old female with loss of consciousness. Prior history includes gall bladder stone and cholecystitis.
MR findings
Patient has multiple infarction. Micro infarction was not clearly visualized in conventional DWI sequence. However, MUSE enabled high-resolution DWI that enabled depiction of micro infarction in the gray matter.
CS-AIR_CS_Figure_1_text.jpg
Figure 1. With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
Case 2
A 46-year-old male presenting with fever of unknown origin and suspected infection after aortic stent replacement surgery.
MR findings
T2 SSFSE and T2 STIR PROPELLER MB confirmed abscess formation in the left upper lung lobe without having to reposition the coil. High signal DWI confirmed location. Whole-body Coronal DWI was acquired in two stations. The AIR Technology™‡ Anterior Array (AA) allows higher parallel imaging factors, enabling low-distortion DWI even in cases with a large field-of-view.
CS-AIR_CS_Figure_2_Image_A.jpg
A
CS-AIR_CS_Figure_2_Image_B.jpg
B
CS-AIR_CS_Figure_2_text.jpg
CS-AIR_CS_Figure_2_Image_C.jpg
C
CS-AIR_CS_Figure_2_Image_D.jpg
D
CS-AIR_CS_Figure_2_Image_E.jpg
E
Figure 2. (A) Coronal T2w STIR PROPELLER MB; (B) Coronal LAVA; (C) Coronal DW-EPI, 2 stations; (D) whole-body DWI, radial MIP; (E) whole-body Coronal DWI radial MIP, 2 stations.
Figure 1. With the improvement in resolution using MUSE, there is clear depiction of the infarct in the gray matter compared to the conventional sequence. (A-C) Conventional DWI, b1000; (D-F) MUSE, b1000.
Case 2
A 46-year-old male presenting with fever of unknown origin and suspected infection after aortic stent replacement surgery.
MR findings
T2 SSFSE and T2 STIR PROPELLER MB confirmed abscess formation in the left upper lung lobe without having to reposition the coil. High signal DWI confirmed location. Whole-body Coronal DWI was acquired in two stations. The AIR Technology™‡ Anterior Array (AA) allows higher parallel imaging factors, enabling low-distortion DWI even in cases with a large field-of-view.
END_MARK_Case_Studies.png
Case 1
A 59-year-old female with loss of consciousness. Prior history includes gall bladder stone and cholecystitis.
MR findings
Patient has multiple infarction. Micro infarction was not clearly visualized in conventional DWI sequence. However, MUSE enabled high-resolution DWI that enabled depiction of micro infarction in the gray matter.