Sentence examples for saturation image from inspiring English sources
Sagittal proton density with fat saturation image shows joint effusion with loose bodies in the suprapatellar pouch and in the infra-hoffatic recess (wide arrows).
MRI proton density with fat saturation image, after direct trauma, shows HFP fragmentation (arrows) Open image in new window Fig. 7 Superolateral HFP impingement.
Sagittal proton density with fat saturation image shows ACL tear with residual femoral stump (arrow), joint effusion (wide arrows) and oedematous HFP Open image in new window Fig. 14 Patellar tendinopathy after autograft.
Sagittal proton density with fat saturation image shows tendinopathy of patellar tendon (arrows) with increased signal intensity and increased anteroposterior diameter of the tendon, and oedema of the HFP Open image in new window Fig. 15 Osgood Schlatter disease.
Sagittal T1w image (a) post-arthroscopy shows scarring in the HFP (arrows) that is oedematous and hypervascularised (arrows) on proton density with fat saturation image (b) Open image in new window Fig. 10 Cyclops lesion.
Sagittal proton density with fat saturation image shows enlarged and oedematous patellar tendon insertion (arrow), bone marrow oedema of the tibial tuberosity and HFP oedema Open image in new window Fig. 16 Meniscal cyst.
3-D saturation images were reconstructed to observe matrix fracture interactions.
The rock matrix image data was used as input to a fluid transport simulator and the results compared with the end point saturation images and data.
The luminance image retains the luminance closest to that of the original image (trees and the grass region) which is less so for the contrast and saturation images.
MRI proton density with fat saturation images demonstrates an enlarged, oedematous HFP Open image in new window Fig. 9 Post-arthroscopic fibrosis.
Recently, computed microtomographic endpoint saturation images of a fluid filled sandstone core sample were obtained using a microtomographic apparatus and a high energy X-ray beam produced by a superconducting wiggler at the National Synchrotron Light Source at Brookhaven National Laboratory.
