Adrian_Sampath_Overseas_Case Study_Jan_2017
A case study following the diagnostic imaging for a bicep rupture.
A case study following the diagnostic imaging for a bicep rupture.
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MRI Scan of Client<br />
<strong>Adrian</strong> <strong>Sampath</strong><br />
00040384<br />
The scan began at 9:07am and was successfully completed at 9:45am which was 38mins.<br />
The client had no issue during the scan and remained still, thus producing high quality<br />
diagnostic MR images. Movement would have decreased the sharpness of the images in the<br />
form of blurring. During the scan time, the client was encouraged and coached through the<br />
mic system to remain still as possible. The following pulse sequences was defined by (MRI<br />
MASTER, <strong>2017</strong>) and were the scans done on the client:<br />
1. Localizer.<br />
A scout image to set all parameters for the upcoming scans.<br />
2. Proton Density Fat Saturation Transverse.<br />
Shows tissues with the higher concentration or density of protons (hydrogen atoms) which<br />
produce the strongest signals and appear the brightest on the image.<br />
3. T1 Sagittal.<br />
T1 pulse sequence shows different density differently. Muscle tissue shows up grey, whereas<br />
air shows up black.<br />
4. T2 Fat Saturation Sagittal.<br />
This pulse sequence shows adipose tissues dark on T2 weighted fat saturated images.<br />
5. Proton Density Fat Saturation Coronal.<br />
Same concept as number 2, only difference is the coronal view.<br />
6. T1 Turbo Inversion Recovery Magnitude (TRIM) Coronal.<br />
This pulse sequence nulls signals from fat.<br />
7. Proton Density Dixon Fat Saturation Transverse.<br />
This sequence essentially interacts with the water and fat molecules which is good for imaging<br />
the muscle tissue.<br />
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