.By simultaneously  
acquiring data at two different energy levels, DSCT enables spectral

3.2.3 Material Decomposition: 
DSCT allows for energy-selective imaging, wherein specific energy ranges  
are chosen to optimize image contrast for different diagnostic tasks.3.2 The Principal Physics of DSCT: 
3.2.1 Dual-Source CT Configuration: 
Dual-source computed tomography (DSCT) employs two X-ray tubes and  
detector arrays positioned at right  
angles to each other within the  
gantry.This enhanced temporal  
resolution is particularly advantageous for imaging moving structures,  
such as the heart or coronary arteries, allowing for more accurate  
assessment of cardiac function and dynamic processes(23) 
.Radiologists analyze these images to identify  
abnormalities, assess disease severity, and guide patient management  
decisions(17) 
.12

3.1.6 Radiation Dose Considerations: 
One important aspect of CT imaging is the consideration of radiation dose.These images typically consist of grayscale representations  
of tissue density, with brighter regions corresponding to areas of higher X- 
ray attenuation.Various  
techniques, such as tube current modulation, dose modulation algorithms,  
and iterative reconstruction, are employed to optimize image quality while  
minimizing radiation dose to the patient(18) 
.3.1.5 Image Display and Interpretation: 
The reconstructed CT images are displayed on a computer monitor, where  
they can be viewed and interpreted by radiologists or other healthcare  
professionals.The X-ray tubes are typically  
operated at different kilovoltage  
(kV) settings, such as 80 kV and 140  
kV, to generate X-ray beams with  
distinct spectral properties(19) 
.