Systems and methods for developing a primary collimator
View Patent ↗A method for developing a multi-focus primary collimator is described. The method includes extending a first beam from a first source via a collimator block to a first detector and determining a size of the first beam.
1. A method for developing a multi-focus primary collimator, said method comprising:
creating a virtual system comprising a first source, a collimator block and a first detector;
extending a first beam in the virtual system from the first source via the collimator block to the first detector;
selecting a size of the first beam based on a configuration of the virtual system; and
displaying the virtual system to a user via a display device.
2. A method in accordance with claim 1 , wherein the virtual system further comprises a second detector, the method further comprising:
extending a second beam in the virtual system from the first source via the collimator block to the second detector; and
selecting a size of the second beam based on a configuration of the virtual system.
3. A method in accordance with claim 1 , wherein the virtual system further comprises a second source, the method further comprising establishing a width of the first beam based on a distance between the first source and the second source.
4. A method in accordance with claim 1 , wherein the virtual system further comprises a second source adjacent to the first source, the method further comprising establishing a width of the first beam based on a distance between the first source and the second source.
5. A method in accordance with claim 1 , wherein the virtual system further comprises a second source, the method further comprising establishing a width of the first beam based on a distance between the first source and the second source and based on a number of detectors in the virtual system including the first detector.
6. A method in accordance with claim 1 , wherein the virtual system further comprises a second source and a second detector, the method further comprising establishing a width of the first beam based on a distance between the first source and the second source and based on a number of detectors in the virtual system including the first detector and the second detector, wherein the first detector receives the first beam and the second detector receives a second beam from the first source.
7. A method in accordance with claim 1 , wherein the virtual system further comprises a gantry, and wherein the collimator block includes a primary collimator placed between the first source and an opening of the gantry.
8. A method in accordance with claim 1 further comprising developing a virtual collimator channel, within the collimator block, at a passage of the first beam via the collimator block.
9. A method in accordance with claim 1 , wherein the virtual system further comprises a second detector, the method further comprising:
extending a second beam from the first source via the collimator block to the second detector:
selecting a size of the second beam based on a configuration of the virtual system; and
developing a first virtual channel, within the collimator block, at a plurality of positions of a passage of the first beam via the collimator block; and
developing a second virtual channel, within the collimator block, at a plurality of positions of a passage of the second beam via the collimator block.
10. A processor configured to:
create a virtual system comprising a first source, a collimator block and a first detector;
extend a first beam from the first source via the collimator block to the first detector;
select a size of the first beam based on a configuration of the virtual system; and
present the virtual system to a user on a display device.
11. A processor in accordance with claim 10 , wherein the virtual system further comprises a second detector, the processor further configured to:
extend a second beam from the first source via the collimator block to the second detector; and
select a size of the second beam based on a configuration of the virtual system.
12. A processor in accordance with claim 10 , wherein the virtual system further comprises a second source, the processor further configured to establish a width of the first beam based on a distance between the first source and the second source.
13. A processor in accordance with claim 10 , wherein the virtual system further comprises a second source adjacent the first source, the processor further configured to establish a width of the first beam based on a distance between the first source and a second source.
14. A processor in accordance with claim 10 , wherein the virtual system further comprises a second source, the processor further configured to establish a width of the first beam based on a distance between the first source and the second source and based on a number of detectors in the virtual system including the first detector.
15. A processor in accordance with claim 10 , wherein the virtual system further comprises a second source and a second detector, the processor further configured to establish a width of the first beam based on a distance between the first source and the second source and based on a number of detectors in the virtual system including the first detector and the second detector, wherein the first detector receives the first beam and the second detector receives a second beam from the first source.
16. An imaging system comprising:
at least one actual source configured to generate energy;
at least one actual detector configured to detect a portion of the energy; and
a processor configured to:
create a virtual system embodying a relative placement of the at least one actual source and the at least one actual detector, the virtual system comprising a first source, a collimator block and a first detector;
extend a first beam from the first source via the collimator block to the first detector;
select a size of the first beam based on a configuration of the virtual system; and
present the virtual system to a user on a display device.
17. An imaging system in accordance with claim 16 , wherein the virtual system further comprises a second detector and wherein said processor is further configured to:
extend a second beam from the first source via the collimator block to the second detector; and
select a size of the second beam based on a configuration of the virtual system.
18. An imaging system in accordance with claim 17 further comprising an actual collimator block, wherein the size of the first beam is used to develop a first collimator channel in the actual collimator block and the size of the second beam is used to develop a second collimator channel in the actual collimator block.
19. An imaging system in accordance with claim 16 , wherein the virtual system further comprises a second source and wherein said processor is further configured to establish a width of the first beam based on a distance between the first source and the second source.
20. An imaging system in accordance with claim 16 , wherein the virtual system further comprises a second source adjacent to the first source and wherein said processor is further configured to establish a width of the first beam based on a distance between the first source and the second source.
21. An imaging system in accordance with claim 16 , wherein the virtual system further comprises a second source and wherein said processor is further configured to establish a width of the first beam based on a distance between the first source and the second source and based on a number of detectors in the virtual system including the first detector.
22. An imaging system in accordance with claim 16 further comprising an actual collimator block, wherein the size of the first beam is used to develop a first collimator channel in the actual collimator block.