Scintillator array and methods of forming a scintillator array and a radiation detector
Embodiments of the present disclosure relate to a scintillator array including a reflector disposed between the scintillator pixels, and methods of forming the scintillator array and radiation detector. In an embodiment, the reflector can be used in the scintillator array without an adhesive. In another embodiment, the reflector can be disposed in a zigzag pattern between the scintillator pixels.
1. A scintillator array, comprising:
a plurality of scintillator pixels; and
a reflector,
wherein the reflector is in form of a tape and disposed between the scintillator pixels in a zigzag pattern.
2. The scintillator array of claim 1 , wherein the reflector comprises a diffuse reflective material.
3. The scintillator array of claim 1 , wherein the reflector extends continuously between at least some of the scintillator pixels in different columns and in different rows.
4. The scintillator array of claim 1 , wherein the reflector comprises a fluoropolymer or a polyester.
5. The scintillator array of claim 4 , wherein the reflector includes PTFE.
6. The scintillator array of claim 1 , wherein the reflector comprises a specular reflective material.
7. The scintillator array of claim 1 , wherein the reflector comprises a diffuse reflective material and a specular reflective material.
8. The scintillator array of claim 1 , wherein the scintillator array comprises a housing including internal square corners and configured to secure the scintillator array and the reflector.
9. The scintillator array of claim 8 , wherein the housing includes aluminum, stainless steel, or a carbon fiber.
10. The scintillator array of claim 9 , wherein the housing comprises a low density carbon fiber.
11. A scintillator array, comprising:
a plurality of scintillator pixels arranged in rows and columns; and
a reflector,
wherein:
the reflector extends continuously between at least some of the scintillator pixels in different columns and in different rows; and
each of the scintillator pixels along a perimeter of the array has an outer side surface, wherein every other outer side surface along the perimeter of the array is covered by the reflector.
12. The scintillator array of claim 11 , wherein the reflector is disposed between the scintillator pixels in a zigzag pattern.
13. The scintillator array of claim 11 , wherein the scintillator array comprises a housing including internal square corners and configured to secure the scintillator array and the reflector.
14. The scintillator array of claim 11 , wherein the reflector comprises a diffuse reflective material.
15. A method of forming a scintillator array, comprising:
placing a first set of scintillator pixels in a fixture along a first diagonal line;
disposing a reflector along side surfaces of the first set of scintillator pixels; and
placing a second set of scintillator pixels in the fixture along a second diagonal line after disposing the first reflector, wherein the first reflector is disposed between and optically isolate the first set of scintillator pixels from the second set of scintillator pixels.
16. The method of claim 15 , wherein disposing the reflector between the scintillator pixels comprises placing the reflector along the diagonal line and adjacent to the scintillator pixels.
17. The method of any one of claims 15 , wherein disposing the reflector comprises, along a perimeter of the scintillator array, placing the reflector around an outer side surface of every other scintillator pixel.
18. The method of any one of claims 15 , further comprising securing the scintillator array in a housing.
19. The method of claim 15 , wherein the reflector is disposed between the scintillator pixels in a zigzag pattern.
20. The method of claim 15 , wherein the reflector comprises a diffuse reflective material.