Radiation detector including elongated elements
A detector includes a housing defining a cavity; a scintillator material disposed within the cavity and having a front face, a rear face, and a side face; a reflective material disposed between the housing and the side face of the scintillator material; and a tolerance ring disposed between the housing and the reflective material.
1. A detector comprising:
a housing defining a cavity;
a scintillator material disposed within the cavity and having a front face, a rear face, and a side face;
a reflective material disposed between the housing and the side face of the scintillator material; and
a tolerance ring disposed between the housing and the reflective material, the tolerance ring in substantially continuous contact along the length of the scintillator material and exerting a radial force along the side face of the scintillator material, wherein the tolerance ring has a spring rate per wave in a range of 500 lbs/in to 20,000 lbs/in.
2. The detector of claim 1 , further comprising a sleeve disposed between the housing and the tolerance ring.
3. The detector of claim 1 , wherein the tolerance ring has a diametral clearance in a range between 0.03 in and 0.190 in.
4. The detector of claim 1 , wherein the tolerance ring has a radial capacity in a range of 10 lbs to 5000 lbs.
5. The detector of claim 4 , wherein the radial capacity is in a range of 1000 lbs to 3000 lbs.
6. The detector of claim 1 , wherein the tolerance ring has a torque capacity in a range of 1 in-lbs to 3000 in-lbs.
7. The detector of claim 6 , wherein the torque capacity is in a range of 200 in-lbs to 3000 in-lbs.
8. The detector of claim 1 , further having a temperature rating of at least 205° C.
9. The detector of claim 1 , wherein the detector has a vibration rating of pass.
10. The detector of claim 1 , wherein the detector has a azimuthal attenuation performance of not greater than 0.5.
11. The detector of claim 1 , wherein the tolerance ring has a plurality between 8 and 64 of corrugated elements.
12. A method of forming a detector, the method comprising:
placing a reflective material over at least a portion of a side face of a scintillator material;
inserting the reflective material and the scintillator material into a tolerance ring having a plurality of corrugated elements, wherein the plurality of corrugated elements extend only away from the scintillator material and the tolerance ring being in substantially continuous contact along the length of the scintillator material, wherein the tolerance ring has a spring rate per wave in a range of 500 lbs/in to 20,000 lbs/in;
and inserting the tolerance ring into a housing.
13. The method of claim 12 , further comprising inserting the tolerance ring, reflective material and the scintillator material into a sleeve prior to inserting the sleeve into the housing.
14. The method of claim 12 , wherein the tolerance ring has a radial capacity in a range of 10 lbs to 5000 lbs.
15. The method of claim 12 , wherein the tolerance ring has a torque capacity in a range of 1 in-lbs to 3000 in-lbs.
16. The method of claim 12 , wherein the tolerance ring has a diametral clearance in a range 0.03 in to 0.190 in.
17. A detector comprising:
a housing defining a cavity;
a scintillator material disposed within the cavity and having a front face, a rear face, and a side face;
a reflective material disposed between the housing and the side face of the scintillator material; and
a tolerance ring disposed between the housing and the reflective material, the tolerance ring in substantially continuous contact along the length of the scintillator material and having a plurality of corrugated elements, wherein the tolerance ring has a spring rate per corrugated element in a range of 500 lbs/in to 20,000 lbs/in.