Integrated backscatter X-ray system
The different advantageous embodiments provide a method and apparatus. The apparatus comprises a moveable platform, a housing connected to the moveable platform, a power supply located inside of the housing, and an x-ray tube located inside of the housing. The power supply and the x-ray tube are immersed in a coolant. The x-ray tube is configured to generate an x-ray beam.
1. An apparatus comprising:
a moveable platform;
a housing connected to the moveable platform;
a liquid coolant present inside of the housing;
a power supply located inside of the housing and immersed in a liquid coolant; and
an x-ray tube located inside of the housing and immersed in the liquid coolant, the x-ray tube configured such that in operation the x-ray tube generates an x-ray beam, wherein the x-ray beam is a first x-ray beam that passes through a first window and wherein the x-ray tube is configured to generate a second x-ray beam that passes through a second window in which the first x-ray beam travels towards a first location on a surface of an object and the second x-ray beam travels towards a second location on the surface of the object, further comprising: a rotatable wheel having a number of apertures, wherein the rotatable wheel is connected to the moveable platform and is configured to rotate while the x-ray tube generates an x-ray beam such that the number of apertures allows at least a portion of the x-ray beam to pass through the rotatable wheel, wherein the at least the portion of the x-ray beam passes through an aperture in the number of apertures as a collimated x-ray beam that travels towards a location on a surface of an object and wherein a portion of x-rays in the collimated x-ray beam is reflected off of the surface of the object.
2. The apparatus of claim 1 further comprising:
a detector configured to detect a backscatter in response to at least a portion of the x-ray beam encountering an object.
3. The apparatus of claim 2 , wherein the moveable platform is configured to move while the rotatable wheel rotates and the x-ray beam is being generated.
4. The apparatus of claim 3 , wherein the rotatable wheel is configured to rotate about an axis in which the moveable platform moves in a direction along the axis such that a number of images is generated in a grid-type pattern using the backscatter detected in response to at least a portion of the x-ray beam encountering the object.
5. The apparatus of claim 1 , wherein the x-ray tube comprises:
a vacuum tube;
a cathode located in the vacuum tube and configured to emit electrons; and
a rotatable anode located in the vacuum tube and configured to be rotated by a motor located outside of the vacuum tube and is configured to generate x-rays in response to receiving the electrons emitted by the cathode.
6. The apparatus of claim 1 , wherein the object is a fuselage and the first location and the second location are inside the fuselage and wherein the first location is substantially opposite to the second location inside the fuselage.
7. The apparatus of claim 1 further comprising:
a camera system configured to generate a number of images of an area around the housing and the moveable platform for use in moving the moveable platform in a number of directions.
8. The apparatus of claim 7 , wherein the camera system is configured to generate the number of images using a backscatter detected in response to at least a portion of the x-ray beam encountering a surface of an object.
9. The apparatus of claim 8 , wherein the number of images is processed to determine whether a number of inconsistencies is present on the surface of the object.
10. A method for inspecting an object, the method comprising:
positioning a moveable platform within a distance of the object to be inspected;
generating an x-ray beam using an x-ray tube, wherein the x-ray tube and a power supply are located inside of a housing connected to a moveable platform, wherein the x-ray tube and the power supply are immersed within a liquid coolant within the housing, and wherein the x-ray beam travels the distance to the object;
detecting a backscatter in response to at least a portion of the x-ray beam encountering the object, wherein the backscatter comprises x-rays in the at least the portion of the x-ray beam that are reflected off of a surface of the object; and
generating a number of images using the backscatter for use in determining whether a number of inconsistencies is present on the surface of the object, wherein the x-ray beam is a first x-ray beam that passes through a first window and wherein the x-ray tube is configured to generate a second x-ray beam that passes through a second window in which the first x-ray beam travels towards a first location on a surface of an object and the second x-ray beam travels towards a second location on the surface of the object.
11. The method of claim 10 , wherein the step of generating the x-ray beam using the x-ray tube comprises:
emitting electrons using a cathode located in a vacuum tube; and
rotating a rotatable anode in the vacuum tube, wherein the rotatable anode generates x-rays in response to receiving the electrons emitted by the cathode.
12. The method of claim 11 , wherein the step of rotating the rotatable anode in the vacuum tube comprises:
rotating the rotatable anode about an axis in which the moveable platform moves in a direction along the axis such that a number of images is generated for the object in a grid-type pattern.
13. The method of claim 10 further comprising: moving the moveable platform while the x-ray beam is being generated.
14. The method of claim 13 ,
generating a number of images of an area around the housing and the moveable platform using a camera system.
15. The method of claim 10 , wherein the x-ray beam is a first x-ray beam, and further comprising:
generating a second x-ray beam using the x-ray tube.
16. The method of claim 10 further comprising:
rotating a rotatable wheel connected to the moveable platform while the x-ray beam is being generated, wherein the rotatable wheel has a number of apertures that allows at least a portion of the x-ray beam to pass through the rotatable wheel as the rotatable wheel rotates.
17. The method of claim 10 further comprising:
cooling the x-ray tube and the power supply located in the housing using the liquid coolant present inside of the housing.
18. The method of claim 10 , wherein the object is a fuselage of a vehicle.