Abstract: Methods and systems for use in generating a volumetric reconstruction of an object using scattered X-ray radiography. An X-ray beam is directed towards a point within a target object. Scattered X-rays are measured by detectors and measurement data is stored. The X-ray beam is directed towards different points. Measurement data associated with each point is analyzed using a ray tracing methodology to assign contrast values to each point. A volumetric image is generated therefrom.

Abstract: A method and apparatus for inspecting sealant on an object. First data is generated for a first geometry of a first surface of the object prior to sealing the object. Second data is generated for a second geometry of a second surface of the object after the sealant has been applied to the object. A difference is identified between the first data and the second data. The difference indicates a thickness of the sealant on the object.

Abstract: A method for detecting discrepancies in an item is provided. The method comprises: directing energy waves at the item along at least one dimension, wherein a portion of the energy waves are reflected back from the item; detecting reflected energy waves from the item along at least one dimension and recording the intensity of the detected reflected energy waves, and forming a one-dimensional image of the item from the detected reflected energy waves.

Abstract: A method for detecting an anomaly associated with a structure is described. The method includes obtaining a baseline scan of the structure, changing at least one condition associated with the structure which is intended to impart a movement of the structure or a movement of objects within the structure, obtaining a secondary scan of the structure, the secondary scan obtained from a same position, with respect to the structure, as the baseline scan, determining any differences between the baseline scan and the secondary scan, and identifying at least one of a foreign object proximate the structure and a structural anomaly associated with the structure based on any differences between the baseline scan and the secondary scan.

Abstract: Exemplary systems and methods are provided for imaging a unit under test. Orientation of an imaging system is determined with a machine vision system, a unit under test is scanned with the imaging system, and the scanned image is processed into a substantially distortion-free image. The scanned image may be processed into a substantially distortion-free image by mapping a scanned image to coordinates determined by the machine vision system. By combining the position and orientation information collected at the time each image pixel is collected, the image can be assembled without distortion by mapping a detector signal to the appropriate image coordinate. Alternately, the scanned image may be processed into a substantially distortion-free image by mapping a scanned image to a predetermined matrix grid of coordinates, identifying distortion in the scanned image, and correcting identified distortion in the scanned image.

Abstract: Methods and systems for populating fleet maintenance data using 2D feature recognition are disclosed. In one embodiment, a method of determining a configuration of a vehicle includes surveying the vehicle using an imaging device to generate 2D imagery of a configuration of the vehicle. The generated 2D imagery of the configuration may be compared to a survey library of 2D images to identify a part in the configuration. Existing data from legacy systems may be extracted for the part. The part may be added to a bill of materials and used to create a 3D model of the vehicle.

Abstract: Methods and systems for inspecting objects are disclosed. A portable X-ray backscatter imaging system includes a microfocus X-ray tube to emit X-rays at an object under inspection. A track system rasters the microfocus X-ray tube to inspect the object. A portable hood may enclose the microfocus X-ray tube and the track system against the object A rotation mechanism rotates the microfocus X-ray tube to angle the emitted X-rays at the object. A plurality of solid state detectors receive scattered X-rays to generate an image of the object.

Abstract: Methods and systems for X-ray imaging are disclosed. An X-ray imaging system includes an X-ray tube to generate X-rays and a detector array to capture scattered X-rays. A rotational collimator directs the X-rays at an object under inspection. Rotational mechanisms rotate the X-ray tube and the detector array about a roll axis and a yaw axis to inspect various portions of the object. A track unit mechanism moves the X-ray imaging system linearly along a track unit to further inspect portions of the object.

Abstract: Methods and systems for X-ray imaging are disclosed. An X-ray imaging system includes an X-ray tube to generate X-rays and a detector array to capture scattered X-rays. A rotational collimator directs the X-rays at an object under inspection. Rotational mechanisms rotate the X-ray tube and the detector array about a roll axis and a yaw axis to inspect various portions of the object. A track unit mechanism moves the X-ray imaging system linearly along a track unit to further inspect portions of the object.

Abstract: Methods and systems for populating fleet maintenance data using 2D feature recognition are disclosed. In one embodiment, a method of determining a configuration of a vehicle includes surveying the vehicle using an imaging device to generate 2D imagery of a configuration of the vehicle. The generated 2D imagery of the configuration may be compared to a survey library of 2D images to identify a part in the configuration. Existing data from legacy systems may be extracted for the part. The part may be added to a bill of materials and used to create a 3D model of the vehicle.

Abstract: A method and apparatus for an x-ray apparatus. The x-ray apparatus comprises a vacuum tube. A cathode is located in the vacuum tube and capable of emitting electrons. A rotatable magnetic anode located in the vacuum tube, capable of being rotated by a motor located outside of the vacuum tube, and capable of generating an x-ray beam in response to receiving the electrons emitted by the cathode.

Abstract: A computer implemented method, apparatus, and computer usable program code for generating a three-dimensional model of an object of interest in an aircraft. In response to transmitting a plurality of x-rays from a set of transmission points into the aircraft, backscatter x-ray data is received. The object identified from a two-dimensional diagram of the backscatter data. Points for the object are created from the identification of the object in the received data. The points are placed at a first distance from the transmission points to form a first curve. The points are placed at a second distance from the transmission points to form a second curve. A first surface is formed from the first and second curves. A second surface is formed that intersects the first surface to form an intersection. Three-dimensional data is generated for the three-dimensional model of the object from the intersection.

Abstract: A method and apparatus for an x-ray apparatus. The x-ray apparatus comprises a vacuum tube. A cathode is located in the vacuum tube and capable of emitting electrons. A rotatable magnetic anode located in the vacuum tube, capable of being rotated by a motor located outside of the vacuum tube, and capable of generating an x-ray beam in response to receiving the electrons emitted by the cathode.

Abstract: Exemplary systems and methods are provided for imaging a unit under test. Orientation of an imaging system is determined with a machine vision system, a unit under test is scanned with the imaging system, and the scanned image is processed into a substantially distortion-free image. The scanned image may be processed into a substantially distortion-free image by mapping a scanned image to coordinates determined by the machine vision system. By combining the position and orientation information collected at the time each image pixel is collected, the image can be assembled without distortion by mapping a detector signal to the appropriate image coordinate. Alternately, the scanned image may be processed into a substantially distortion-free image by mapping a scanned image to a predetermined matrix grid of coordinates, identifying distortion in the scanned image, and correcting identified distortion in the scanned image.

Abstract: A method and system for identifying foreign objection (FOD) in items such as aircraft are disclosed. The item may be imaged using x-ray backscatter before and after work is performed thereon. The image taken before work may be subtracted from the image taken after the work to provide a resultant image. The resultant image may indicate the presence of any FOD. Potential FOD in the resultant image may be checked against a database of known FOD to determine the identity thereof. By finding FOD, the occurrence of catastrophes such as aircraft crashes may be mitigated.

Abstract: A method and system for identifying foreign objection (FOD) in items such as aircraft are disclosed. The item may be imaged using x-ray backscatter before and after work is performed thereon. The image taken before work may be subtracted from the image taken after the work to provide a resultant image. The resultant image may indicate the presence of any FOD. Potential FOD in the resultant image may be checked against a database of known FOD to determine the identity thereof. By finding FOD, the occurrence of catastrophes such as aircraft crashes may be mitigated.