Abstract: Systems and methods for weapon and destructive device detection based on electromagnetic field profile are disclosed herein. According to an aspect, a system includes one or more sensors configured to detect an electromagnetic field of one or more objects and to output an electrical signal representative of the electromagnetic field. The system also includes a computing device operably connected to the one or more sensors. Further, the computing device is configured to receive the electrical signal. The computing device is also configured to determine whether each of the one or more objects meets a predetermined electromagnetic field profile based on the electrical signal. Further, the computing device is configured to present a notification to a user in response to determining that one of the objects meet the predetermined electromagnetic field profile.

Abstract: A segmented subsystem, for use within an automated test platform, includes a first subsystem segment including a first data sequencer configured to coordinate the execution of one or more instructions within the first subsystem segment. A second subsystem segment includes a second data sequencer configured to coordinate the execution of one or more instructions within the second subsystem segment.

Abstract: A scalable test platform includes a PCIe-based event fabric. One or more instrument subsystems are coupled to the PCIe-based event fabric and configured to interface one or more devices under test and generate captured test data. One or more digital signal processing subsystems are coupled to the PCIe-based event fabric and configured to process the captured test data.

Abstract: A scalable test platform includes a PCIe-based event fabric. One or more CPU subsystems are coupled to the PCIe-based event fabric and configured to execute an automated test process. One or more instrument subsystems are coupled to the PCIe-based event fabric and configured to interface one or more devices under test.

Abstract: A method, computer program product, and computing system for, upon the occurrence of a computer-related event, comparing code utilized by one or more subsystems included within a scalable test platform to code available from a remote location. If the code available from the remote location is newer than the code utilized by one or more subsystems, the code available from the remote location is obtained, thus defining newer code. The code utilized by one or more subsystems is updated with the newer code.

Abstract: A segmented subsystem, for use within an automated test platform, includes a first subsystem segment including a first data sequencer configured to coordinate the execution of one or more instructions within the first subsystem segment. A second subsystem segment includes a second data sequencer configured to coordinate the execution of one or more instructions within the second subsystem segment.

Abstract: A scalable test platform includes a PCIe-based event fabric. One or more instrument subsystems are coupled to the PCIe-based event fabric and configured to interface one or more devices under test and generate captured test data.

Abstract: A scalable test platform includes a PCIe-based event fabric. One or more CPU subsystems are coupled to the PCIe-based event fabric and configured to execute an automated test process. One or more instrument subsystems are coupled to the PCIe-based event fabric and configured to interface one or more devices under test.

Abstract: A method, computer program product, and computing system for, upon the occurrence of a computer-related event, comparing code utilized by one or more subsystems included within a scalable test platform to code available from a remote location. If the code available from the remote location is newer than the code utilized by one or more subsystems, the code available from the remote location is obtained, thus defining newer code. The code utilized by one or more subsystems is updated with the newer code.

Abstract: A method is described for facilitating use of a first pattern utilizing XOR data formatting in an electronic tester. The method includes dividing the first pattern into at least a first group and a second group, the tester to successively execute the first group and the second group. The method further includes assuming an entry state for each group is one of two binary conditions and inverting programmed commands for the second group if an ending state of the first group is not equal to the assumed entry state.

Abstract: A method and apparatus for generating timing markers in an automatic electrical test system. Timing parameters are synchronized by an external period start signal corresponding to a centrally generated external period and an internal period start signal generated locally for each input/output pin. The timing parameters comprise T1 counter and vernier values, T2 counter and vernier values, and period-minus-T1 counter and period vernier values.