Abstract: A compact, portable linear scanning x-ray system includes a physically uncoupled x-ray source and x-ray detector that are each translatable along different respective scanning trajectories. The scanning trajectories may be linear scanning trajectories, which may be parallel linear scanning trajectories. The x-ray source and x-ray detector can be independently moveable. A controller aligns the x-ray source with the x-ray detector and synchronously moves the x-ray source and x-ray detector to obtain an image of an object. Artificial intelligence algorithms can be used to provide for automatic alignment and/or movement of the x-ray source and x-ray detector, which may be based on positioning sensors located on the x-ray source, the x-ray detector, or both.

Abstract: A network device test station (“TS”) is capable of simultaneously testing and verifying a group of routers and/or switches at the same time. The TS includes a user interface (“UI”), a test bed engine, and a TS manager. The UI facilitates interactive communication between TS and user via an interactive graphical representations showing, for example, test configurations and test results. The test bed engine uses a set of test beds to conduct tests on attached devices or routers which are also known as device under tests (“DUTs”) or unit under tests (“UUTs”). The TS manager is configured to provide a test environment with one or more emulated communication networks for verifying functionalities of every DUT.

Abstract: A network device test station (“TS”) is capable of simultaneously testing and verifying a group of routers and/or switches at the same time. The TS includes a user interface (“UI”), a test bed engine, and a TS manager. The UI facilitates interactive communication between TS and user via an interactive graphical representations showing, for example, test configurations and test results. The test bed engine uses a set of test beds to conduct tests on attached devices or routers which are also known as device under tests (“DUTs”) or unit under tests (“UUTs”). The TS manager is configured to provide a test environment with one or more emulated communication networks for verifying functionalities of every DUT.

Abstract: A network device test station (“TS”) is capable of simultaneously testing and verifying a group of routers and/or switches at the same time. The TS includes a user interface (“UI”), a test bed engine, and a TS manager. The UI facilitates interactive communication between TS and user via an interactive graphical representations showing, for example, test configurations and test results. The test bed engine uses a set of test beds to conduct tests on attached devices or routers which are also known as device under tests (“DUTs”) or unit under tests (“UUTs”). The TS manager is configured to provide a test environment with one or more emulated communication networks for verifying functionalities of every DUT.

Abstract: A network device test station (“TS”) is capable of simultaneously testing and verifying a group of routers and/or switches at the same time. The TS includes a user interface (“UI”), a test bed engine, and a TS manager. The UI facilitates interactive communication between TS and user via an interactive graphical representations showing, for example, test configurations and test results. The test bed engine uses a set of test beds to conduct tests on attached devices or routers which are also known as device under tests (“DUTs”) or unit under tests (“UUTs”). The TS manager is configured to provide a test environment with one or more emulated communication networks for verifying functionalities of every DUT.