Abstract: A reaming tool vacuum assembly comprising: a reaming tool comprising a reaming bit, the reaming bit comprising: a tip end; a base end; a plurality of flutes tapered toward the tip end; a plurality of apertures positioned between the plurality of flutes, wherein the plurality of apertures define a plurality of openings to an interior chamber of the reaming bit; a first rigid tube positioned in the interior chamber of the reaming bit, wherein the reaming bit is rotatable around a longitudinal axis of the first rigid tube and independent of the first rigid tube; and a vacuum to provide suction in the interior chamber of the reaming bit via the first rigid tube.

Abstract: An imaging device is provided that may be used for visually inspecting structures. In one embodiment, the imaging device includes an image capture device; and a rail system having a stationary component connected to the image capture device and a sliding component for movement along a horizontal axis. The system can further include a jig structure engaged to the sliding component of the rail system. The jig structure may include a first mount location for engagement to a first type connector and a second mount location for engagement to a second type connector. The jig structure is engaged to the sliding component to position the housing so that the first and second mount locations are in line and parallel to a direction of travel along the horizontal axis including a point at which the first and second mount locations pass through the imaging location.

Abstract: An apparatus includes an electrical plug insertable into a power outlet of a receptacle, where the electrical plug includes a ground pin with an indent. The apparatus further includes a retention mechanism enclosed by the receptacle includes a rod configured to interact with the indent of the ground pin, where the rod seated within the indent of the ground pin prevents a removal of the electrical plug from the power outlet.

Abstract: An apparatus includes an electrical plug insertable into a power outlet of a receptacle, where the electrical plug includes a ground pin with an indent. The apparatus further includes a retention mechanism enclosed by the receptacle includes a rod configured to interact with the indent of the ground pin, where the rod seated within the indent of the ground pin prevents a removal of the electrical plug from the power outlet.

Abstract: Aspects of the present disclosure provide a computer-implemented method that includes, responsive to receiving a pickup location request indicating a pickup location, identifying a vehicle in a vicinity associated with the pickup location, the vehicle having vehicle location data associated therewith. The method further includes selecting a shortest route from the vehicle to the pickup location. The method further includes, responsive to determining that a crossing is present along the shortest route, receiving target object location data for a target object associated with the crossing. The method further includes determining whether the target object and the vehicle intersect are predicted to intersect at the crossing. The method further includes, responsive to determining the target object and the vehicle are predicted to intersect at the crossing, identifying another vehicle in the vicinity, wherein the other vehicle traverses a route that avoids the crossing.

Abstract: Provided are systems, methods, and computer products for interactive cable routing and planning optimization for customized hardware configurations. An example method includes receiving a set of cable characteristics and a set of user selections, in which the set of user selections are received via a graphical user interface (GUI). Identifying possible cabling routes for a hardware configuration based, at least in part, on available plug start and termination locations. Ranking each of the possible cabling routes based, at least in part, on a prioritized list of optimization criteria and the set of cable characteristics. Generating a suggested cabling configuration for one or more applications based, at least in part, on the set of cable characteristics, the set of user selections, and the ranking. Outputting the suggested cabling configuration to the user by at least providing a three-dimensional view of the suggested cabling configuration via the GUI.

Abstract: Slidable assemblies are provided which include a support, a slidable assembly, and a spring-clip element. The slidable assembly, which includes a slide member, is coupled to the support to slide along the support between a first position and a second position. The spring-clip element is associated with the support, and receives the slide member of the slidable assembly. The slide member translates within the spring-clip element as the slidable assembly is slid between the first position and the second position, and is retained by the spring-clip element in position when the slidable assembly is slid to the second position to hold the slidable assembly and restrain the slidable assembly from sliding along the support to the first position.

Abstract: Systems for varying orifice cross-section for 3D printing are provided. Aspects of the invention include an actuator operable to control an actuator rod, a plurality of nozzles connected to the actuator rod, the plurality of nozzles comprising a first nozzle and a second nozzle, wherein the first nozzle comprises a first cross-section, wherein the second nozzle comprises a second cross-section, and a controller configured to operate the actuator rod to maneuver the first nozzle under a printer head, wherein the printer head extrudes a filament that passes through the first cross-section of the first nozzle.

Abstract: A cassette for insertion and removal of an edge-connected printed circuit card connectable to a server chassis is disclosed. The cassette includes a housing comprising a bottom wall having at least one elongated slot and a catch formed thereon. The cassette further includes a connector sub-assembly overlying the bottom wall having an edge connector socket formed thereon and configured to receive the edge-connected printed circuit card. The cassette further includes a guide sub-assembly underlying the bottom wall having a spring latch formed thereon. The spring latch is operable in a first state to engage the catch to prevent movement of the connector sub-assembly and the guide sub-assembly relative to the housing. The spring latch is operable in a second state to clear the catch to permit the connector sub-assembly and the guide sub-assembly to slide in unison in the at least one elongated slot.

Abstract: Systems for varying orifice cross-section for 3D printing are provided. Aspects of the invention include an actuator operable to control an actuator rod, a plurality of nozzles connected to the actuator rod, the plurality of nozzles comprising a first nozzle and a second nozzle, wherein the first nozzle comprises a first cross-section, wherein the second nozzle comprises a second cross-section, and a controller configured to operate the actuator rod to maneuver the first nozzle under a printer head, wherein the printer head extrudes a filament that passes through the first cross-section of the first nozzle.

Abstract: The present invention relates to a method to fabricate a tamper respondent assembly. The tamper respondent assembly includes an electronic component and an enclosure fully enclosing the electronic component. The method includes printing, by a 3-dimensional printer, a printed circuit board that forms a bottom part of the enclosure and includes a first set of embedded detection lines for detecting tampering events and signal lines for transferring signals between the electronic component and an external device. The electronic component is assembled on the printed circuit board, and a cover part of the enclosure is printed on the printed circuit board. The cover part includes a second set of embedded detection lines. Sensing circuitry can be provided for sensing the conductance of the first set of embedded detection lines and the second set of embedded detection lines to detect tampering events.

Abstract: Aspects of the present disclosure provide a computer-implemented method that includes, responsive to receiving a pickup location request indicating a pickup location, identifying a vehicle in a vicinity associated with the pickup location, the vehicle having vehicle location data associated therewith. The method further includes selecting a shortest route from the vehicle to the pickup location. The method further includes, responsive to determining that a crossing is present along the shortest route, receiving target object location data for a target object associated with the crossing. The method further includes determining whether the target object and the vehicle intersect are predicted to intersect at the crossing. The method further includes, responsive to determining the target object and the vehicle are predicted to intersect at the crossing, identifying another vehicle in the vicinity, wherein the other vehicle traverses a route that avoids the crossing.

Abstract: Multi-directional monitoring of connector motion is provided to facilitate identifying potential wear of one or more connector electrodes. A sensor assembly is configured to sense in multiple directions motion of a plug connector relative to a connector receptacle when the plug connector is operatively plugged to the connector receptacle, and to generate sensor data based on sensed motion of the plug connector relative to the connector receptacle. A control system is provided to monitor, based on the sensor data, motion of the plug connector relative to the connector receptacle to facilitate identifying potential wear of one or more electrodes of the plug electrode(s) and the receptacle electrode(s) due to the motion.

Abstract: Slidable assemblies are provided which include a support, a slidable assembly, and a spring-clip element. The slidable assembly, which includes a slide member, is coupled to the support to slide along the support between a first position and a second position. The spring-clip element is associated with the support, and receives the slide member of the slidable assembly. The slide member translates within the spring-clip element as the slidable assembly is slid between the first position and the second position, and is retained by the spring-clip element in position when the slidable assembly is slid to the second position to hold the slidable assembly and restrain the slidable assembly from sliding along the support to the first position.

Abstract: Rack-mountable assemblies are provided which include a structure to be mounted to a frame of an electronics rack, and a spring-hinged mounting bracket associated with and extending from a side of the structure to facilitate mounting the structure to the frame of the electronics rack. The spring-hinged mounting bracket facilitates insertion of the structure into the frame by pivoting inward towards the side of the structure upon the spring-hinged mounting bracket encountering an obstruction as the rack-mountable assembly is positioned within the frame for mounting to the frame.

Abstract: Provided are systems, methods, and computer products for interactive cable routing and planning optimization for customized hardware configurations. An example method includes receiving a set of cable characteristics and a set of user selections, in which the set of user selections are received via a graphical user interface (GUI). Identifying possible cabling routes for a hardware configuration based, at least in part, on available plug start and termination locations. Ranking each of the possible cabling routes based, at least in part, on a prioritized list of optimization criteria and the set of cable characteristics. Generating a suggested cabling configuration for one or more applications based, at least in part, on the set of cable characteristics, the set of user selections, and the ranking. Outputting the suggested cabling configuration to the user by at least providing a three-dimensional view of the suggested cabling configuration via the GUI.

Abstract: An apparatus for providing a stiffener and cooling to a printed circuit board includes a printed circuit board coupled to a top surface of a stiffening cooling structure, where a lower surface of the printed circuit board is opposite the top surface of the stiffening cooling structure. One or more channels of the stiffening cooling structure defined by the top surface of the stiffening cooling structure, a bottom surface of the stiffening cooling structure, and one or more support members, where the one or more support members are positioned between the top surface of the stiffening cooling structure and the bottom surface of the stiffening cooling. One or more apertures in the top surface of the stiffening cooling structure directs airflow from the one or more channels of the stiffening cooling structure to one or more components disposed on a top surface of the printed circuit board.

Abstract: A cassette for insertion and removal of an edge-connected printed circuit card connectable to a server chassis is disclosed. The cassette includes a housing comprising a bottom wall having at least one elongated slot and a catch formed thereon. The cassette further includes a connector sub-assembly overlying the bottom wall having an edge connector socket formed thereon and configured to receive the edge-connected printed circuit card. The cassette further includes a guide sub-assembly underlying the bottom wall having a spring latch formed thereon. The spring latch is operable in a first state to engage the catch to prevent movement of the connector sub-assembly and the guide sub-assembly relative to the housing. The spring latch is operable in a second state to clear the catch to permit the connector sub-assembly and the guide sub-assembly to slide in unison in the at least one elongated slot.

Abstract: Rack-mountable assemblies are provided which include a cover configured to fixedly mount to a frame of an electronics rack, and a drawer configured to slidably mount to the frame adjacent to the cover to slide relative to the cover. When operatively mounted to the frame, the cover and drawer together define an enclosure for one or more electronic components. The assembly further includes an electromagnetic shielding structure to provide, at least in part, electromagnetic shielding at a gap between the cover and drawer when operatively positioned within the electronics rack. The electromagnetic shielding structure includes an electromagnetic shielding plate which overlies, at least in part, the gap between the cover and the drawer, and which self-adjusts with sliding of the drawer into the electronics rack to facilitate providing the electromagnetic shielding at the gap between the cover and the drawer.

Abstract: An electronic cable is provided that is able to measure, store, transmit, and/or interpret mechanical strains that are applied to the electronic cable. The electronic cable includes a centrally located piezoelectric fiber sensor, two or more flex sensors, a battery, a memory, and a microprocessor. The piezoelectric fiber sensor is configured to produce voltage readings that are proportional to tensile loads experienced by the electronic cable in the axial direction over time. The flex sensors are arranged radially external to the piezoelectric fiber sensor, and are configured to output voltage readings that are proportional to lateral loads experienced by the electronic cable in a radial direction over time. The battery is configured to supply a current to the piezoelectric fiber sensor and flex sensors. The microprocessor is configured to store the voltage output readings in the memory.