Abstract: In one embodiment, a method includes generating a first visual representation of a location of a railroad station in relation to a railroad track, receiving a request for a first maintenance window, and determining that the first maintenance window is associated with the railroad station. The method further includes determining a first time period and generating a second visual representation of information associated with the railroad station during the first time period. The information includes an indication of a time that a train is scheduled to cross the railroad station during the time period. The information also includes an indication of a time duration for a second maintenance window that has been requested during the time period.

Abstract: Examples described herein provide a computer-implemented method that includes determining, using a digital twin, a task to be performed based at least in part on real-time data. The method further includes initiating at least one of a drone, a collaborative robot, or a warehouse system to perform the task.

Abstract: A connection system includes a first connector and a second connector configured for establishing one or more electrical connections through a drape. The first connector can include an alignment protrusion and a first piercing element having one or more electrical contacts configured to pierce the drape. The second connector can include an alignment notch, a channel, and a first receptacle configured to receive the first piercing element when inserted therein. The alignment notch can be configured to accept the alignment protrusion when the first connector is aligned with the second connector then disposed over the second connector. The channel can be configured to allow the alignment protrusion to slide along a length of the second connector. The first receptacle can have one or more electrical contacts configured to form at least a first electrical connection of the one or more electrical connections with the first connector.

Abstract: Systems, methods and computer-program products are provided for aiding in positioning between a surgical object and a machine vision camera in a surgical environment. The machine vision camera senses a position and orientation of a surgical object in its field of view. Controller(s) virtually define a zone within the field of view that indicates a range of acceptable positions for the surgical object relative to a position of the machine vision camera. The controller(s) obtain an acceptable orientation range for the surgical object relative to an orientation of the machine vision camera. The controller(s) execute a GUI to simultaneously present, on the display device, representations of: the field of view; the zone within the field of view; the position of the surgical object relative to the zone; and a current angle difference between the surgical object and the machine vision camera.

Abstract: An electronic assembly may include a chassis having electronic module mounting positions, each having a chassis cooling gas passageway and an electronic module received in each electronic module mounting position. A sealing retainer may be coupled between the chassis and each electronic module, and includes a cooling gas passageway aligned with the chassis cooling gas passageway and a module cooling gas passageway of a respective electronic module. The sealing retainer may include a retainer body, and a gas seal body coupled to the retainer body and movable between retracted and extended positions. The gas seal body in the retracted position permits insertion and removal of the electronic module, and in the extended position seals against the electronic module.

Abstract: In one embodiment, a method includes generating a first visual representation of a location of a railroad station in relation to a railroad track, receiving a request for a first maintenance window, and determining that the first maintenance window is associated with the railroad station. The method further includes determining a first time period and generating a second visual representation of information associated with the railroad station during the first time period. The information includes an indication of a time that a train is scheduled to cross the railroad station during the time period. The information also includes an indication of a time duration for a second maintenance window that has been requested during the time period.

Abstract: An electronic assembly includes a chassis having electronic module mounting positions, each having an electronic module received therein. A module recess is adjacent a first end of the electronic module and a module roller is adjacent a second end. A sealing retainer is coupled between the chassis and each electronic module, and includes a cooling gas passageway aligned with a chassis cooling gas passageway and a module cooling gas passageway. The sealing retainer includes a rigid retainer body having a retainer recess adjacent a first end to receive the module roller when the electronic module is in an inserted position. A retainer roller is received in a module recess and a compressible retainer body is between the rigid retainer body and the chassis.

Abstract: A sealing retainer may be coupled between a chassis and an electronic module. The sealing retainer includes a retainer body to be coupled to the chassis and a first cooling gas passageway that may be aligned with a chassis cooling gas passageway. A gas seal body has a second cooling gas passageway aligned with the first cooling gas passageway and coupled to the retainer body and movable between a retracted position that permits insertion and removal of the electronic module and an extended position that seals against the electronic module.

Abstract: An electronic assembly may include a chassis having electronic module mounting positions, each having a chassis cooling gas passageway and an electronic module received in each electronic module mounting position. A sealing retainer may be coupled between the chassis and each electronic module, and includes a cooling gas passageway aligned with the chassis cooling gas passageway and a module cooling gas passageway of a respective electronic module. The sealing retainer may include a retainer body, and a gas seal body coupled to the retainer body and movable between retracted and extended positions. The gas seal body in the retracted position permits insertion and removal of the electronic module, and in the extended position seals against the electronic module.

Abstract: A pipe fitting configured to be coupled to a pipe. The pipe fitting includes a body that is elongate along a central axis that extends in a longitudinal direction. The body includes a shell, a stiffener, and a shell-stiffener. The shell includes a shell inner surface that defines a shell through hole that extends through the shell in the longitudinal direction. The stiffener is positioned within the shell through hole, and the stiffener includes a stiffener outer surface that faces the shell inner surface such that the stiffener outer surface and the shell inner surface cooperate to define a pocket configured to receive the pipe. A shell-stiffener seal member is positioned about the stiffener such that a seal member inner surface is substantially flush against the stiffener outer surface and a seal member outer surface abuts against the shell inner surface.

Abstract: An electronic assembly may include a chassis, and electronic modules mounted within the chassis. Each electronic module may include a printed circuit substrate, heat-generating electronic components mounted on the printed circuit substrate, and a heat sink body mounted to the printed circuit substrate and having a plurality of heat pipe receiving passageways extending between opposing side edges and overlying corresponding heat-generating components. A respective elongate, passive, heat pipe may extend within each heat pipe receiving passageway and be removably fastened to at least one end to the heat sink body for enhanced conductive heat transport.

Abstract: Food products and systems and methods for their production involve microfiltration (“MF”) of fluid skim to form a MF retentate, combining the MF retentate with cream and subjecting the combination to ultrafiltration (“UF”) to form a UF retentate. Prior to UF, the composition is formed of non-acidified components. Following UF, the UF retentate is acidified and forms a food product including a high solids content. The solids content may be further increased using evaporation. The resulting cheese or cheese base contains a lower whey protein ratio in a fat:casein:whey protein ratio compared to systems and methods that do not employ MF.

Abstract: An electronic device may include a circuit board, a heat generating component carried by the circuit board, a heat sink body, and a heat transfer assembly between the heat generating component and the heat sink body. The heat transfer assembly may include a flexible, heat conductive layer having a first portion in thermal contact with the heat generating component and a second portion in thermal contact with the heat sink body. The first and second portions are thermally coupled, and a compressible layer is between the first and second portions of the flexible, heat conductive layer.

Abstract: An electronic device may include a circuit board, a heat generating component carried by the circuit board, a heat sink body, and a heat transfer assembly between the heat generating component and the heat sink body. The heat transfer assembly may include a flexible, heat conductive layer having a first portion in thermal contact with the heat generating component and a second portion in thermal contact with the heat sink body. The first and second portions are thermally coupled, and a compressible layer is between the first and second portions of the flexible, heat conductive layer.

Abstract: An electronic assembly may include a chassis, and electronic modules mounted within the chassis. Each electronic module may include a printed circuit substrate, heat-generating electronic components mounted on the printed circuit substrate, and a heat sink body mounted to the printed circuit substrate and having a plurality of heat pipe receiving passageways extending between opposing side edges and overlying corresponding heat-generating components. A respective elongate, passive, heat pipe may extend within each heat pipe receiving passageway and be removably fastened to at least one end to the heat sink body for enhanced conductive heat transport.

Abstract: Concentrated creams are produced from starting cream compositions characterized as homogenous, oil-in-water emulsions containing fat globules, phospholipid membrane components and non-fat solids, and which have an initial fat content between about 35 to about 55 percent by weight. To produce the concentrated creams, moisture is removed from the starting cream compositions through evaporative processing, and as a result, the concentrated cream remains in a homogenous state, retains the fat globules, phospholipid membrane components and non-fat solids, and includes a concentrated fat content of at least about 70 percent by weight. In addition, the concentrated cream may be in an oil-in-water or a bi-continuous emulsion. Evaporative processing may be through a wiped film evaporator or a scraped surface heat exchanger.

Abstract: A grilling tool is described herein that has a replaceable tip, and can be used with a variety of other attachments. The grilling tool can be made of a heat-conformable material such that during use grooves are formed in the replaceable tip that correspond to a grilling surface on which it is used. Once the grooves are too deep or the tip is fully used, the tip can be replaced.

Abstract: An electronic device may include a circuit board, a heat generating component carried by the circuit board, a heat transfer rail extending along an edge of circuit board and coupled to the heat generating component, a housing covering the circuit board, and a heat transfer clamp between the heat transfer rail and the housing. The heat transfer clamp includes a flexible, heat conductive layer having a first portion in thermal contact with the heat transfer rail and a second portion in thermal contact with the housing. The first and second portions are thermally coupled, and a clamp and a compressible layer thereon extends between the first and second portions of the flexible, heat conductive layer.

Abstract: A method for modulating a response signal includes introducing functionalized particles into a lumen of subsurface vasculature, wherein the functionalized particles are configured to interact with one or more target analytes present in blood circulating in the subsurface vasculature; and non-invasively detecting the one or more target analytes. A response signal, which may include a background signal and an analyte response signal related to interaction of the functionalized particles with the one or more target analytes, is transmitted from the subsurface vasculature. A modulation configured to alter the response signal such that the analyte response signal is affected differently than the background signal may be applied to a portion of subsurface vasculature. Analyte detection may be achieved by differentiating the analyte response signal from the background signal.

Abstract: An unmanned aerial system (UAS) is disclosed. In embodiments, the UAS includes an unmanned aerial vehicle (UAV), and a controller communicatively coupled to the UAV. In embodiments, the UAS controller may be configured to: acquire a command and control (C2) link quality model for a planned route; generate one or more control signals configured to cause the UAV to perform a monitored flight along a planned route; acquire actual C2 link quality data during the monitored flight along the planned route; compare the actual C2 link quality data to the C2 link quality model; identify a C2 link quality deviation between the actual C2 link quality and the C2 link quality model; and generate one or more control signals configured to cause the UAV to perform one or more prescribed flight plan maneuvers if the identified C2 link quality deviation (?C2LQ) exceeds a threshold deviation value (C2thresh).