Abstract: A modular integration kit for a positioning system, like a positioning system on a vehicle, includes a configurable foundation plate, a dampened bolting structure, and a modular vibration isolation assembly. The configurable foundation plate is configured to attach to the positioning system. The dampened bolting structure is affixed to the configurable foundation plate. The dampened bolting structure is configured to attach a payload to the positioning system, like for attaching a payload of a rifle, an optic and/or a rocket launcher onto a positioning system of a vehicle. The modular vibration isolation assembly is arranged between the configurable foundation plate and the dampened bolting structure. The modular vibration isolation assembly is configured to dampen the dampened bolting structure from movements of the configurable foundation plate attached to the positioning system.

Abstract: This disclosure provides a heat dissipation assembly and an electronic device. The heat dissipation assembly includes a first fan, a first fin assembly, a second fan, a second fin assembly, a vapor chamber and a heat dissipation sheet. The second fan has a second inlet, at least one second outlet and a side outlet. The at least one second outlet and the side outlet are in fluid communication with the second inlet. A direction of the side outlet directs toward the first fan. The vapor chamber is thermally coupled to the first fin assembly and the second fin assembly. The heat dissipation sheet is in thermal contact with a side of the vapor chamber, and located between the first fan and the second fan.

Abstract: A fan assembly and an electronic device. The fan assembly includes a casing and an impeller. The casing includes a first cover plate, a side plate and a second cover plate. The side plate is disposed on the first cover plate. The second cover plate is disposed on a side of the side plate. The first cover plate, the side plate and the second cover plate together form a first outlet and a second outlet. The first and second outlet are located on two different sides of the first cover plate, respectively. The second cover plate has an inlet in fluid communication with the first and second outlet. The impeller is rotatably disposed on the first cover plate. The first cover plate has a first notch recessed inwards from a reference plane where the second outlet located, and is connected to the side plate.

Abstract: A fan noise control method includes being activated by a power-on signal to perform: controlling a rotation speed of a fan not to be greater than a first predetermined rotation speed, obtaining a power consumption of a computing device, obtaining a first temperature, wherein the first temperature is a temperature of the computing device, obtaining a second temperature, wherein the second temperature is not the temperature of the computing device, and switching from controlling the rotation speed of the fan not to be greater than the first predetermined rotation speed to controlling the rotation speed of the fan according to the first temperature when the power consumption of the computing device is greater than a first predetermined power consumption, or the second temperature is greater than a predetermined temperature.

Abstract: A volatile organic compound (VOC) free low radiant flux radiation curable composition for aerosol containers including an acrylate-terminated compound component, a thiol monomer or oligomer component, a photoinitiator component, a surface additive component, and an ethanol-based reducer, wherein the composition does not include an acetone component. Moreover, other implementations are directed towards methods of using the aerosol containers to apply the UV Curable Composition.

Abstract: A control method of display device including obtaining an image displayed by a display device by a computing controller; dividing the image into a plurality of sub-regions by the computing controller; computing a color weight data of each of the plurality of sub-regions by the computing controller; generating a color data for at least one of the plurality of light-emitting components corresponding to each of the plurality of sub-regions based on the color weight data of each of the plurality of sub-regions by the computing controller; transferring the color data for each of the plurality of light-emitting components to the light controller by the computing controller; and controlling each of the plurality of light-emitting components to emit corresponding color of light based on the color data by the light controller.

Abstract: A display device and control method thereof. The display device includes a housing, a display assembly, and a plurality of light-emitting components. The housing has a front surface, an outer peripheral surface and a mounting opening. The outer peripheral surface is connected to the front surface. The mounting opening is located on the front surface and surrounded by the outer peripheral surface. The display assembly is disposed in the mounting opening and exposed to outside. The plurality of light-emitting components are fixed to the housing. A light emitted from the plurality of light-emitting components is partially emitted along a normal direction of the outer peripheral surface, and is partially emitted along a normal direction of the front surface.

Abstract: A dual-standard AC smart charging pile includes a first charging gun, a first power supply circuit, a second charging gun, a second power supply circuit and a signal processing circuit. Each of the two charging guns comprises a charging port conforming to different specifications. Each of the two power supply circuits is electrically connected to the corresponding charging gun, and is respectively configured to provide power to the corresponding charging gun based on different specifications. The signal processing circuit is electrically connected to the first charging gun, the second charging gun, the first power supply circuit and the second power supply circuit, and is configured to control one or both of the first power supply circuit and the second power supply circuit according to one or both of a first trigger time point of the first charging gun and a second trigger time point of the second charging gun.

Abstract: An AC smart charging pile includes a charging gun, a power supply circuit, a communication transmission unit and a signal processing circuit. The power supply circuit is connected to the charging gun, and configured to provide power to the charging gun. The communication transmission unit is configured to obtain charging data from a user device or a management center. The signal processing circuit is connected to the power supply circuit and the communication transmission unit, and configured to control charging power of the power supply circuit.

Abstract: The disclosure provides an electronic assembly, a method for manufacturing electronic assembly, and a composite thermally conductive sheet. The electronic assembly includes a circuit board, a heat source, an anti-overflow element, a thermally conductive block and a thermally conductive sheet. The heat source is disposed on and electrically connected to the circuit board. The anti-overflow element is disposed on a side of the heat source located farthest away from the circuit board and has an opening. The thermally conductive block is disposed on a side of the anti-overflow element located farthest away from the heat source. The thermally conductive sheet is made of a phase change material. The thermally conductive sheet is located in the opening of the anti-overflow element to be surrounded by the anti-overflow element. Opposite sides of the thermally conductive sheet are in thermal contact with the heat source and the thermally conductive block, respectively.

Abstract: A display assembly including a stand, a mounting assembly and a display. The mounting assembly includes a fixed base, a first pivot, a pivotable base, a second pivot, a handle, a plurality of first engagement structures and a second engagement structure. The handle includes a handheld part and a mounting part. The mounting part is connected to the handheld part and pivotally connected to the pivotable base via the second pivot. The first engagement structures are disposed at one of the fixed base and the mounting part of the handle. The second engagement structure is disposed at another one of the fixed base and the mounting part of the handle. The display is fixed on the pivotable base. The first pivot is not coaxial with the second pivot so that the second engagement structure is configured to be engaged with any one of the first engagement structures.

Abstract: A pathway identification system includes processor and memory hardware. The memory hardware stores a pathway database including pathways corresponding to at least one pathway parameter, a framework database including a set of framework transformation models, and instructions. The instructions include, in response to receiving a first pathway parameter corresponding to a user, identifying a subset of pathways of the pathways corresponding to the first pathway parameter. The instructions include obtaining a first set of framework transformation models from the framework database, determining a pathway value for each pathway of the subset of pathways using the first set of framework transformation models, and selecting at least one pathway of the subset of pathways based on the corresponding pathway value. The instructions include transmitting information encoding the at least one pathway to the operator device and transforming a user interface of the operator device to display the at least one pathway.

Abstract: A fan assembly including a fan frame and an impeller. The fan frame includes a frame body and a first peripheral protruding plate and has an air inlet and an air outlet. The first peripheral protruding plate protrudes from a side of the frame body and forms an air channel together with the frame body. The first peripheral protruding plate is configured to reduce a noise made by the fan assembly. The air inlet is in fluid communication with the air outlet via the air channel. The impeller is rotatably disposed on the frame body and located in the air channel. The protruding height of the first peripheral protruding plate relative to the frame body ranges from 50 to 100 percent of an overall axial thickness of the impeller.

Abstract: A computerized method of automatically processing a medical imaging record using a machine learning model includes training a machine learning model prediction engine with historical medical imaging records, receiving a first medical imaging record from a first system, applying a set of specified approval criteria to the first medical imaging record to determine a provisional outcome, and in response to the provisional outcome being negative, selectively identifying an exception to the provisional outcome in response to input received by a user interface. In response to the exception not being identified, the method includes inputting a feature vector based on the first medical imaging record to the machine learning model prediction engine to generate a likelihood estimate, comparing the generated likelihood estimate to a target threshold, and in response to the generated likelihood estimate being greater than the target threshold, transmitting a signal indicating approval to the first system.

Abstract: A display assembly including a stand, a mounting assembly and a display. The mounting assembly includes a fixed base, a first pivot, a pivotable base, a second pivot, a handle, a plurality of first engagement structures and a second engagement structure. The handle includes a handheld part and a mounting part. The mounting part is connected to the handheld part and pivotally connected to the pivotable base via the second pivot. The first engagement structures are disposed at one of the fixed base and the mounting part of the handle. The second engagement structure is disposed at another one of the fixed base and the mounting part of the handle. The display is fixed on the pivotable base. The first pivot is not coaxial with the second pivot so that the second engagement structure is configured to be engaged with any one of the first engagement structures.

Abstract: A heat dissipation structure assembly includes an elastic limiting member, a thermal grease wall, a fitting member, a phase-change metal, and an assembling plate. The elastic limiting member is adapted to be disposed at a periphery of a heat source. The thermal grease wall is adapted to be in contact with the periphery of the heat source. The fitting member is in contact with the thermal grease wall and engaged with the elastic limiting member. The phase-change metal is adapted to be filled into a region among the fitting member, the thermal grease wall, and the heat source. When a temperature of the phase-change metal exceeds a critical temperature, a state of the phase-change metal is changed to a liquid state. The assembling plate is connected to the fitting member, and the assembling plate is in contact with the thermal grease wall.

Abstract: A fan assembly including a fan frame and an impeller. The fan frame includes a frame body and a first peripheral protruding plate and has an air inlet and an air outlet. The first peripheral protruding plate protrudes from a side of the frame body and forms an air channel together with the frame body. The first peripheral protruding plate is configured to reduce a noise made by the fan assembly. The air inlet is in fluid communication with the air outlet via the air channel. The impeller is rotatably disposed on the frame body and located in the air channel. The protruding height of the first peripheral protruding plate relative to the frame body ranges from 50 to 100 percent of an overall axial thickness of the impeller.

Abstract: A redriver chip comprising: pre-stage transmission pin sets, pre-stage reception pin sets, post-stage transmission pin sets, post-stage reception pin sets and selectors. The pre-stage transmission pin sets and the pre-stage reception pin sets are disposed in alternating arrangement, and the post-stage transmission pin sets and the post-stage reception pin sets are disposed in alternating arrangement. The amount of the post-stage transmission pin sets is an integral multiple of the amount of pre-stage reception pin sets, and the amount of the pre-stage reception pin sets is an integral multiple of the pre-stage transmission pin sets. Each of the selectors is connected to one of the pre-stage reception pin sets and integral multiple amount of the post-stage transmission pin sets, or is connected to one of the pre-stage transmission pin sets and integral multiple amount of the post-stage reception pin sets.