Abstract: A computer cabinet includes a main frame having two subframes and four frame beams, each subframe includes four subframe beams and four frame joints, each subframe beam having one frame joint connected to opposite ends, and support beams attached to the main frame. The frame joint is a hollow structure having a joint body and a joining member, the joining member extends from the joint body in a direction perpendicular to the subframe beams connected to the corresponding frame joint. Each frame beam has an elongated channel positioned within each frame beam to connect with the respective joining member extending from the joint body, each frame beam and each subframe beam has two edges extending away from the frame beam and the subframe beam respectively, the two edges are extending away from each other, a plurality of frame holes formed on each edge and used for attaching the support beams.

Abstract: A computer cabinet includes a main frame having a frame joint and three frame beams connected to the frame joint, and support beams attached to the main frame. The frame joint is a hollow structure having a joint body and three joining members. The three joining members extend from the joint body to three different directions respectively. Each frame beam has an elongated channel positioned within each frame beam to connect with the respective joining member extending from the joint body. Each frame beam has two edges extending away from the frame beam. The two edges are extending away from each other. A plurality of frame holes are formed on each edge and used for attaching the support beams.

Abstract: An expansion card can includes a first housing, a second housing coupled with the first housing to define an internal space, the second housing having at least one ventilation opening communicating with the internal space, a substrate disposed on the first housing and within the internal space, a heat dissipation device disposed on the substrate, and at least one fan disposed on the second housing and within the internal space, and located at the corresponding ventilation opening.

Abstract: An electronic device includes a housing having a housing body, a cover containing a first side panel and a second side panel, the housing having an accommodation space, the first and second side panels covering adjacent sides of the accommodation space, the first side panel having an air inlet, the second side panel having an air outlet, the air inlet and air outlet are configured to communicate with the accommodation space, an intake fan disposed in the accommodation space, the intake fan being adjacent to the first side panel, and a wind deflector disposed on the first side panel, the wind deflector having at least one ventilation opening corresponding to the intake fan, and the air inlet is configured to communicate with the accommodation space through the at least one ventilation opening.

Abstract: A computer power supply unit including a housing, a main board disposed in the housing, at least one high heat producing component disposed on the main board, at least one other heat producing component disposed on the main board, and a heat transfer system is provided. The heat transfer system comprises bottom and top heat transfer devices. Thermal paths are formed between the bottom heat transfer device and a bottom panel of the housing and the top heat transfer device and a top panel of the housing to dissipate heat from an at least one high heat component assembly, formed in part by the at least one high heat producing component, and an at least one other heat component assembly, formed in part by the at least one other heat producing component, to an outside of the bottom panel and an outside of the top panel.

Abstract: Aspects of the disclosure provide a modular control device. The modular control device includes a module base having a main control body having a plurality of first electrical connectors and a plurality of first positioning structures, and an expandable control body having a plurality of first electrical connectors and a plurality of first positioning structures, wherein the expandable control body is movably positioned with respect to the main control body and configured to move between a retracted position and an extended position, and a plurality of electronic modules, each electronic module having a second electrical connector and a plurality of second positioning structures, wherein each electronic module is detachably connectable to the module base via connection of the second electrical connector to one of the first electrical connectors and positioning of the second positioning structures with the first positioning structures for electrical connection and mechanical positioning.

Abstract: An installation assembly configured for mounting a motherboard includes a plurality of parallel mounting rods, each having a plurality of first fastening structures arranged along a longitudinal direction. The installation assembly further includes a tray configured to receive the motherboard and a plurality of second fastening structures disposed on the tray and selectively engageable with the first fastening structures. When disengaged from the first fastening structures, the tray is movable along the longitudinal direction of the mounting rods to adjust a positional relationship between the tray and the mounting rods.

Abstract: A computer power supply unit including a housing, a main board disposed in the housing, at least one high heat producing component disposed on the main board, at least one other heat producing component disposed on the main board, and a heat transfer system is provided. The heat transfer system comprises bottom and top heat transfer devices. Thermal paths are formed between the bottom heat transfer device and a bottom panel of the housing and the top heat transfer device and a top panel of the housing to dissipate heat from an at least one high heat component assembly, formed in part by the at least one high heat producing component, and an at least one other heat component assembly, formed in part by the at least one other heat producing component, to an outside of the bottom panel and an outside of the top panel.

Abstract: A virtual reality control systems includes a base, a dynamic carrier that is disposed on the base and is configured to move along at least one rotational axis, and a control device that is connected to the dynamic carrier and is configured to determine a virtual rotation angle corresponding to a virtual operation, convert the virtual rotation angle into a carrier rotation angle, and control the rotational movement of the dynamic carrier based on the carrier rotation angle. The angle conversion function maps a virtual angle range to a carrier angle range in a nonlinear manner, such that the virtual rotation angle is within the virtual angle range and the carrier rotation angle is within the carrier angle range.

Abstract: A modularized wireless signal receiver includes a plurality of function modules. Each of the function modules is detachably connected another one of the function modules through a transmission line set. The function modules include: an application module, a main control module and a battery module. The main control module includes a wireless communication element electrically coupled to the application module. The wireless communication element is configured to receive a wireless signal and control an operation of the application module accordingly. The battery module includes a battery, and the battery module is electrically coupled to the application module and the main control module. The battery module is configured to provide power to the application module and the main control module.

Abstract: A power supply having a circuit board, a heat dissipation housing, and a plurality of heat-generating assemblies. Each of the heat-generating assemblies includes a thermal conductive core that is thermally in contact with the heat dissipation housing, and a magnetic coil that is disposed on the thermal conductive core and electrically connected to the circuit board, wherein the magnetic coils of the heat-generating assemblies are coaxially arranged and connected in series through the circuit board.

Abstract: A modular power supply is disclosed. The modular power supply includes a power supply unit and an expansion unit. The expansion unit is detachably disposed on the power supply unit and located on one side of the power supply unit in a thickness direction of the modular power supply.

Abstract: A modular power supply is disclosed. The modular power supply includes a power supply unit and an expansion unit. The expansion unit is detachably disposed on the power supply unit and located on one side of the power supply unit in a thickness direction of the modular power supply.

Abstract: A fan including fan frame, fan rotor, at least one light source and first light guide component. Fan frame includes frame body and first assembling structures. Frame body includes outer and inner walls. First assembling structures each comprise extending base and post. Extending base protrudes from outer wall, a part of extending base is spaced apart from outer wall so that a gap is formed therebetween, and post protrudes from a side of extending base located away from outer wall. Light source is disposed on fan frame. First light guide component is engaged with fan frame. A light emitted from light source is configured to be incident on first light guide component. First light guide component includes first wall and second assembling structures. Second assembling structures are connected to first wall and respectively and removably mounted on first assembling structures.

Abstract: A pressurized infusion device and a liquid cooling system are disclosed. The pressurized infusion device includes a liquid storage tank and a pump. The liquid storage tank has a first end and a second end opposite to the first end. The first end has a first connecting structure, and the second end has a second connecting structure. The pump is connected with the first end of the liquid storage tank and has a third connecting structure, a first connecting port, a second connecting port, a third connecting port and a fourth connecting port. The third connecting structure corresponds to the first connecting structure. A pump flow channel from the first connecting port to the second connecting port is formed inside the pump, and a bypass flow channel from the third connecting port to the fourth connecting port is also formed inside the pump.

Abstract: The disclosure provides a luminous fan including a main body, a light guide member and a light source. The main body includes a fan frame and a plurality of propellers, and the plurality of propellers are rotatably mounted on the fan frame. The light guide member includes an outer light guide ring and a plurality of inner light guide rings, the plurality of inner light guide rings are mounted on the fan frame, the plurality of inner light guide rings each have an air channel, the plurality of propellers are respectively located in the air channels, the outer light guide ring is mounted on the plurality of inner light guide rings and surrounds the plurality of inner light guide rings, and the outer light guide ring is exposed from the luminous fan. The light source is disposed between the outer light guide ring and the inner light guide ring.

Abstract: A fan including fan frame, fan rotor, at least one light source and first light guide component. Fan frame includes frame body and first assembling structures. Frame body includes outer and inner walls. First assembling structures each comprise extending base and post. Extending base protrudes from outer wall, a part of extending base is spaced apart from outer wall so that a gap is formed therebetween, and post protrudes from a side of extending base located away from outer wall. Light source is disposed on fan frame. First light guide component is engaged with fan frame. A light emitted from light source is configured to be incident on first light guide component. First light guide component includes first wall and second assembling structures. Second assembling structures are connected to first wall and respectively and removably mounted on first assembling structures.

Abstract: An illumination fan includes a first frame, a second frame, a fan blade, a light guide and a light source. The first frame includes an accommodation space. The second frame is assembled with the first frame, and an inner surface of the second frame is substantially flat. The fan blade is rotatably disposed in the accommodation space. The light source is disposed on either the first frame or the second frame. The light guide is disposed on the first frame and surrounds the fan blade.