Abstract: A rapid heat dissipation device is provided to use for a heat source, and includes a heat conducting plate, a heat dissipating fin group, one or a plurality of heat pipes and a siphon heat-dissipating device. The heat conducting plate is thermally attached to the heat source. The heat dissipating fin group is arranged on one side of the heat conducting plate. One end of the heat pipe is fixed to the heat conducting plate, and another end is fixed to the heat dissipating fin group. The siphon heat-dissipating device is stacked above the heat pipe, and one end is fixed to the heat-conducting plate and another end is fixed to the heat-dissipating fin group. Through the siphon heat-dissipating device overlapping up and down with the heat pipe and having the same direction to achieve uniformly heat dissipating and cooling.

Abstract: A removal mechanism of the daughter board includes a fixed frame, a moving frame, a moved frame and a handle. The fixed frame has a pushed portion. The moving frame is movably coupled to the fixed frame and has an oblique tapered edge. The moved frame is fixed to the daughter board and has a corresponding oblique edge. The handle is rotatably connected to the moving frame and has a pushing portion, and the pushed portion is on a rotation path that the pushing portion rotates with the handle. When the handle is operated, the pushing portion pushes the pushed portion, the moving frame moves relative to the fixed frame to push the corresponding oblique edge by the oblique tapered edge. The moved frame drives the daughter board to be removed from the connector.

Abstract: A removable self-unlocking structure includes a case and a frame body. The case has a latching portion. The frame body includes a frame plate, and the frame plate is disposed with a positioning structure. The positioning structure includes a slot and an elastic arm exposed in the slot. When the frame body is exerted by an external force, and the elastic arm is capable of positioning at the latching portion or detaching from the latching portion, so that the frame body can slide relative to the case for increasing the convenience of use.

Abstract: A heat dissipation apparatus includes a heat sink unit, a flow guiding structure and a fan. In addition, the heat sink unit includes a base and a fin set arranged on the base. The flow guiding structure includes an air shield and an engagement frame arranged at one end of the air shield. The air shield includes an enclosure space formed at an internal thereof. The enclosure space includes an opening formed at two ends of the air shield respectively, and the air shield covers an exterior of the fin set with the enclosure space. The engagement frame is selectively arranged at an exterior of any one of the openings of the air shield; and a fan is arranged on the engagement frame.

Abstract: A method for remotely clearing abnormal status of racks includes following steps: obtaining each information of a rack management controller (RMC) and multiple baseboard management controllers (BMCs) of a rack regularly by a management system; recording each operating action performed by manager through the management system; analyzing the information and the operating action by the management system for determining whether any RMC or BMC is under one of multiple default attention-statuses; and, automatically performing a remotely service re-starting procedure to one of the RMC and the BMCs for preventing the RMC or the BMC from occurring an abnormal status when the RMC or the BMC is determined keeping a connection with the management system but about to occur the abnormal status.

Abstract: A method for remotely clearing abnormal status of racks includes following steps: obtaining each information of a rack management controller (RMC) and multiple baseboard management controllers (BMCs) of a rack regularly by a management system; recording each operating action performed by manager through the management system; analyzing the information and the operating action by the management system for determining whether any RMC or BMC is under one of multiple default attention-statuses; and, automatically performing a remotely rescuing procedure to one of the RMC and the BMCs for eliminating an abnormal connection status from the RMC or the BMC when the RMC or the BMC is determined losing a connection with the management system.

Abstract: A hard drive rack ventilation structure includes a primary rack, a plurality of secondary racks and hard drive units. The secondary racks are stacked in layers and assembled inside the primary rack. Each secondary rack includes a top portion and side portions extended downward from two sides thereof, and the two side portions include corresponding sliding tracks thereon. The hard drive units are installed on the sliding tracks of the secondary racks. Each hard drive unit includes a hard drive main body and a handle installed at a front thereof. A gap is formed between the handle and the hard drive main body. A top front edge of each secondary rack includes a hollow portion formed corresponding to the gap of each hard drive unit. The hollow portions and the gaps of the hard drive units are fluidly and vertically connected to form an airflow ventilation channel.

Abstract: A power-outputting management method includes following steps. When a plurality of power-supplying apparatuses are in a working interval, if an output power ratio of the power-supplying apparatus in a working status is less than an output power ratio standard, at least one of the power-supplying apparatuses in the working status is turned off, so that the output power ratio of the power-supplying apparatus in the working status increases and meets the output power ratio standard. When the power-supplying apparatuses are in the working interval, if the output power ratio of the power-supplying apparatus in the working status meets the output power ratio standard, a power capping of the power-supplying apparatuses is set based on an actual power consumption of an electronic apparatus.

Abstract: A buckle structure includes a buckling base and a buckling shaft. An axial hole is defined in the buckling base, an axial channel extending along an axial direction of the axial hole and a circumferential channel extending along a circumferential direction of the axial hole are defined on an internal surface of the axial hole, an opening is defined at an end of the axial channel and the other end of the axial channel communicates with the circumferential channel, the axial channel is provided with a movable block blocking between the axial channel and the circumferential channel and able to selectively retreat from the axial channel and the circumferential channel. The buckling shaft is inserted in the axial hole; a latch protruding from a lateral surface of an end of the buckling shaft is able to move through the opening and along the axial channel and the circumferential channel.

Abstract: A server heat dissipation channel structure, used in a server having a plurality of heat generating sources installed therein, includes an upper guiding shield, a lower guiding shield and a fan. The upper guiding shield includes an upper entrance section and a flow guiding channel extended therefrom. The lower guiding shield includes a lower entrance section and a first heat dissipation channel extended therefrom. The fan includes an air output plane facing toward the upper entrance section and the lower entrance section correspondingly at the same time. In addition, the upper guiding shield includes a downward slanted channel at a rear end of the flow guiding channel opposite from a rear end of the first heat dissipation channel and a second heat dissipation channel extended from the first heat dissipation channel. The first and second heat dissipating channels respectively pass through different heat generating sources installed inside the server.

Abstract: A heat dissipation device including a mounting seat, a fan hung on the mounting seat and a frame connected with the fan is provided. The fan has an air outlet and an air inlet opposite to the air outlet, the air inlet is disposed facing to the mounting seat, the frame is arranged surrounding the air inlet and clamped between the mounting seat and the air inlet. Thereby, a back flowing hot airflow is prevented from being sucked into the air inlet.

Abstract: An intellectual rack includes a rack management system, a rack management controller (RMC), a set of internal hardware lines, a plurality of server slots, and multiple servers respectively arranged in the server slots. The RMC is connected with each baseboard management controller (BMC) of each server through the set of internal hardware lines. The rack management system determines whether a server is replaced through the RMC and the set of internal hardwire lines, and confirms a target server slot of the replacing action when determining that one of the servers is replaced. Further, the rack management system assigns an IP address binding to the target server slot for the BMC of the newly-replaced server to replace an IP address currently used by the BMC of the newly-replaced server, so as to keep the binding effect among the target server slot, the newly-replaced server and the IP address.

Abstract: A conveying apparatus with a lift mechanism includes a carrier, a holder, and a lift handle. The holder is pivoted to the carrier and swings between an operating angle and a maintenance angle. A first arm of the lift handle has an acting end, a resistance end, and a second pivot disposed between the acting end and the resistance end and pivoted to the holder. The first arm further has a protruding length protruding from the bottom side of the holder. When the first arm rotates around the second pivot, the resistance end protrudes the protruding length from the bottom side to rest against the carrier and the holder is lifted to the maintenance angle using the protruding length. Therefore, the storage devices in the holder, originally difficult to be maintained, can be lifted and maintained simply and quickly.

Abstract: A JBOD apparatus (1) having a hard disk drive (HDD) expander (11), a switch (13) and a BMC module (12) is disclosed. The HDD expander (11) is connected to a plurality of hard drives (5) respectively. The switch (13) connects the HDD expander (11) with a connecting port (14) for enabling a first transmission channel, or connects the HDD expander (11) with the BMC module (12) for enabling a second transmission channel. The BMC module (12) is connected to an Ethernet through a network port (17). The HDD expander (11) initially receives a wired transmitted command through the first transmission channel. When the BMC module (12) receives an Ethernet transmitted command through the Ethernet, it controls the switch (13) to change for enabling the second transmission channel, therefore, the BMC module (12) executes an interactive operation with the HDD expander (11) in accordance with the Ethernet transmitted command.

Abstract: A computer device includes a holding structure, a motherboard module and a cover plate. The holding structure includes a holder and a frame. The holder includes a supporting face and an end edge. The frame is connected to the supporting face and arranged adjacent to the end edge. The frame includes an opening and a top bar. The motherboard module, including I/O ports disposed in the opening, is installed on the supporting face. The cover plate covers the opening, a bottom portion of the cover plate is detachably connected to the end edge with a positioning structure, a top portion of the cover plate is detachably connected to the top bar with a fastening structure, the cover plate includes through slots, and the I/O ports are inserted through or disposed corresponding to the through slots respectively, so that the computer device facilitates easy and flexible assembly.

Abstract: A chassis structure capable of sensing temperature of a media storage device includes a tray. The tray includes a body, an accommodating space formed in the body, a connector disposed on the body, and a temperature sensor juxtaposed with the connector. The media storage device is electrically coupled to the connector and contacts the temperature sensor. A working temperature is measured by a temperature sensor directly attached to an outer housing of the media storage device, thereby avoiding influences such as air flow and undesired heat conduction of the chassis structure.

Abstract: A method for controlling and adjusting fans of the electronic apparatus is disclosed and comprises following steps: controlling a fan to operate according to a default value after an electronic apparatus is booted; obtaining operating watt value of a CPU after detecting that the temperature of the CPU reaches a set-point; inquiring one of a learning table and a pre-established neural-network data array for obtaining a PWM value and P,I,D parameters corresponding to the operating watt value; performing an error adjustment process to the obtained PWM value through a PID controller; controlling the operation of the fan according to the adjusted PWM value; storing the adjusted PWM value to the learning table if the temperature of the CPU equals the set-point; and, continuing to obtain, adjust and store the PWM value to continuously control the operation of the fan before the electronic apparatus is powered off.

Abstract: A chassis self-unlock mechanism includes a tray, a handle assembly and a locking arm. The handle assembly includes a fixed base, a handle and a slider connected to the handle. The fixed base is fixed on the tray, and the slider is movably connected with the fixed base. The locking arm is attached to the tray, an end of the locking arm is fixed to the tray, an actuating slope inclined with respect to the locking arm is formed on the locking arm, a latch laterally protrudes from the locking arm, and the latch protrudes out of an outer surface of the tray. The slider is movable to push the actuating slope, so that the locking arm is bent, and the latch retracts into the tray.

Abstract: A modular protective housing structure for a rack includes a bottom portion of the rack having a plurality of rollers installed thereon; the module protective housing structure including a chassis having a base and an outer cover configured to surround the base thereon; the outer cover having a front opening; and a front door panel pivotally attached to the base; the front door panel configured to cover onto the front opening and placed on a ground; the front door panel having a plurality of slanted ribs attached to the ground; wherein when the front door panel is placed on the ground, the rack slides into the chassis from the ground along the front door panel, and positions of the slanted ribs are arranged corresponding to positions of the rollers. Therefore, effects of cost saving and supporting ability of the front door panel are achieved.