Abstract: An electronic device is provided. The electronic device includes: a display panel and a host. The host is electrically connected to the display panel, and includes a processing unit and a graphics processing unit. The processing unit executes a driver program of the graphics processing unit and a specific program to render a display image of the specific program, wherein the display image includes a user interface. The processing unit obtains position information about a static area of the user interface. In response to the processing unit obtaining the position information about the static area of the user interface, the graphics processing unit performs a burn-in-prevention process on the static area via the driver program to generate an output image, and transmits the output image to the display panel for displaying.

Abstract: An electronic device capable of adjusting light emitting frequency includes an oscillator used to generate an oscillation signal, a microcontroller connected to the oscillator, and a light emitting module connected to the microcontroller. The microcontroller is used to define that an oscillation times of the oscillator within a unit time period is an original oscillation times. The microcontroller sets a correspondence between a switching period and the original oscillation times. The microcontroller is further used to receive the oscillation signal to calculate a time elapse. The microcontroller is configured to control on or off of the light emitting module according to the switching period and the time elapse.

Abstract: A moving device which can move autonomously in an environment is provided and includes an image capturing component, a processor, a moving component, and a signal transmitter. The image capturing component captures environmental feature information of the environment during moving process of the moving device. The processor identifies a first location of at least one electronic apparatus in the environment according to the environmental feature information and predetermined feature information corresponding to the at least one electronic apparatus and determines a second location corresponding to the first location according to a remote signal. The moving component causes the moving device to move to the second location. The signal transmitter controlled by the processor. The signal transmitter sends a first signal from the second location to the at least one electronic apparatus to control the operation of the at least one electronic apparatus.

Abstract: A display device is capable of switching between image sources and includes a first transmission interface, a second transmission interface, a first peripheral interface, a system on chip (SOC) and a display panel. The first transmission interface is configured to be coupled to a first electronic device and receive a first image signal from the first electronic device. The second transmission interface is configured to be coupled to a second electronic device and receive a second image signal from the second electronic device. The first peripheral interface is configured to be coupled to a first peripheral device providing input information. The SOC selects at least one of the first and second image signals according to the input information to generate a display signal. The display panel displays an image according to the display signal.

Abstract: A server chassis including a main casing, a support, a hard disk bracket and a retractable engaging member is provided. The main casing includes a lateral plate. The support is fixed to the lateral plate and has an assembling channel and an engaging slot at an end of the assembling channel. The hard disk bracket is detachably disposed at the support and has a first surface towards the support. The retractable engaging member is disposed at the hard disk bracket and has a first base, an engaging portion movably disposed at the first base, a button linked to the engaging portion and a first elastic member located between the button and the engaging portion. The engaging portion is retractably protruded from the first surface of the hard disk bracket and adapted to move in or out of the engaging slot along an edge of the assembling channel of the support.

Abstract: A heat dissipation assembly includes a case and a partition structure. The case includes a cavity, a first water hole, and a second water hole, wherein the cavity includes a first region and a second region communicated with each other. The first water hole and the second water hole are communicated with the first region. The partition structure includes a separation wall and a separation layer connected to each other, wherein the separation wall is vertically disposed in the first region to separate a first flow path and a second flow path disposed in left and right portions in the first region. The separation layer is horizontally disposed in the second region to separate a third flow path and a fourth flow path disposed in upper and lower portions in the second region.

Abstract: A display device is capable of switching between image sources and includes a first transmission interface, a second transmission interface, a first peripheral interface, a system on chip (SOC) and a display panel. The first transmission interface is configured to be coupled to a first electronic device and receive a first image signal from the first electronic device. The second transmission interface is configured to be coupled to a second electronic device and receive a second image signal from the second electronic device. The first peripheral interface is configured to be coupled to a first peripheral device providing input information. The SOC selects at least one of the first and second image signals according to the input information to generate a display signal. The display panel displays an image according to the display signal.

Abstract: A display device capable of switching image sources and including a first transmission interface, a second transmission interface, a system on chip (SOC), and a display panel is provided. The first transmission interface is configured to be coupled to a first electronic device and receive a first image signal and selection information from the first electronic device. The second transmission interface is configured to be coupled to a second electronic device and receive a second image signal from the second electronic device. The SOC selects at least one of the first and second image signals according to the selection information to generate a display signal. The display panel displays an image according to the display signal.

Abstract: A memory clock frequency adjusting method suitable for a computer device is provided. The computer device includes a basic input output system (BIOS) and a memory. The memory clock frequency adjusting method includes following steps. A boot process of the computer device is executed, and the memory is operated at a memory clock frequency set by the BIOS. Whether the computer device is successfully booted is determined by the BIOS to decide whether the boot process of the computer device is to be re-executed. A setting of the memory clock frequency is adjusted by the BIOS when the computer device re-executes the boot process to lower the memory clock frequency, so that the memory is operated at the lowered memory clock frequency. In addition, a mainboard and a computer operating system applying the memory clock frequency adjusting method are also provided.

Abstract: A heat dissipation device is adapted to be disposed on a primary heat source and a secondary heat source. The heat dissipation device includes a water cooling head module and a heat conducting member. The water cooling head module is disposed on the primary heat source. The heat conducting member is thermally coupled to the secondary heat source and extends into the water cooling head module.

Abstract: A circuit board heat dissipation assembly includes a circuit board, a heat sink, a metal back plate, a heat pipe, and a pressing member. The circuit board has a front side and a rear side, and the front side has at least one heat generating area. The heat sink is disposed in the heat generating area. The metal back plate is disposed at a spacing from the rear side of the circuit board. The heat pipe has a first end, a bend segment, and a second end. The first end is connected to the heat sink. The second end is in contact with the metal back plate. The bend segment connects the first end and the second end at a side edge of the circuit board. The pressing member is fixed on the metal back plate and presses the second end onto the metal back plate.

Abstract: A motherboard module is adapted for an M.2 expansion card to configure. The M.2 expansion card includes a connecting end and a fixing end. An edge of the fixing end has a semi-circular hole. The motherboard module includes a motherboard body, a locking member, and an abutting member. The motherboard body includes an expansion card slot, a first fixing hole, and a second fixing hole. The locking member is detachably fixed in the first fixing hole. The abutting member has a first end and a second end. The first end is detachably fixed in the second fixing hole. When the M.2 expansion card is installed on the motherboard module, the abutting member is located between the M.2 expansion card and the motherboard body, and the second end abuts against the M.2 expansion card. An electronic device is further provided.

Abstract: A server chassis including a main casing, a support, a hard disk bracket and a retractable engaging member is provided. The main casing includes a lateral plate. The support is fixed to the lateral plate and has an assembling channel and an engaging slot at an end of the assembling channel. The hard disk bracket is detachably disposed at the support and has a first surface towards the support. The retractable engaging member is disposed at the hard disk bracket and has a first base, an engaging portion movably disposed at the first base, a button linked to the engaging portion and a first elastic member located between the button and the engaging portion. The engaging portion is retractably protruded from the first surface of the hard disk bracket and adapted to move in or out of the engaging slot along an edge of the assembling channel of the support.

Abstract: A motherboard is capable of outputting image data and includes an image transmission port, an on-board video graphics array (VGA) card, a switching circuit, a control circuit, and a first network connection port. The image transmission port is configured to receive an external image signal. The on-board VGA card is configured to provide an internal image signal. The switching circuit selectively uses the external image signal or the internal image signal as image data. The control circuit selectively uses the image data or Ethernet network data as output data. The first network connection port is configured to transmit the output data.

Abstract: A lighting memory device and a memory module are provided. A lighting control circuit receives at least one lighting mode selection signal through lighting mode control pins and controls luminous characteristics of a plurality of light sources according to a lighting control mode corresponding to the lighting mode selection signal.

Abstract: A method for system power management includes steps of detecting power output of plural power-supplying units (PSUs) and power consumption of plural computing node, so as to indirectly obtain real-time auxiliary power consumption of an auxiliary unit and continuously update maximum auxiliary power consumption; when one of the PSUs is malfunctioned, renewing the maximum sum of the power output of the other PSUs, and applying the difference of the renewed maximum sum of the power outputs and the maximum auxiliary power consumption as a first sum of the node power consumptions of the computing nodes; finally, according to the first sum of the node power consumptions, cutting down the power consumption of at least one of the computing nodes to a first node power consumption.

Abstract: A display device capable of automatically adjusting displayed image comprises a display device, a camera assembly, an image recognition device and a signal processor. The display device including a shell and a display panel partially exposed from the shell, wherein the display panel faces a first direction. The camera assembly obtains a first image with a first visual angle and obtain a second image with a second visual angle. The image recognition device generates a first instruction when the first image meets a first condition and generates a second instruction when the second image meets a second condition. The signal processor adjusts the display signal to conceal the displayed image according to the first instruction and to adjust the display signal to generate a reminder message on the displayed image according to the second instruction.

Abstract: A solid-state drive and a performance optimization method for the solid-state drive are provided. The performance optimization method for the solid-state drive includes the following steps: detecting a queue depth of the solid-state drive to determine a use proportion of the queue depth; determining whether an access speed of the solid-state drive is raisable when the use proportion of the queue depth is higher than a first threshold proportion, so as to raise the access speed of the solid-state drive; and determining whether the access speed of the solid-state drive is reduceable when the use proportion of the queue depth is lower than a second threshold proportion, so as to reduce the access speed of the solid-state drive.

Abstract: A pen-shaped folding mouse includes a scroll wheel, two supporting shafts, two rod bodies, two buttons, and an optical sensor. The scroll wheel has an axis line. The two supporting shafts are disposed on two opposite sides of the scroll wheel and are parallel to the axis line. The two rod bodies are located on the two opposite sides of the scroll wheel and are movably disposed on the two supporting shafts. The two rod bodies include two outer surfaces and two first end surfaces close to each other. The two buttons are disposed on the two outer surfaces of the two rod bodies. The optical sensor is located on the outer surface of one of the rod bodies.