Abstract: A heat dissipation system of a portable electronic device including a first processing element, a second processing element, a heat dissipation module located between the first processing element and the second processing element, a first heat transferring member, and a second heat transferring member, is provided. The first processing element has a first region and a second region. The first heat transferring member is in thermal contact with the first region, the second processing element, and the heat dissipation module. The second heat transferring member is in thermal contact with the second region and the heat dissipation module.

Abstract: A system and method for image projection are provided. The method includes: obtaining, by a processor, a projection image; obtaining, by the processor, a first matrix corresponding to a projection target; converting, by the processor, the projection image into an output projection image for projecting to the projection target according to the first matrix; and projecting, by a projector, the output projection image to the projection target.

Abstract: A distance measuring device and a distance measuring method are provided. The distance measuring device includes a vehicle, a scanning unit and a processing unit. The scanning unit includes a light-emitting unit and a light-receiving unit. The scanning unit and the processing unit are disposed on the vehicle. The processing unit is electronically coupled to the scanning unit. The vehicle is configured to move on a plane. The light-emitting unit is configured to emit a light beam along an emission direction, wherein the emission direction of the light beam is not parallel to the plane. The light-receiving unit is configured to receive a reflective light of the light beam reflected by an object. The processing unit is configured to determine a distance between the vehicle and the object according to the reflective light.

Abstract: A motion guiding apparatus includes a guiding device and a mobile unit. The guiding device includes a main body, an arm piece, and a linear light source. The main body is in connection with the arm piece and arranged on a reference surface. The linear light source is arranged on the arm piece and forms a reference light line on the reference surface and a direct light line on the main body. The mobile unit is capable of capturing an image showing the reference light beam, the direct light beam, and a reflected light line. The mobile unit can also compute an angle formed between the reference light line and the reflected light line to obtain a relative angle between the mobile unit and the linear light source, so as to move in accordance to the relative angle. A motion guiding method is also provided.

Abstract: A liquid cooling heat dissipation module adapted to be disposed on a heat source of a motherboard is provided. The liquid cooling heat dissipation module includes a heat conducting member, a first tank, a pump and a first agitating member. The heat conducting member is adapted to be thermally coupled to the heat source. The first tank is filled with cooling liquid, and the cooling liquid thermally couples with the heat conducting member. The pump is connected through with the first tank to drive the cooling liquid to flow along a direction. The first agitating member is disposed on a flowing path of the cooling liquid so as to homogenize a temperature of the cooling liquid.

Abstract: A liquid cooling apparatus includes a heat exchange module and a cooling module. The heat exchange module includes a liquid outlet and a liquid outlet. The cooling module includes a first body, a second body, a first cooling component and a cooling duct. The first body is connected to the liquid outlet. The second body is connected to the liquid outlet, and the first body is disposed above the second body. The first cooling component is disposed between the first body and the second body. The cooling duct is connected to the first body and the second body, and the cooling duct is in thermal contact with the first cooling component.

Abstract: A cleaning robot is disclosed. A first sensing unit generates a sensing signal to a transmittal line according to an external wireless signal. When the external wireless signal is sensed by the first sensing unit, a state of the transmittal line does not match with a pre-determined state. When the external wireless signal is not sensed by the first sensing unit, the state of the transmittal line matches with the pre-determined state. A control unit generates a movement signal when the state of the transmittal line matches with the pre-determined state. A plurality of wheels rotate according to the movement signal. A second sensing unit generates a second sensing signal according to the external environment of the cleaning robot. When the state of the transmittal line does not match with the pre-determined state, the control unit adjusts the movement signal according to the second sensing signal.

Abstract: An embodiment of the invention provides a control method for a cleaning robot with a quasi-omnidirectional detector and a directional light detector. The method includes: rotating the non-omnidirectional light detector when the non-omnidirectional light detector detects a light beam; when the non-omnidirectional light detector does not detect the light beam, the non-omnidirectional light detector is stopped from being spun and a rotation angle is estimated; determining a rotation direction according to the rotation angle; rotating the cleaning robot according to the rotation direction; stopping the rotation of the cleaning robot when the directional light detector detects the light beam.

Abstract: An embodiment of the invention provides a control method of a cleaning robot with a non-omnidirectional light detector. The method includes the steps of: detecting a light beam via the non-omnidirectional light detector; stopping the cleaning robot and spinning the non-omnidirectional light detector when the non-omnidirectional light detector detects the light beam; stopping the spinning of the non-omnidirectional light detector and estimating a first spin angle when the non-omnidirectional light detector does not detect the light beam; and adjusting a moving direction of the cleaning robot according to the first spin angle.

Abstract: A display device includes a backlight module, a backlight control module and a flicker removing module. The backlight module electrically connected between an input pin and an output pin which belong to the backlight control module, provides a backlight source to a display panel. The input pin receives a first voltage to control a continuity of an input current which is supplied to the backlight module and has no frequency variation. The flicker removing module electrically connected to the output pin receives a pulse width modulation signal and according to a duty cycle of the pulse width modulation signal, controls an output current outputted by the output pin, so as to control the backlight control module to control the input current according to the output current. The input current is associated with a backlight brightness of the backlight module.

Abstract: An plug storage structure of a cleaning robot is presented. A charging structure includes a charging base and a main body of an electronic device. The charging base includes a charging terminal and a projecting portion. The main body has an external housing, charging plugs and an plug storage device. When the main body reaches the charging base, the projecting portion triggers the plug storage device, so that the charging plugs protrude from the external housing, so as to be connected to the charging terminal. When the main body leaves the charging base, the plug storage device automatically receives the charging plugs inside the external housing, so as to keep the plugs of the cleaning robot received inside the external housing during cleaning, thereby preventing the plugs of the cleaning robot from colliding with and damaging adjacent furniture.

Abstract: A cleaning path guidance method combined with a dirt detection mechanism is performed in an automatic cleaning device to generate a cleaning path, so as to guide the automatic cleaning device to clean an area to be cleaned, in which plural grids are defined in the area. The method includes: moving the automatic cleaning device in the area to clear dirt away, and continuously detecting a flow of the dirt cleared away to obtain a dirt level of a current gird; if the dirt level of the current gird exceeds a threshold, marking the grid as a dirty grid; performing an algorithm and finding a shortest path passing through all dirty grids as a cleaning path according to the marked dirty grids; and moving the automatic cleaning device to pass through each dirty grid according to the clean path, so as to clean each dirty gird sequentially.

Abstract: A cleaning robot cleaning a specific region and including a movement module, a sound wave module, a cleaning module and a controlling module is provided. The movement module includes a plurality of wheels. The sound wave module emits a sound wave and receives a plurality of reflected waves. The cleaning module performs a cleaning function. The controlling module generates a contour according to the reflected waves and controls at least one of the movement module and the cleaning module according to the contour.

Abstract: A computer and a control method for smart fan thereof are provided, wherein the computer includes a processor configured to control a smart fan under an UETFI bios mode. A sensed temperature value from a temperature sensor, and a current speed value of the smart fan are acquired. A real-time temperature curve and a real-time speed curve are traced in a dynamic updating zone of a graphical interface respectively according to the current temperature and the current speed value. A first control point and a second control point, which correspond to the smart fan, are obtained via a control zone of the graphical interface. A control curve is traced in the graphical interface according to the first and second control points. The speed of the smart fan is controlled according to the control curve.

Abstract: A transmission assembly and a wheel thereof are presented, and the wheel includes a wheel frame and a tire skin. The wheel frame has a ring-shaped joint surface surrounding the wheel frame, and the joint surface is disposed with at least one slot. The slot has two opposite side walls and at least one stopping wall, and the stopping wall is located between the two side walls. The tire skin is ring-shaped. The tire skin is sleeved on the wheel frame, and attached to the joint surface. The tire skin has at least one protruding rib, and the protruding rib is located in the slot. The stopping wall limits displacement of the protruding rib in a direction of a wheel shaft, and the two side walls limit displacement of the protruding rib in a direction of rotation, thus achieving a good combination effect between the tire skin and the wheel frame.

Abstract: A heat dissipation device for being in thermal contact with a heat source includes multiple heat dissipation fins, a heat pipe and a fan. Each of the heat dissipation fins includes a plate and an air guiding body. The plate has a thermal contact side used for being in thermal contact with the heat source. An acute angle is formed between an extension side of the air guiding body and the thermal contact side. The heat pipe penetrates through the plates. The fan used for forming an air current is installed at a side of the heat dissipation fin opposite to the thermal contact side. The air guiding body and the heat pipe are disposed in a flowing path of the air current. Thereby, the air current is guided toward the heat pipe and the amount of air flowing through the heat pipe is increased.

Abstract: A facial recognition method for eliminating the effect of noise blur and environmental variations is provided, applicable to a data processing apparatus, to determine whether a current-face-image matches a reference-face-image or not. According to the method, Gaussian Noise blur Reduction or another noise blur reduction method is performed on the current-face-image and the reference-face-image. Furthermore, the current-face-image and the reference-face-image are respectively divided into a plurality of blocks, so as to derive feature-vector sets representing the current-face-image and the reference-face-image. Finally a dynamic threshold value is determined according to environmental variations to be compared with the difference of the feature-vector sets, so as to determine whether a current-face-image matches a reference-face-image.

Abstract: The dust container is disposed in the dust collector, so as to receive dirt drawn by the dust collector. The dust container includes a fastening device. The dust container can be taken out from the dust collector by operating the fastening device in one operation, and then installed back into the dust collector after the dirt is cleared away, thereby completing actions of disassembling, assembling and clearing the dust container quickly and cleanly.

Abstract: A dust collection container, capable of being installed in a vacuum cleaner, includes a case body and a blocking member. The blocking member is disposed in the case body to separate the case body into a dust chamber and a diversion chamber, a suction inlet corresponding to the dust chamber and an exhaust opening corresponding to the diversion chamber are disposed in the case body, and a barrier piece is disposed at the blocking member opposite to the suction inlet, so as to form a slow flow area between the barrier piece and the suction inlet to effectively disperse dirt.

Abstract: A main board and a method for dynamically configuring PCIE ports thereof. The main board comprises a PCIE slot, a detecting circuit, an ROM, a chipset and a modifying circuit. The chipset comprises a Management Engine controller and several PCIE ports. The chipset has a Management Engine function or a similar function. The detecting circuit detects the PCIE slot to generate a current state parameter. The ROM stores a default configuration data. The modifying circuit coupled between the chipset and the ROM determines whether the default configuration data needs to be modified according to the current state parameter. When the default configuration data needs to be modified, the modifying circuit modifies the default configuration data according to the current state parameter, so that the Management Engine controller initially configures the PCIE ports according to the modified default configuration data. Thus, the dynamical configuration of the chipset PCIE ports is realized.