Abstract: An electronic device including an electronic module, a casing, and at least one air port is provided. The casing accommodates the electronic module. The air port is disposed on the casing to communicate the inside of the box to the outside. The air port includes an inclined blocking element. The inclined blocking element has a plurality of inclined openings, and the inclined openings are inclined relative to a horizontal direction.

Abstract: An electronic device including an electronic module, a casing, and at least one air port is provided. The casing accommodates the electronic module. The air port is disposed on the casing to communicate the inside of the box to the outside. The air port includes an inclined blocking element. The inclined blocking element has a plurality of inclined openings, and the inclined openings are inclined relative to a horizontal direction.

Abstract: A device is suitable for controlling a rotation-speed of a fan of a display. The device includes a temperature sensor for sensing a current temperature of the display, a memory for storing the current temperature of the display and a first and a second setting-temperature and a control module coupled to the temperature sensor and the memory and adapted to couple to the fan of the display. The control module compares the current temperature of the display with the first and the second setting-temperatures and judging the variation of the current temperature of the display to control the rotation-speed of the fan. If the control module judges out the current temperature of the display sensed by the temperature sensor rises, the control module raises the rotation-speed of the fan when the rotation-speed of the fan is lower than a maximum rotation-speed.

Abstract: A display device includes a casing, a display panel, a transparent plate, a fixing pillar, at least one flow-guiding component, and a fan. The casing has front, back and side surfaces. The back surface has a first airflow passage. The display panel is disposed in the casing. The transparent plate is disposed on the front surface. A second airflow passage is foamed between the display panel and the transparent plate. The fixing pillar is disposed between the first and second airflow passages for fixing the display panel. The flow-guiding component is disposed in the second airflow passage and adjacent to the side surface. The fan is disposed on the back surface and provides a heat-dissipation airflow. The heat-dissipation airflow flows through the first airflow passage and the fixing pillar and arrives at the flow-guiding component, and flows in the second airflow passage after being guided by the flow-guiding component.

Abstract: A display device includes a casing, a display panel, a transparent plate, a fixing pillar, at least one flow-guiding component, and a fan. The casing has front, back and side surfaces. The back surface has a first airflow passage. The display panel is disposed in the casing. The transparent plate is disposed on the front surface. A second airflow passage is foamed between the display panel and the transparent plate. The fixing pillar is disposed between the first and second airflow passages for fixing the display panel. The flow-guiding component is disposed in the second airflow passage and adjacent to the side surface. The fan is disposed on the back surface and provides a heat-dissipation airflow. The heat-dissipation airflow flows through the first airflow passage and the fixing pillar and arrives at the flow-guiding component, and flows in the second airflow passage after being guided by the flow-guiding component.

Abstract: A device is suitable for controlling a rotation-speed of a fan of a display. The device includes a temperature sensor for sensing a current temperature of the display, a memory for storing the current temperature of the display and a first and a second setting-temperature and a control module coupled to the temperature sensor and the memory and adapted to couple to the fan of the display. The control module compares the current temperature of the display with the first and the second setting-temperatures and judging the variation of the current temperature of the display to control the rotation-speed of the fan. If the control module judges out the current temperature of the display sensed by the temperature sensor rises, the control module raises the rotation-speed of the fan when the rotation-speed of the fan is lower than a maximum rotation-speed.

Abstract: A light source module including a planar light source, a heat dissipation medium, and a heat dissipation element are disclosed. The planar light source includes a light box, electrodes, and an insulation layer. The light box has a light emitting surface and a bottom surface opposite to the light emitting surface. The electrodes and the insulation layer are disposed on the bottom surface, and the insulation layer covers the electrodes. The heat dissipation medium is disposed on the insulation layer. The heat dissipation element includes conductive contact portions contacting the heat dissipation medium and a conductive connection portion connecting the conductive contact portions, wherein the orthographic projections of the conductive contact portions and the orthographic projections of the electrodes on the bottom surface are not overlapped by each other, and airflow channels are formed between the conductive contact portions, the conductive connection portion, and the heat dissipation medium.

Abstract: A display includes a frame, a liquid crystal panel device, a flat light source device, a bracket structure, and a driving circuit board. The liquid crystal panel device and the flat light source device are disposed on the frame. The flat light source device has an illuminant surface toward the liquid crystal panel device. A first airway is formed between the flat light source and the liquid crystal panel device. The driving circuit board is fixed on the bracket structure and electrically connected with the liquid crystal panel device. A gap is formed between the driving circuit board and the flat light source to be an outlet of the first airway. The surface of the driving circuit board and the illuminant surface form an included angle, and the included angle is greater than or equal to 5 degrees and less than or equal to 135 degrees.

Abstract: A flat panel display including a base frame, a display panel module, and a heat-conductive structure is provided. The base frame includes a control unit. The display panel module is disposed in the base frame and includes a back bracket, a first heating element, and a second heating element. The first heating element and the second heating element are disposed in the back bracket and electrically connected to the control unit. A first distance is formed between the back bracket and the base frame to define a first air passage, a second distance is formed between the back bracket and the base frame to define a second air passage, and the first distance is shorter than the second distance. The heat-conductive structure is disposed in the first air passage, and the position of the heat-conductive structure is corresponding to the position of the first heating element.

Abstract: A display includes a frame, a liquid crystal panel device, a flat light source device, a bracket structure, and a driving circuit board. The liquid crystal panel device and the flat light source device are disposed on the frame. The flat light source device has an illuminant surface toward the liquid crystal panel device. A first airway is formed between the flat light source and the liquid crystal panel device. The driving circuit board is fixed on the bracket structure and electrically connected with the liquid crystal panel device. A gap is formed between the driving circuit board and the flat light source to be an outlet of the first airway. The surface of the driving circuit board and the illuminant surface form an included angle, and the included angle is greater than or equal to 5 degrees and less than or equal to 135 degrees.

Abstract: A flat panel display including a base frame, a display panel module, and a heat-conductive structure is provided. The base frame includes a control unit. The display panel module is disposed in the base frame and includes a back bracket, a first heating element, and a second heating element. The first heating element and the second heating element are disposed in the back bracket and electrically connected to the control unit. A first distance is formed between the back bracket and the base frame to define a first air passage, a second distance is formed between the back bracket and the base frame to define a second air passage, and the first distance is shorter than the second distance. The heat-conductive structure is disposed in the first air passage, and the position of the heat-conductive structure is corresponding to the position of the first heating element.

Abstract: A light source module including a planar light source, a heat dissipation medium, and a heat dissipation element are disclosed. The planar light source includes a light box, electrodes, and an insulation layer. The light box has a light emitting surface and a bottom surface opposite to the light emitting surface. The electrodes and the insulation layer are disposed on the bottom surface, and the insulation layer covers the electrodes. The heat dissipation medium is disposed on the insulation layer. The heat dissipation element includes conductive contact portions contacting the heat dissipation medium and a conductive connection portion connecting the conductive contact portions, wherein the orthographic projections of the conductive contact portions and the orthographic projections of the electrodes on the bottom surface are not overlapped by each other, and airflow channels are formed between the conductive contact portions, the conductive connection portion, and the heat dissipation medium.

Abstract: A heat-dissipating structure for a flat panel display comprises a heat-collector plate, a soft thermal-pad and at least one heat-sink component. The heat-collector plate is made of metal material having a first-face, a second-face and a plurality of edge-sides. The first-face is contact with a back-bezel of the flat panel display. The soft thermal-pad is made of soft material with high thermal conductivity. The soft thermal-pad has a bottom-face and a top-face. The bottom-face is contact with the second-face. The top-face is contact with a heat-sink structure of an electric unit of the flat panel display. The heat-sink component is connected with at least one of the edge-side of the heat-collector plate. The heat-sink component is capable of conducting heat and expanding heat sink area.

Abstract: An exhausting structure used in a rear projection TV has a ventilating chamber inside a casing of the TV to separate an optical engine from the casing. A fan is mounted in the ventilating chamber near the optical engine to ventilate the heat from the inside of the TV via a conduit and an outlet. The fan is isolated from outside of the TV to reduce any noise generated from the fan.

Abstract: This invention provides a cooling apparatus for a light source disposed in a housing, which comprises a light source, a fan device, and an air-flow guiding device. The light source is capable of providing an optical energy propagating outward in an optical path. The fan device is disposed in a predetermined distance for producing airflow. The air-flow guiding device is disposed between the light source and the fan device for guiding the airflow towards the light source to cool down the light source.

Abstract: A cooling device for a reflective liquid crystal image kernel has an air duct unit on the external case, which is separated into front and rear end ducts and has an axial fan blowing downward. A guide plane has both of its lateral sides aslant downward to guide part of the air flow blown from the axial fan to the split air duct of each light valve on the outer side of the air duct unit to cool the outer surface of three light valves fixed on the outer case of the kernel. The air blown downward from the axial fan passes through the front and the rear air ducts of the air duct unit directly, and passing through the ventilation holes of the external case into the optical components such that a single fan is used to enhance heat dispersion and reduce noise.

Abstract: A cooling apparatus for a light valve of the present invention includes a control box disposed on the back of the light valve to actuate the light valve, followed by a heat pipe and a heat-conducting component pasted upon the inner surface of the control box. The heat-conducting component is connected to a heat-collecting end of the heat pipe and one of its surface contacts with the light valve. The heat of the light valve is conducted to the second part of the control box through the heat-conducting component, and then the heat is conducted to the second part of the control box via the heat pipe pasted upon it. Thus, the heat of the light valve can be removed through the large area of the second part of control box, so as to increase the cooling efficiency and simplify the cooling apparatus.

Abstract: The cooling apparatus for illumination system of optical engine of the present invention includes: illumination system that has a lamp base for its light source, wherein the lamp has an air duct body fixed on one side of the lamp base, wherein there is at least one partition separating the air duct body into a plurality of air ducts of different surface areas, and an external air duct extending one of the air ducts from underneath the air duct body to outside of the air duct body, wherein a fan installed on the air duct body takes in air through each of the air ducts and the external air duct to cool the illumination system, thus improving the cooling efficiency of the fans, while reducing the volume of cooling air needed from the fans, lowering the cost and reducing the noise from the fans.

Abstract: The present invention sucks the air from the fan at the top of the imaging assembly of the optical engine and blows the air via the air duct device downward. Some of the air is guided by the diversion board, aslant guiding surface, and aslant isolating board of the air duct device and blown into the imaging assembly for cooling the optical components. Some of the air is guided through a first air duct, a second air duct, and a third air duct extended from the outside of this main body respectively to the outer surface of the light valves. Further, some of the airflow is guided into a branch air duct and blown to a vent of the imaging assembly. By means of the changing direction diversion board, the airflow is guided towards the polarizer module, and flows out from a vent on the other side.

Abstract: An exhausting structure used in a rear projection TV has a ventilating chamber inside a casing of the TV to separate an optical engine from the casing. A fan is mounted in the ventilating chamber near the optical engine to ventilate the heat from the inside of the TV via a conduit and an outlet. The fan is isolated from outside of the TV to reduce any noise generated from the fan.