Abstract: Provided is a backlight unit including, a bracket on which a light emitting device array is disposed, and a bottom cover on which the bracket is disposed, the bottom cover supporting an optical member, wherein a fixing member to removably fix is provided on the bottom cover, the side and top of the fixing member are flat and the cross-sectional area of a lower part of the fixing member is equal to or less than the cross-sectional area of an upper part of the fixing member.

Abstract: A backlight unit is disclosed. The backlight unit includes a light emitting device array including a plurality of light emitting devices, an optical sheet to transmit light emitted from the light emitting device array, a frame to support the light emitting device array and the optical sheet, and at least two heat dissipating members placed on the frame in an emission direction of light from the light emitting device array. The heat dissipating member disposed at the center has a greater area than the heat dissipating member disposed at the perimeter.

Abstract: Provided is a backlight unit including, a bracket on which a light emitting device array is disposed, and a bottom cover on which the bracket is disposed, the bottom cover supporting an optical member, wherein a fixing member to removably fix is provided on the bottom cover, the side and top of the fixing member are flat and the cross-sectional area of a lower part of the fixing member is equal to or less than the cross-sectional area of an upper part of the fixing member.

Abstract: A backlight unit is disclosed. The backlight unit includes a light emitting device array including a plurality of light emitting devices, an optical sheet to transmit light emitted from the light emitting device array, a frame to support the light emitting device array and the optical sheet, and at least two heat dissipating members placed on the frame in an emission direction of light from the light emitting device array. The heat dissipating member disposed at the center has a greater area than the heat dissipating member disposed at the perimeter.

Abstract: A cooling apparatus for a circuit module having a substrate extending axially with an IC chip of a first type and IC chips of a second type mounted thereon, comprising: a first heat spreading element disposed to form a heat conduction path with the IC chip of the first type; and a second heat spreading element disposed to form a heat conduction path with the IC chips of the second type, wherein there is at least one IC chip of the second type mounted axially away from opposite sides of the IC chip of the first type, wherein the first type of IC chip is capable of generating a larger amount of heat than the second type of IC chips, and the first heat spreading element has a higher thermal conductivity than the second heat spreading element.

Abstract: In a memory module, a gap filler for eliminating an air gap may be formed on an end of a PCB where a tab may be formed. The gap filler may be formed on a surface of a socket receiving the memory module. A grease may be coated on the tab to provide a heat conduction path away from the memory module.

Abstract: In a memory module, a gap filler for eliminating an air gap may be formed on an end of a PCB where a tab may be formed. The gap filler may be formed on a surface of a socket receiving the memory module. A grease may be coated on the tab to provide a heat conduction path away from the memory module.

Abstract: A semiconductor stack package includes lower and upper individual packages. When the upper individual package is stacked on the lower individual package, a heat-conducting layer provided under the upper package touches a heat-mediating layer provided on the lower package. Thus, a layer of trapped air found in conventional stack packages is eliminated, and a direct heat-dissipating path is produced through both the heat-conducting layer and the heat-mediating layer. Therefore, the heat dissipation of the stack package is improved. Alternatively, the stack package may have a symmetric configuration in which each IC chip faces away from each other. A memory module has several stack packages mounted on one or both surfaces of a module board. The method includes forming the packages and stacking the packages. The method further includes forming a module board and mounting the stack packages on the module board.

Abstract: A semiconductor module, including a semiconductor device mounted on a printed circuit board (PCB), the PCB having an electrical connection to the semiconductor module, and a heat sink in direct contact with the semiconductor device, the heat sink being formed with a first end and a second end, the first end and the second end being formed with different heights, wherein the semiconductor module allows air flow to pass through the semiconductor module, radiating heat away from the heat sink. Another semiconductor module, including a semiconductor device mounted on a PCB, a heat sink in direct contact with the semiconductor device, the heat sink having a first portion and a second portion, wherein the first portion has a flat shape and is in direct contact with the semiconductor device and the second portion has a corrugated shape and is not in contact with the semiconductor device, wherein the semiconductor module allows air flow to pass through the semiconductor module, radiating heat away from the heat sink.

Abstract: A semiconductor module, including a semiconductor device mounted on a printed circuit board (PCB), the PCB having an electrical connection to the semiconductor module, and a heat sink in direct contact with the semiconductor device, the heat sink being formed with a first end and a second end, the first end and the second end being formed with different heights, wherein the semiconductor module allows air flow to pass through the semiconductor module, radiating heat away from the heat sink. Another semiconductor module, including a semiconductor device mounted on a PCB, a heat sink in direct contact with the semiconductor device, the heat sink having a first portion and a second portion, wherein the first portion has a flat shape and is in direct contact with the semiconductor device and the second portion has a corrugated shape and is not in contact with the semiconductor device, wherein the semiconductor module allows air flow to pass through the semiconductor module, radiating heat away from the heat sink.

Abstract: The semiconductor chip package may include a substrate having circuit patterns and substrate pads connected with the circuit patterns. At least one semiconductor chip is mounted on the substrate, and a thermoelectric cooler having a P-type material plate and an N-type material plate is mounted on the semiconductor chip. Portions of the P-type and N-type material plates may be attached on the semiconductor chip. The P-type and N-type material plates may be electrically connected to the circuit patterns of the substrate to be provided with DC power.

Abstract: In one embodiment, a semiconductor package structure includes a heat dissipative element connected to an internal circuit. The semiconductor package includes a semiconductor chip, an interconnection substrate, and a heat dissipative element. The semiconductor chip includes an internal circuit and inner pads that connect the internal circuit. The interconnection substrate is disposed below the semiconductor chip and includes input/output terminals. At least one of the inner pads is electrically connected to at least one of the input/output terminals. The heat dissipative element is disposed on the semiconductor chip and is electrically connected to at least one of the inner pads.

Abstract: A cooling apparatus for a circuit module having a substrate extending axially with an IC chip of a first type and IC chips of a second type mounted thereon, comprising: a first heat spreading element disposed to form a heat conduction path with the IC chip of the first type; and a second heat spreading element disposed to form a heat conduction path with the IC chips of the second type, wherein there is at least one IC chip of the second type mounted axially away from opposite sides of the IC chip of the first type, wherein the first type of IC chip is capable of generating a larger amount of heat than the second type of IC chips, and the first heat spreading element has a higher thermal conductivity than the second heat spreading element.

Abstract: In one embodiment, a heat-dissipating member includes a heat-dissipating body, a heat-transferring body and an attaching member. The heat-dissipating body externally dissipates heat originating in a heat source. The heat-transferring member is interposable between the heat-dissipating body and the heat source. The attaching member is placed on a surface of the heat-dissipating body and corresponds to the heat-transferring body so as to couple the heat-transferring member to the heat-dissipating body. Thus, heat generated from the heat source, such as a semiconductor element, rapidly dissipates through the heat-transferring member and externally through the heat-dissipating body.

Abstract: A multi-chip package having a heat dissipating path. The multi-chip package includes a stack of integrated circuit (IC) chips, a heat sink part interposed between the IC chips so that one end portion of the heat sink part can be exposed from a side of the stack of integrated circuit chips, a substrate on which the stack of integrated circuit chips is mounted, and solder or solder ball-shaped thermally connecting parts to thermally connect the exposed end portion of the heat sink part to the substrate to dissipate heat collected in the heat sink part through the substrate.

Abstract: The semiconductor chip package may include a substrate having circuit patterns and substrate pads connected with the circuit patterns. At least one semiconductor chip is mounted on the substrate, and a thermoelectric cooler having a P-type material plate and an N-type material plate is mounted on the semiconductor chip. Portions of the P-type and N-type material plates may be attached on the semiconductor chip. The P-type and N-type material plates may be electrically connected to the circuit patterns of the substrate to be provided with DC power.

Abstract: In a memory module, a gap filler for eliminating an air gap may be formed on an end of a PCB where a tab may be formed. The gap filler may be formed on a surface of a socket receiving the memory module. A grease may be coated on the tab to provide a heat conduction path away from the memory module.

Abstract: A semiconductor module, including a semiconductor device mounted on a printed circuit board (PCB), the PCB having an electrical connection to the semiconductor module, and a heat sink in direct contact with the semiconductor device, the heat sink being formed with a first end and a second end, the first end and the second end being formed with different heights, wherein the semiconductor module allows air flow to pass through the semiconductor module, radiating heat away from the heat sink. Another semiconductor module, including a semiconductor device mounted on a PCB, a heat sink in direct contact with the semiconductor device, the heat sink having a first portion and a second portion, wherein the first portion has a flat shape and is in direct contact with the semiconductor device and the second portion has a corrugated shape and is not in contact with the semiconductor device, wherein the semiconductor module allows air flow to pass through the semiconductor module, radiating heat away from the heat sink.

Abstract: A semiconductor stack package includes lower and upper individual packages. When the upper individual package is stacked on the lower individual package, a heat-conducting layer provided under the upper package touches a heat-mediating layer provided on the lower package. Thus, a layer of trapped air found in conventional stack packages is eliminated, and a direct heat-dissipating path is produced through both the heat-conducting layer and the heat-mediating layer. Therefore, the heat dissipation of the stack package is improved. Alternatively, the stack package may have a symmetric configuration in which each IC chip faces away from each other. A memory module has several stack packages mounted on one or both surfaces of a module board. The method includes forming the packages and stacking the packages. The method further includes forming a module board and mounting the stack packages on the module board.