Abstract: A vapor chamber and an assembly method thereof are provided. The vapor chamber includes a mesh structure including a main body and an extension part. The main body and the extension part have a capillary-wick structure, respectively. The extension part is extended outwardly from a side of the main body and folded along an intersection between the extension part and the main body. The extension part is stacked on the main body. An overlapping area is formed by stacking the extension part on the main body, and the overlapping area fails to contact with a support structure. The main body is disposed on a first concave of the lower case. The upper case covers the lower case and is assembled with the lower case. A second concave of the upper case and the first concave collaboratively form a space. The mesh structure is accommodated within the space.

Abstract: A heat dissipation assembly is disclosed and includes a fan, a vapor chamber and a heat dissipation fin set. The fan includes a fan frame, an impeller and a fan cover. The impeller is disposed on the fan frame and accommodated in an accommodation space. The impeller includes plural metal blades and a hub, and the plural metal blades are radially arranged on the periphery of the hub to form a dense-metal-blade impeller. The fan cover is assembled with the fan frame to form an outlet, and the fan cover includes an inlet. The vapor chamber includes an upper plate and a lower plate assembled with each other. The upper plate or the lower plate is connected to the fan cover, and the vapor chamber and the fan cover are coplanar. The heat dissipation fin set is connected to the lower plate and spatially corresponding to the outlet.

Abstract: A vapor chamber and an assembly method thereof are provided. The vapor chamber includes a mesh structure including a main body and an extension part. The main body and the extension part have a capillary-wick structure, respectively. The extension part is extended outwardly from a side of the main body and folded along an intersection between the extension part and the main body. The extension part is stacked on the main body. An overlapping area is formed by stacking the extension part on the main body, and the overlapping area fails to contact with a support structure. The main body is disposed on a first concave of the lower case. The upper case covers the lower case and is assembled with the lower case. A second concave of the upper case and the first concave collaboratively form a space. The mesh structure is accommodated within the space.

Abstract: A vapor chamber and an assembly method thereof are provided. The vapor chamber includes a mesh structure including a main body and an extension part. The main body and the extension part have a capillary-wick structure, respectively. The extension part is extended outwardly from a side of the main body and folded along an intersection between the extension part and the main body. The extension part is stacked on the main body. An overlapping area is formed by stacking the extension part on the main body, and the overlapping area fails to contact with a support structure. The main body is disposed on a first concave of the lower case. The upper case covers the lower case and is assembled with the lower case. A second concave of the upper case and the first concave collaboratively form a space. The mesh structure is accommodated within the space.

Abstract: An internal structure of vapor chamber is provided. A first plate has an inner surface. A periphery of the first plate has a sealing edge extending outwardly; a level difference exists between the first plate and the sealing edge. Multiple supporting protrusions are formed on the inner surface of the first plate. A second plate has an inner surface spaced apart from the inner surface of the first plate. The brazing structure has a sealing portion and connecting portions, the sealing portion is fixed between the second plate and the sealing edges of the first plate, and the connecting portions are respectively disposed between the corresponding supporting portions of the first plate and of the second plate. The sealing portion is disposed around a periphery of the second plate to align and contact with the sealing edge.

Abstract: A heat dissipating fin assembly includes a bottom, a plurality of first heat dissipating fins, a plurality of second heat dissipating fins, an inner cover and an outer cover. The first heat dissipating fins extend from an inner end toward an outer end. The second heat dissipating fins are arranged between two of the first heat dissipating fins in staggered. The inner cover is disposed near the inner end and connected to the first heat dissipating fins. The outer cover is disposed near the outer end and connected to the second heat dissipating fins. The inner cover and the outer cover are separated to form an opening, and the dusts entering the heat dissipating fin assembly through the inner end are ejected via the opening. The second heat dissipating fins extend from around the opening to the outer end.

Abstract: A vapor chamber and an assembly method thereof are provided. The vapor chamber includes a mesh structure including a main body and an extension part. The main body and the extension part have a capillary-wick structure, respectively. The extension part is extended outwardly from a side of the main body and folded along an intersection between the extension part and the main body. The extension part is stacked on the main body. An overlapping area is formed by stacking the extension part on the main body, and the overlapping area fails to contact with a support structure. The main body is disposed on a first concave of the lower case. The upper case covers the lower case and is assembled with the lower case. A second concave of the upper case and the first concave collaboratively form a space. The mesh structure is accommodated within the space.

Abstract: A vapor chamber having a first plate, a second plate and a brazing structure is provided. The first plate has an outer surface and an inner surface. A periphery of the first plate has a sealing edge extending outwardly; a level difference exists between the first plate and the sealing edge. Multiple supporting portions are formed on the inner surface of the first plate. The second plate also has an outer surface and an inner surface spaced apart from the inner surface of the first plate, and the second plate covers the first plate to enclose a chamber. The brazing structure has a sealing portion and a plurality of connecting portions, the sealing portion is fixed between the second plate and the sealing edges of the first plate, and the connecting portions are respectively disposed between the corresponding supporting portions of the first plate and of the second plate.

Abstract: A heat dissipating fin assembly includes a bottom, a plurality of first heat dissipating fins, a plurality of second heat dissipating fins, an inner cover and an outer cover. The first heat dissipating fins extend from an inner end toward an outer end. The second heat dissipating fins are arranged between two of the first heat dissipating fins in staggered. The inner cover is disposed near the inner end and connected to the first heat dissipating fins. The outer cover is disposed near the outer end and connected to the second heat dissipating fins. The inner cover and the outer cover are separated to form an opening, and the dusts entering the heat dissipating fin assembly through the inner end are ejected via the opening. The second heat dissipating fins extend from around the opening to the outer end.

Abstract: A fan includes a hub, a plurality of blades, and a heat dissipation module. The blades surround the hub. The heat dissipation module includes a plurality of fins. The fins are disposed around the hub with respect to the blades. The end face of each fin facing the blades includes a noise reduction structure. The noise reduction structure is an inclined plane.

Abstract: A fan includes a hub, a plurality of blades, and a heat dissipation module. The blades surround the hub. The heat dissipation module includes a plurality of fins. The fins are disposed around the hub with respect to the blades. The end face of each fin facing the blades includes a noise reduction structure. The noise reduction structure is an inclined plane.

Abstract: A heat dissipating device includes a fan, a heat dissipating fin assembly and a block. The fan includes a fan frame, an impeller and a motor. The fan frame includes an outlet. The impeller and the motor are disposed in the fan frame, and the motor is connected with the impeller and drives the impeller to rotate. The heat dissipating fin assembly is disposed at the outlet and has a plurality of heat dissipating fins, which are arranged side by side so as to form a plurality of heat dissipating channels. The block is connected with the heat dissipating fin assembly and moveable between a first open position and a first close position. The block shields the heat dissipating channels when the block is located at the first closing position. A hole is configured on a side wall of the fan frame adjacent to the outlet.

Abstract: A heat dissipating fin assembly includes a bottom plate, a plurality of first heat dissipating fins, a plurality of second heat dissipating fins, an inner cover plate and an outer cover plate. The first heat dissipating fins extend from an inner end to an outer end. The second heat dissipating fins are located between two of the first heat dissipating fins. The inner cover plate is disposed at the inner end and connected to the first heat dissipating fins. The outer cover plate is disposed at the outer end and connected to the second heat dissipating fins. The outer cover plate and the inner cover plate are separated so as to form an opening. The second heat dissipating fins extend from around the opening to the outer end. The length of the first heat dissipating fins is larger than that of the second heat dissipating fins.

Abstract: An exemplary electronic device includes a circuit board defining apertures therein, an electronic component arranged on the circuit board and surrounded by the apertures, a heat spreader arranged on the electronic component, and a latching mechanism fixing the heat spreader to the electronic component. The latching mechanism includes latching arms extending outwards from the heat spreader and elastic poles. Each latching arm defines a latching hole aligned with one of the apertures of the circuit board. The poles respectively extend through the apertures and the latching holes in turn. Each pole includes a main body engaged in the corresponding latching hole and a head resiliently abutting against the latching arm.

Abstract: An exemplary electronic device includes a circuit board defining apertures therein, an electronic component arranged on the circuit board and surrounded by the apertures, a heat spreader arranged on the electronic component, and a latching mechanism fixing the heat spreader to the electronic component. The latching mechanism includes latching arms extending outwards from the heat spreader and elastic poles. Each latching arm defines a latching hole aligned with one of the apertures of the circuit board. The poles respectively extend through the apertures and the latching holes in turn. Each pole includes a main body engaged in the corresponding latching hole and a head resiliently abutting against the latching arm.

Abstract: A rotary total heat exchange apparatus includes at least an air-providing member, a first air passage and a second air passage, a sensible heat exchanger (21), and a total heat exchange wheel (1). The air-providing member provides a first airflow from outdoors and a second airflow from indoors into the rotary total heat exchange apparatus. The first and second air passages isolate from each other for guiding the first and second airflows respectively passing through. The sensible heat exchanger spans across the first and second air passages simultaneously for conducting a sensible heat exchange between the first and second airflows. The total heat exchange wheel is capable of rotating through the first and second air passages for conducting a total heat exchange between the first and second airflows.

Abstract: A rotary total heat exchange apparatus (30) includes at least an air-providing member (3301), a first air passage and a second air passage, and a total heat exchange wheel (3311). The air-providing member provides a first airflow from outdoors and a second airflow from indoors into the rotary total heat exchange apparatus. The first and second air passages isolate from each other for guiding the first and second airflows respectively passing through the heat exchange wheel. The total heat exchange wheel faces to the first and second airflows provided by the air-providing member, and is capable of rotating through the first and second air passages for conducting a total heat exchange between the first and second airflows.

Abstract: A rotary total heat exchange apparatus (30) includes at least an air-providing member (3301), a first air passage and a second air passage, and a total heat exchange wheel (3311). The air-providing member provides a first airflow from outdoors and a second airflow from indoors into the rotary total heat exchange apparatus. The first and second air passages isolate from each other for guiding the first and second airflows respectively passing through the heat exchange wheel. The total heat exchange wheel faces to the first and second airflows provided by the air-providing member, and is capable of rotating through the first and second air passages for conducting a total heat exchange between the first and second airflows.

Abstract: A rotary total heat exchange apparatus includes at least an air-providing member, a first air passage and a second air passage, a sensible heat exchanger (21), and a total heat exchange wheel (1). The air-providing member provides a first airflow from outdoors and a second airflow from indoors into the rotary total heat exchange apparatus. The first and second air passages isolate from each other for guiding the first and second airflows respectively passing through. The sensible heat exchanger spans across the first and second air passages simultaneously for conducting a sensible heat exchange between the first and second airflows. The total heat exchange wheel is capable of rotating through the first and second air passages for conducting a total heat exchange between the first and second airflows.