Compound heat-dissipating device
a heat dissipating device and compound technology, applied in semiconductor devices, solid-state devices, heat exhanger fins, etc., can solve the problems of not being able to combine in a firm way, and achieve the effect of enhancing heat dissipation efficiency and combining area and conductive area
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first embodiment
[0020]Please refer to FIGS. 1 and 2, which are perspective exploded views of a compound heat-dissipating device according to the instant disclosure. The instant disclosure provides a compound heat-dissipating device 100, which includes a conductive base 10 and a heat-dissipating body 20. The conductive base 10 is embedded with a bottom of the heat-dissipating body 20. For a preferable embodiment of material arrangement, the conductive base 10 can be made of copper, and the heat-dissipating body 20 can be made of aluminum. Such arrangement utilizes copper which has higher heat-conductive coefficient for conducting with a surface of the heat-generating device and transferring to the heat-dissipating body 20 to dissipate heat. The copper material of conductive base could be copper or copper alloy. However, the instant disclosure is not limited thereto, it can be an assembly of different metals such as aluminum, copper, steel, or alloy thereof. Further, the manufacturing method can be M...
second embodiment
[0028]Refer to FIGS. 5 and 6, which are perspective exploded views of a compound heat-dissipating device according to a second embodiment of the instant disclosure. In this embodiment, the difference between this compound heat-dissipating device 100′ and the above embodiment is that, the conductive base 10′ has a plurality of different-shaped combining portions 16, the combining portions 16 are T-shaped in cross-sectional view. Each combining portion 16 has a top end which is rectangular-shaped, and has a level portion 161 and a neck portion 162 extended from the level portion 161 to the first top surface 12 of the conductive base 10. The heat-dissipating body 20′ is formed with a plurality of combining grooves 216 corresponding with the combining portions 16 of the concave portion 210. Such T-shaped structure can prevent a split between the heat-dissipating body 20′ and the conductive base 10′. The distribution of the combining portions 16 is similar to the first embodiment.
[0029]R...
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