Corrugated radiation fin and heat sink using same
a radiation fin and heat sink technology, applied in the field of corrugated radiation fins for heat sinks, can solve the problems of limited heat dissipation surface area, and achieve the effect of increasing the total radiation surface area and enhancing the overall heat dissipation efficiency of the radiation fins
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first embodiment
[0029]Referring to FIGS. 3 and 4, a heat sink in accordance with the present invention is shown. As illustrated, the heat sink comprises a plurality of corrugated radiation fins 1 and a one-piece heat transfer block 2. The one-piece heat transfer block 2 comprises a plurality of mounting grooves 21 arranged in parallel on a top wall thereof. Each corrugated radiation fin 1 comprises a plug portion 11 disposed at a bottom side thereof, a corrugated radiation fin body 12 disposed at a top side thereof, and a transition surface area 13 between the plug portion 11 and the corrugated radiation fin body 12. The plug portions 11 of the corrugated radiation fins 1 are respectively press-fitted into the mounting grooves 21 of the one-piece heat transfer block 2. Further, these corrugated radiation fins 1 have the same size. The corrugated configuration of the corrugated radiation fins 1 provide extended heat dissipation surface area to enhance the overall heat dissipation efficiency of the h...
second embodiment
[0030]Referring to FIGS. 5-7, a heat sink in accordance with the present invention is shown. As illustrated, the heat sink comprises a plurality of corrugated radiation fins 1a, a one-piece heat transfer block 2a, and a plurality of heat pipes 3. Each corrugated radiation fin 1a comprises a plug portion 11a disposed at a bottom side thereof, a corrugated radiation fin body 12a disposed at a top side thereof, a transition surface area 13a between the plug portion 11a and the corrugated radiation fin body 12a, and a plurality of through holes 121a cut through the corrugated radiation fin body 12a at selected locations. The one-piece heat transfer block 2a comprises a plurality of mounting grooves 21a arranged in parallel on a top wall thereof, and a plurality of heat pipe grooves 22a located at a bottom wall thereof. The plug portions 11a of the corrugated radiation fins 1a are respectively press-fitted into the mounting grooves 21a of the one-piece heat transfer block 2a. The heat pi...
fourth embodiment
[0033]Referring to FIGS. 11 and 12, a heat sink in accordance with the present invention is shown. As illustrated, the heat sink comprises a plurality of corrugated radiation fins 1c, two bar-shaped heat transfer blocks 2′, and a plurality of heat pipes 3. Each corrugated radiation fin 1c comprises a plug portion 11c disposed at one side thereof, a corrugated radiation fin body 12c disposed at an opposite side thereof, a transition surface area 13c between the plug portion 11c and the corrugated radiation fin body 12c, and a plurality of through holes 121c cut through the corrugated radiation fin body 12c at selected locations. Further, the plug portion 11c has its one side connected to the transition surface area 12c, and its other side shaped to provide a plurality of heat pipe grooves 111c located in the middle for accommodating the heat pipes 3, two low-level mounting edges 112c disposed at two opposite lateral sides relative to the heat pipe grooves 11c and respectively press-f...
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