LED semiconductor device based on graphene material technology to achieve circulating heat dissipation effect
A technology of circulating heat dissipation and graphene, which is applied in the direction of semiconductor devices, electric solid devices, electrical components, etc., can solve the problems of affecting normal walking, large light source components, and increased space occupied by light source components, so as to improve heat dissipation efficiency and improve The effect of utilization
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Embodiment 1
[0032] see Figure 1-4 , the inner plate 230 is set in the cavity, please refer to Figure 5 As shown, the inner plate 230 has an arc-shaped structure, and the bottom end is connected to the inner wall of the outer plate 210 near the flow hole 240. At this time, an inlet cavity 211 is formed at the bottom of the outer plate 210, and a squeeze is formed between the inner plate 230 and the inner wall of the outer plate 210. The pressure cavity 212 and the circulation cavity 213 are formed in the inner plate 230, and the graphene structure is arranged in the inner plate 230 to form an integral structure with it. In this way, when in use, the LED semiconductor device works to generate hot gas. First, the density of the hot gas decreases due to expansion. As a result, it moves upwards into the entry cavity 211, and then enters the extrusion cavity 212 from the entry cavity 211. At this time, the distance between the inner plate 230 and the outer plate 210 gradually decreases to slo...
Embodiment 2
[0034] see Image 6 As shown, an inner column 2131 is set in the circulation chamber 213, specifically at the center of the inner plate 230. The inner column 2131 is fixedly connected to the inner wall of the side plate 220. When in use, the hot gas in the squeeze chamber 212 decelerates and enters the circulation chamber 213 directly. and flow around the inner column 2131, the graphene structure is set in the inner column 2131 and forms an integral structure with it, so that the hot air dissipates heat when it surrounds the inner column 2131, thereby improving the heat dissipation intensity in the inner column 2131 , and then discharged through the flow holes 240 after heat dissipation.
Embodiment 3
[0036] see Figure 7 As shown, a plurality of guide columns 2132 are arranged in the circulation cavity 213, and the guide columns 2132 are arranged in a spiral shape in the circulation cavity 213. The graphene structure is arranged in the flow guide columns 2132 and forms an integral structure with them. When in use, the hot gas After entering the circulation chamber 213, the diversion pillars 2132 are dispersed in the circulation chamber 213 and circulated in a spiral shape, which not only increases the contact area between the hot gas and the diversion pillars 2132, but also delays its circulation time in the circulation chamber 213, Further ensure the effect of heat dissipation.
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