MULTI-CHANNEL HIGH-EFFICIENCY HEAT DISSIPATION WATER-COOLING RADIATOR

Abstract

A multi-channel high-efficiency heat dissipation water-cooling radiator includes a water distribution box, a water collection box, a first radiating pipe, a second radiating pipe, a third radiating pipe, and a fourth radiating pipe. Multiple chambers are formed by arranging partitions in both the water distribution box and the water collection box, and each radiating pipe is in communication with the corresponding chambers, so that the channels in the water-cooling radiator are connected in sequence to form a circuitous configuration. This allows the water to travel a longer distance in the water-cooling radiator, so that the water-cooling radiator can effectively cool the water and dissipate heat.

Description

BACKGROUND OF THE INVENTION

1. Field of the Invention

The present invention relates to a radiator, and more particularly to a multi-channel high-efficiency heat dissipation water-cooling radiator.

2. Description of the Prior Art

A water-cooling radiator is configured to radiate the heat of the radiator using a liquid under the action of a pump. Compared with air cooling, the water-cooling radiator has the advantages of quietness, stable cooling, and less dependence on the environment. The heat dissipation performance of the water-cooling radiator is proportional to the flow rate of a cooling liquid (water or other liquid). The flow rate of the cooling liquid is related to the power of the pump in the cooling system. Moreover, the heat capacity of water is large. This makes the water-cooling system have a good heat load capacity.

A conventional water-cooling radiator assembly usually consists of a water-cooling radiator, a water-cooling block, and a water pipe. The water pipe is connected between the water-cooling radiator and the water-cooling block. The water pipe allows the water to circulate in the water-cooling radiator and the water-cooling block. After the water absorbs the heat from the water-cooling block, the water flows to the water-cooling radiator for heat dissipation, and the water after heat dissipation flows back to the water-cooling block.

In the prior art, the channels of the water-cooling radiator of the water-cooling radiator assembly are U-shaped. This results in that the water travels a short distance in the water-cooling radiator, so the water-cooling radiator cannot effectively cool the water and dissipate heat. Therefore, it is necessary to improve the conventional water-cooling radiator.

SUMMARY OF THE INVENTION

In view of the defects of the prior art, the primary object of the present invention is to provide a multi-channel high-efficiency heat dissipation water-cooling radiator, which can effectively solve the problem that the conventional water-cooling radiator cannot effectively cool the water and dissipate heat.

In order to achieve the above object, the present invention adopts the following technical solutions:

A multi-channel high-efficiency heat dissipation water-cooling radiator comprises a water distribution box, a water collection box, a first radiating pipe, a second radiating pipe, a third radiating pipe, and a fourth radiating pipe.

The water distribution box is made of a heat-dissipating metal material. A plurality of first partitions is provided in the water distribution box to divide an inside of the water distribution box into a water inlet chamber, a transition chamber and a water outlet chamber. The water distribution box is formed with a water inlet, a water outlet, a first installation groove, a second installation groove and a third installation groove. The water inlet and the first installation groove communicate with the water inlet chamber. The water outlet and the second installation groove communicate with the water outlet chamber. The third installation groove communicates with the transition chamber.

The water collection box is made of a heat-dissipating metal material. At least one second partition is provided in the water collection box to divide an inside of the water collection box into a first water collection chamber and a second water collection chamber. The water collection box is formed with a fourth installation groove and a fifth installation groove. The fourth installation groove communicates with the first water collection chamber. The fifth installation groove communicates with the second water collection chamber.

The first radiating pipe, the second radiating pipe, the third radiating pipe and the fourth radiating pipe are all provided with radiating fins. One end of the first radiating pipe is hermetically installed in the first installation groove and communicates with the water inlet chamber. Another end of the first radiating pipe is hermetically installed in the corresponding fourth installation groove and communicates with the first water collection chamber. One end of the second radiating pipe is hermetically installed in the corresponding third installation groove and communicates with the transition chamber. Another end of the second radiating pipe is hermetically installed in the corresponding fourth installation groove and communicates with the first water collection chamber. One end of the third radiating pipe is hermetically installed in the third installation groove and communicates with the transition chamber. Another end of the third radiating pipe is hermetically installed in the corresponding fifth installation groove and communicates with the second water collection chamber. One end of the fourth radiating pipe is hermetically installed in the second installation groove and communicates with the water outlet chamber. Another end of the fourth radiating pipe is hermetically installed in the corresponding fifth installation groove and communicates with the second water collection chamber.

Compared with the prior art, the present invention has obvious advantages and beneficial effects. Specifically, it can be known from the above technical solutions:

Multiple chambers are formed by arranging partitions in both the water distribution box and the water collection box, and each radiating pipe is in communication with the corresponding chambers, so that the channels in this product are connected in sequence to form a circuitous configuration. This allows the water to travel a longer distance in the water-cooling radiator, so that the water-cooling radiator can effectively cool the water and dissipate heat. The overall heat dissipation effect of the product is very good.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is an exploded view according to a first embodiment of the present invention;

FIG. 2 is a top view according to the first embodiment of the present invention;

FIG. 3 is an exploded view according to a second embodiment of the present invention; and

FIG. 4 is a top view according to the second embodiment of the present invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

FIG. 1 and FIG. 2 show the specific structure of a first embodiment of the present invention, comprising a water distribution box 10, a water collection box 20, a first radiating pipe 31, a second radiating pipe 32, a third radiating pipe 33, and a fourth radiating pipe 34.

The water distribution box 10 is made of a heat-dissipating metal material. A plurality of first partitions 11 is provided in the water distribution box 10 to divide the inside of the water distribution box 10 into a water inlet chamber 101, a transition chamber 102 and a water outlet chamber 103. The water distribution box 10 is formed with a water inlet 104, a water outlet 105, a first installation groove 106, a second installation groove 107 and a third installation groove 108. The water inlet 104 and the first installation groove 106 communicate with the water inlet chamber 101. The water outlet 105 and the second installation groove 107 communicate with the water outlet chamber 103. The third installation groove 108 communicates with the transition chamber 102. Specifically, the water distribution box 10 includes a first box body 12 and a first box cover 13. The first partitions 11 are installed in the first box body 12 by welding or integrally formed with the first box body 12. The first box cover 13 and the first box body 12 are hermetically connected together to form the water inlet chamber 101, the transition chamber 102 and the water outlet chamber 103. The water inlet 104 and the water outlet 105 are arranged on the first box body 12. A water inlet pipe joint 41 is hermetically connected to the water inlet 104. A water outlet pipe joint 42 is hermetically connected to the water outlet 105. The first installation groove 106, the second installation groove 107 and the third installation groove 108 are all arranged on the first box cover 13. The water inlet pipe joint 41 is inserted in the water inlet 104 and is hermetically fixed to the first box body 12 by welding. The water outlet pipe joint 42 is inserted in the water outlet 105 and is hermetically fixed to the first box body 12 by welding. The first box body 12 and the first box cover 13 are made of copper or aluminum. The first box cover 13 is hermetically fixed to the first box body 12 by welding.

The water collection box 20 is made of a heat-dissipating metal material. At least one second partition 21 is provided in the water collection box 20 to divide the inside of the water collection box 20 into a first water collection chamber 201 and a second water collection chamber 202. The water collection box 20 is formed with a fourth installation groove 203 and a fifth installation groove 204. The fourth installation groove 203 communicates with the first water collection chamber 201. The fifth installation groove 204 communicates with the second water collection chamber 202. Specifically, the water collection box 20 includes a second box body 22 and a second box cover 23. The second partition 21 is installed in the second box body 22 by welding or integrally formed with the second box body 22. The second box cover 23 and the second box body 22 are hermetically connected together to form the first water collection chamber 201 and the second water collection chamber 202. The fourth installation groove 203 and the fifth installation groove 204 are arranged on the second box cover 23. The second box body 22 and the second box cover 23 are made of copper or aluminum. The second box cover 23 is hermetically fixed to the second box body 22 by welding.

The first radiating pipe 31, the second radiating pipe 32, the third radiating pipe 33 and the fourth radiating pipe 34 are all provided with radiating fins 50. In this embodiment, the first radiating pipe 31, the second radiating pipe 32, the third radiating pipe 33 and the fourth radiating pipe 34 are all heat-dissipating metal flat pipes. Of course, they may be heat-dissipating metal round pipes, but not limited thereto. Both ends of the first radiating pipe 31, the second radiating pipe 32, the third radiating pipe 33 and the fourth radiating pipe 34 are welded and fixed to the water distribution box 10 and the water collection box 20, respectively.

One end of the first radiating pipe 31 is hermetically installed in the first installation groove 106 and communicates with the water inlet chamber 101, and the other end of the first radiating pipe 31 is hermetically installed in the corresponding fourth installation groove 203 and communicates with the first water collection chamber 201. In this embodiment, the first radiating pipe 31 includes two first radiating pipes arranged side by side at an interval, but not limited thereto.

One end of the second radiating pipe 32 is hermetically installed in the corresponding third installation groove 108 and communicates with the transition chamber 102, and the other end of the second radiating pipe 32 is hermetically installed in the corresponding fourth installation groove 203 and communicates with the first water collection chamber 201. In this embodiment, the second radiating pipe 32 includes two second radiating pipes arranged side by side at an interval, but not limited thereto.

One end of the third radiating pipe 33 is hermetically installed in the third installation groove 108 and communicates with the transition chamber 102, and the other end of the third radiating pipe 33 is hermetically installed in the corresponding fifth installation groove 204 and communicates with the second water collection chamber 202. In this embodiment, the third radiating pipe 33 includes two third radiating pipes arranged side by side at an interval, but not limited thereto.

One end of the fourth radiating pipe 34 is hermetically installed in the second installation groove 107 and communicates with the water outlet chamber 103, and the other end of the fourth radiating pipe 34 is hermetically installed in the corresponding fifth installation groove 204 and communicates with the second water collection chamber 202. In this embodiment, the fourth radiating pipe 34 includes six fourth radiating pipes arranged side by side at intervals, but not limited thereto.

In addition, two fan brackets 60 are connected between the water distribution box 10 and the water collection box 20. The two fan brackets 60 are bilaterally symmetrical. The first radiating pipe 31, the second radiating pipe 32, the third radiating pipe 33 and the fourth radiating pipe 34 are located between the two fan brackets 60, so that the overall structure of the product is more stable, and a fan can be installed and fixed.

The working principle of this embodiment is described in detail as follows:

When in use, as shown in FIG. 2, water with a higher temperature flows into the water inlet chamber 101 from the water inlet pipe joint 41. Then, the water flows through the first radiating pipe 31, the first water collection chamber 201, the second radiating pipe 32, the transition chamber 102, the third radiating pipe 33, the second water collection chamber 202, the fourth radiating pipe 34 and the water outlet chamber 103. Finally, the water flows out from the water outlet pipe joint 42. The temperature of the water gradually decreases as it flows through the water inlet chamber 101, the first radiating pipe 31, the first water collection chamber 201, the second radiating pipe 32, the transition chamber 102, the third radiating pipe 33, the second water collection chamber 202, the fourth radiating pipe 34 and the water outlet chamber 103. The temperature of the water output from the water outlet pipe joint 42 is low, which achieves a good cooling effect.

FIG. 3 and FIG. 4 show the specific structure of a second embodiment of the present invention. The specific structure of the second embodiment is substantially similar to the specific structure of the first embodiment with the exceptions described hereinafter.

This embodiment includes two transition chambers 102. The two transition chambers 102 are located between the water inlet chamber 101 and the water outlet chamber 103. A third water collection chamber 205 is formed in the water collection box 20. The third water collection chamber 205 is located between the first water collection chamber 201 and the second water collection chamber 202. The water collection box 20 is formed with a sixth installation groove 206. The sixth installation groove 206 communicates with the third water collection chamber 205. Each transition chamber 102 is in communication with the third water collection chamber 205 through a fifth radiating pipe 35. One end of each fifth radiating pipe 35 is hermetically installed in the corresponding third installation groove 108, and the other end of each fifth radiating pipe 35 is hermetically installed in the corresponding sixth installation groove 206. In this way, the water can travel a longer distance, so as to achieve a better cooling effect.

The working principle of this embodiment is the same as that of the aforementioned first embodiment, and the working principle of this embodiment will not be described in detail here.

Claims

1. A multi-channel high-efficiency heat dissipation water-cooling radiator, comprising a water distribution box, a water collection box, a first radiating pipe, a second radiating pipe, a third radiating pipe, and a fourth radiating pipe; the water distribution box being made of a heat-dissipating metal material, a plurality of first partitions being provided in the water distribution box to divide an inside of the water distribution box into a water inlet chamber, a transition chamber and a water outlet chamber, the water distribution box being formed with a water inlet, a water outlet, a first installation groove, a second installation groove and a third installation groove, the water inlet and the first installation groove communicating with the water inlet chamber, the water outlet and the second installation groove communicating with the water outlet chamber, the third installation groove communicating with the transition chamber;the water collection box being made of a heat-dissipating metal material, at least one second partition being provided in the water collection box to divide an inside of the water collection box into a first water collection chamber and a second water collection chamber, the water collection box being formed with a fourth installation groove and a fifth installation groove, the fourth installation groove communicating with the first water collection chamber, the fifth installation groove communicating with the second water collection chamber;the first radiating pipe, the second radiating pipe, the third radiating pipe and the fourth radiating pipe being all provided with radiating fins; one end of the first radiating pipe being hermetically installed in the first installation groove and communicating with the water inlet chamber, another end of the first radiating pipe being hermetically installed in the corresponding fourth installation groove and communicating with the first water collection chamber; one end of the second radiating pipe being hermetically installed in the corresponding third installation groove and communicating with the transition chamber, another end of the second radiating pipe being hermetically installed in the corresponding fourth installation groove and communicating with the first water collection chamber; one end of the third radiating pipe being hermetically installed in the third installation groove and communicating with the transition chamber, another end of the third radiating pipe being hermetically installed in the corresponding fifth installation groove and communicating with the second water collection chamber; one end of the fourth radiating pipe being hermetically installed in the second installation groove and communicating with the water outlet chamber, another end of the fourth radiating pipe being hermetically installed in the corresponding fifth installation groove and communicating with the second water collection chamber.

2. The multi-channel high-efficiency heat dissipation water-cooling radiator as claimed in claim 1, wherein the transition chamber includes two transition chambers, the two transition chambers are located between the water inlet chamber and the water outlet chamber, a third water collection chamber is formed in the water collection box, the third water collection chamber is located between the first water collection chamber and the second water collection chamber, the water collection box is formed with a sixth installation groove, the sixth installation groove communicates with the third water collection chamber, each transition chamber is in communication with the third water collection chamber through a fifth radiating pipe, one end of each fifth radiating pipe is hermetically installed in the corresponding third installation groove, and another end of each fifth radiating pipe is hermetically installed in the corresponding sixth installation groove.

3. The multi-channel high-efficiency heat dissipation water-cooling radiator as claimed in claim 1, wherein the water distribution box includes a first box body and a first box cover, the first partitions are installed in the first box body by welding or integrally formed with the first box body, the first box cover and the first box body are hermetically connected together to form the water inlet chamber, the transition chamber and the water outlet chamber.

4. The multi-channel high-efficiency heat dissipation water-cooling radiator as claimed in claim 3, wherein the water inlet and the water outlet are arranged on the first box body, a water inlet pipe joint is hermetically connected to the water inlet, a water outlet pipe joint is hermetically connected to the water outlet; the first installation groove, the second installation groove and the third installation groove are all arranged on the first box cover.

5. The multi-channel high-efficiency heat dissipation water-cooling radiator as claimed in claim 4, wherein the water inlet pipe joint is inserted in the water inlet and is hermetically fixed to the first box body by welding, and the water outlet pipe joint is inserted in the water outlet and is hermetically fixed to the first box body by welding.

6. The multi-channel high-efficiency heat dissipation water-cooling radiator as claimed in claim 3, wherein the first box body and the first box cover are made of copper or aluminum, and the first box cover is hermetically fixed to the first box body by welding.

7. The multi-channel high-efficiency heat dissipation water-cooling radiator as claimed in claim 1, wherein the water collection box includes a second box body and a second box cover, the second partition is installed in the second box body by welding or integrally formed with the second box body, the second box cover and the second box body are hermetically connected together to faun the first water collection chamber and the second water collection chamber.

8. The multi-channel high-efficiency heat dissipation water-cooling radiator as claimed in claim 7, wherein the fourth installation groove and the fifth installation groove are arranged on the second box cover.

9. The multi-channel high-efficiency heat dissipation water-cooling radiator as claimed in claim 7, wherein the second box body and the second box cover are made of copper or aluminum, and the second box cover is hermetically fixed to the second box body by welding.

10. The multi-channel high-efficiency heat dissipation water-cooling radiator as claimed in claim 1, wherein two fan brackets are connected between the water distribution box and the water collection box, the two fan brackets are bilaterally symmetrical, the first radiating pipe, the second radiating pipe, the third radiating pipe and the fourth radiating pipe are located between the two fan brackets, the first radiating pipe, the second radiating pipe, the third radiating pipe and the fourth radiating pipe are all heat-dissipating metal flat pipes or heat-dissipating metal round pipes.