TWM482059U - Heat exchange device - Google Patents

Description

Heat exchange device

This creation relates to a heat exchange device, and more particularly to a device for allowing liquid to circulate and thereby function.

A heat exchanger has been widely designed and used, and is applied to various industrial fields. The heat exchanger typically includes a fluid passage having an inlet and an outlet for liquid to enter from the inlet and exit through the outlet. The foregoing heat exchanger is characterized in that fins are extended on the surface of the fluid passage, and the purpose thereof is to transfer heat of the liquid flowing through the passage, thereby achieving the purpose of lowering the temperature of the liquid in the fluid passage. The aforementioned heat exchangers are commonly used in cooling water tanks of the automobile industry, or in cold-discharging or heat-discharging of refrigerating and air-conditioning equipment; in general, the heat exchangers are generally in the form of plates, so that they are correspondingly installed. The position may be limited by its shape; or the heat exchanger usually has fins extending on its surface, and the temperature is still indirect through the fins, and the heat dissipation efficiency is due to the thermal conductivity of the material. In addition, the heat exchanger must form a sealed pipeline passage through a complicated brazing step, and the contact point between the fin and the pipeline plate is also welded. In the manner of connection, the solder joint is hindered by the temperature transfer; therefore, the heat exchanger has the problem of insufficient heat dissipation performance or failure to achieve the desired heat dissipation effect.

In view of this, how can we provide a structural design mode that is free from the traditional enthalpy, so that the heat exchanger can overcome the aforementioned problems, which improves the heat exchange efficiency, reduces the probability of failure, and can be used for multi-product installation applications, that is, the case The creators want to study the direction of improvement. The second purpose of the present invention is to provide an aqueous liquid action device, which utilizes liquid hydrogen to reduce the structure of the water liquid molecular group, thereby increasing the permeability and solubility of the water liquid, providing human body drinking and domestic water, or A water treatment device that washes, cleans, and soaks various items to enhance their benefits.

For this purpose, the present invention includes a first spiral plate and a second spiral plate. The first spiral plate and the second spiral plate are both a spiral plate. After the first spiral plate and the second spiral plate are stacked, An adjacent and non-contacting channel is formed between the two, and the upper end edge and the lower end edge of the channel form a closed end, so that the vertical side end of the inner side of the channel is the first flow port, and the outer vertical end is the second flow port; The liquid is introduced into the channel from the first flow port, flows through the spiral channel, and is output from the second flow port.

The first flow port formed by the first spiral plate and the second spiral plate is pivotally connected to the first flow pipe, so that the first flow pipe passes through the first flow port and penetrates the passage; and the second flow port is A second flow tube is pivotally connected to allow the second flow tube to pass through the second flow port and penetrate the passage.

10‧‧‧First spiral plate

20‧‧‧Second spiral plate

30‧‧‧ channel

31‧‧‧closed end

32‧‧‧ first circulation

33‧‧‧second circulation

34‧‧‧First flow tube

35‧‧‧second flow tube

A‧‧‧ spacing

The first figure shows a molded perspective view of the creation embodiment (1); The second figure shows a perspective view of the creation of the present embodiment (2); the third figure shows the planar structure of the present embodiment; and the fourth figure shows the heat dissipation diagram of the present creation.

The technical content, features and advantages of the present invention will be apparent from the following detailed description of the preferred embodiments. In addition, the present invention is specifically described before it is described in detail, and the drawings are intended to explain the basic structure of the present invention in a schematic manner, and thus only the structures or elements related to the present invention are shown in the drawings, and the structures shown are shown. The shape, size, proportion, or number of components are a selective design, which is described first.

The structure of the case and the efficiencies it can achieve are described below with the following diagram:

First, please refer to the first and second figures for the perspective view of the preferred embodiment of the present invention; and the third figure for the preferred cross-sectional view of the preferred embodiment of the present invention. As shown in the above figure, the present invention mainly includes a first spiral plate 10 and a second spiral plate 20, the first spiral plate 10 is a spiral plate, and the second spiral plate 20 is also a spiral plate. The first spiral plate 10 and the second spiral plate 20 have adjacent and non-contacting passages 30. The upper end edge and the lower end edge of the passage 30 form a closed end 31, so that the vertical side of the inner side of the passage 30 is the first flow port. 32. The outer vertical end is the second flow port 33.

The first flow port 32 is pivotally connected to the first flow pipe 34, and the first flow pipe 34 is passed through the first flow port 34 to penetrate the passage 30. Further, the second flow port 33 is pivotally connected to the second flow pipe 35, and the second flow pipe 35 is passed through the second flow port 33 to penetrate the passage 30.

The first spiral plate 10 and the second spiral plate 20 are made of a metal material with high thermal conductivity; for example, titanium, titanium alloy, stainless steel, etc., but not limited thereto.

The upper end edge and the lower end edge of the passage 30 formed by the first spiral plate 10 and the second spiral plate 20 form a closed end 31, and the closed end 31 is completed by welding.

According to the configuration of the foregoing specific embodiment of the present invention, the first spiral plate 10 and the second spiral plate 20 collectively define adjacent and non-contacting passages 30, and are wound in a spiral shape, and the first spiral plate 10 is The upper end edge and the lower end edge of the second spiral plate 20 are welded to form a closed end 31. The vertical side of the inner side of the passage 30 formed by the first spiral plate 10 and the second spiral plate 20 is the first flow port 32, and the outer vertical end is the first The two flow ports 33, the passage 30 formed by the first spiral plate 10 and the second spiral plate 20 can be pivotally connected to the first flow tube 34 and the second flow tube 35; the liquid can be extended from the first flow tube 34 to the first flow port In the 32-input passage 30, after flowing through the spiral passage 30, the second flow port 33 and its second flow tube 35 are outputted, so that the conveyed liquid is sufficiently filled with the first spiral plate 10 and the second spiral plate 20 The resulting channels 30 are in contact to provide a liquid function, particularly the physical properties of heat exchange.

When the first spiral plate 10 and the second spiral plate 20 are spirally wound, a predetermined distance A is left between the plate and the plate, and when the liquid contacts the passage 40 to generate heat exchange, the plate The spacing A between the sheet and the sheet provides a conduit through which the gas or water passes, so that the low temperature gas or water can be used to cool down the gap A between the sheet and the sheet, thereby improving the temperature. Excellent heat exchange effect (as shown in the fourth figure).

After the water liquid is converted by the hydrogen kinetic energy catalyst, the first flow tube 34 is The first flow port 32 is inserted into the channel 30, flows through the spiral channel 30, and can be output by the second flow port 33 and the second flow tube 35, so that the delivered liquid is sufficiently filled with the first spiral plate 10 and the first The channel 30 formed by the two spiral plates 20 is in contact with each other, which can reduce the structure of the water molecule group, increase the permeability and dissolved oxygen of the water liquid, and provide human body drinking, domestic water, or various foods and foods. The washing, cleaning and soaking increase the benefits; therefore, although the creation is called a heat exchange device, it can also be used as a water filter for filtering water.

Thus, the apparatus of the present embodiment has the following gains:

1. The present invention is spirally formed on the outer shape, so that the liquid can be sufficiently contacted with the channel 30 formed by the first spiral plate 10 and the second spiral plate 20, and the heat sinking method is not adopted in the conventional fin mode. It is directly and efficiently delivered to the temperature, thereby providing a better heat exchange efficiency.

2. The first spiral plate 10 and the second spiral plate 20 of the present heat exchanger form a passage 30, and a closed end 31 is formed on the upper end edge of the passage 30, so that the overall structure is simple and firm, the molding is convenient, and the failure rate is low.

3. The structure of the heat exchanger of the present invention can also be used as a water filter for filtering water quality, and can be used for treating the action of water liquid, so that the water liquid is transferred through the hydrogen kinetic energy catalyst to make the structure of the water molecule group smaller. In order to increase the permeability and dissolved oxygen of the water, the human body can be used for domestic water, or for the washing, cleaning and soaking of various foods and foods, in addition to the functions of sucking hands and activating cells. Its its gain.

In summary, with the device of the present invention, in addition to effectively improving heat exchange efficiency and reducing the probability of failure, it can be used as a filter and activated water. The use of the liquid; however, in accordance with the description of the present invention in the above embodiments, and the drawing of the shape of the device in the present drawing, it is only a preferred embodiment of the present invention, and is not intended to limit the scope of the patent application of the present invention. Any equivalent changes or modifications made by those skilled in the art without departing from the spirit of the present invention are intended to be included in the scope of the following claims. Compared with the well-known person, this case has significant progress and industrial utilization, and the technical means and structural features used in this creation are indeed developed by the creators of this case. Therefore, the case has met the requirements of the patent. , 提出 apply in accordance with the law, and pray for patent rights.

10‧‧‧First spiral plate

20‧‧‧Second spiral plate

30‧‧‧ channel

31‧‧‧closed end

32‧‧‧ first circulation

33‧‧‧second circulation

A‧‧‧ spacing

Claims (4)

A heat exchange device comprising a first spiral plate and a second spiral plate, wherein the first spiral plate and the second spiral plate are each a spiral plate, and after the first spiral plate and the second spiral plate are overlapped, An adjacent and non-contacting channel is formed between the two, and the upper end edge and the lower end edge of the channel form a closed end, so that the vertical side end of the inner side of the channel is the first flow port, and the outer vertical end is the second flow port; The liquid is introduced into the channel from the first flow port, flows through the spiral channel, and is output from the second flow port. The heat exchange device according to claim 1, wherein the first flow port formed by the first spiral plate and the second spiral plate is pivotally connected to the first flow pipe, and the first flow pipe is transmitted through the first flow port. And through the channel. The heat exchange device according to claim 1, wherein the second flow port formed by the first spiral plate and the second spiral plate is pivotally connected to the second flow pipe, and the second flow pipe is transmitted through the second flow port. And through the channel. The heat exchange device according to claim 1, wherein the first spiral plate and the second spiral plate are made of a titanium alloy.