KR102404428B1 - Ion heating element - Google Patents

Abstract

The present disclosure relates to an ion heating element, and more particularly, to an ion heating element that ionizes a fluid to generate electrical vibration and thermal vibration to heat the fluid.
The ion heating element according to an embodiment of the present disclosure has a body in which an inlet to which a fluid is supplied is installed on one lower side, an outlet to which a fluid is discharged is installed on one upper side, and a predetermined space in which the fluid flows is formed. a part, a support part installed under the body part to support the body part, a plurality of metal rods extending to the upper part of the body part through the support part, installed inside the body part, and connected to the plurality of metal rods, A plurality of metal diaphragms that are spaced apart from each other and heat the fluid by vibrating when power is supplied and generating bubbles according to ionization in the fluid, and a current supply unit connected to the metal rod protruding through the lower part of the support to supply current. .

Description

Ion heating element

The present disclosure relates to an ion heating element, and more particularly, to an ion heating element that ionizes a fluid to generate electrical vibration and thermal vibration to heat a fluid.

Unless otherwise indicated herein, the material described in this section is not prior art to the claims of this application, and inclusion in this section is not an admission that it is prior art.

In general, a heating system used at home uses a heating method by a boiler, and a pipe is installed on the floor of the room, and heat is supplied while water heated by the boiler circulates through the pipe to raise the indoor temperature. These boilers are classified into oil boilers, gas boilers, electric boilers, etc. depending on the energy source used, and are divided into heater pump type or heater heating type boilers according to heating methods. In recent years, energy-saving boilers that can increase thermal efficiency or reduce heating costs through efficient heating methods are continuously being developed.

Among them, the heater heating type boiler is a method in which a heating element directly heats a medium to be heated (typically water). The heating element includes a sheath heater or PTC, which is a type of semiconductor element, and the sheath heater is made by encapsulating a heating wire together with an insulator in a pipe such as stainless steel, so that high heat can be obtained and the durability is large, so water in an electric boiler, etc. It is often used for direct heating. The heating element of the heater-heating boiler as described above is called a rod-shaped heater, so it is called a heater rod, and by supplying current to a heating wire installed inside the heater rod, heat is generated according to the electrical resistance generated, and water is heated.

However, in the case of the heating method using the heater rod as described above, the heating rod itself is heated by supplying current to the heater rod first, and then the heater rod heats the water. There is a disadvantage that the efficiency is lowered, which results in economic loss.

1. Korean Patent Publication No. 10-2013-0058095 (published on June 4, 2013)

It relates to an ion heating element that ionizes a fluid through a metal vibrating body to generate electrical and thermal vibrations to heat the fluid.

In addition, it is not limited to the technical problems as described above, and it is obvious that another technical problem may be derived from the following description.

The ion heating element according to an embodiment of the present disclosure has a body in which an inlet to which a fluid is supplied is installed on one lower side, an outlet to which a fluid is discharged is installed on one upper side, and a predetermined space in which the fluid flows is formed. part, a support part installed under the body part to support the body part, a plurality of metal rods extending to the upper part of the body part through the support part, installed inside the body part, and connected to the plurality of metal rods, It includes a plurality of metal vibrating plates spaced apart from each other and heating the fluid by vibrating when power is supplied to generate bubbles according to ionization in the fluid, and a current supply unit connected to the metal rod protruding through the lower part of the support to supply current. .

According to a preferred feature of the present disclosure, the metal diaphragm is characterized in that it is formed in the shape of a truncated cone or polygonal truncated pyramid with the upper and lower portions open and the diameter narrowing toward the upper portion.

According to a preferred feature of the present disclosure, it is formed to protrude on both sides of the lower portion of the metal diaphragm, it characterized in that it further comprises a fixing flange fixed to a predetermined position of the metal rod passing through.

According to a preferred feature of the present disclosure, the plurality of metal diaphragms is made of an even number and arranged in a line, and the fixing flanges are characterized in that they are alternately arranged at intervals of 180°.

According to a preferred feature of the present disclosure, the plurality of metal diaphragm is made up of an even number and arranged in a line, and the fixing flanges are characterized in that they are alternately arranged at intervals of 120°.

According to a preferred feature of the present disclosure, it is characterized in that it further comprises a temperature sensor or a grounding sensor that is installed extending upwardly from the support.

According to a preferred feature of the present disclosure, it is connected to the metal rod at the upper or lower portion of the metal diaphragm plate, and is accommodated in close contact with the main body portion, further comprising an anti-vibration pad holding the vibration of the metal rod to block the vibration. do it with

According to a preferred feature of the present disclosure, it is characterized in that it comprises a first anti-vibration pad installed between the inlet and the metal diaphragm, and a second anti-vibration pad installed between the outlet and the metal diaphragm.

According to a preferred feature of the present disclosure, an open hole is formed in the center of the first anti-vibration pad and the second anti-vibration pad, and the first open hole of the first anti-vibration pad is the second of the second anti-vibration pad. It is characterized in that it has a smaller diameter than the open hole.

According to a preferred feature of the present disclosure, it includes a leg portion extending from the outer portion of the lower surface of the support portion, wherein the leg portion is characterized in that the diameter increases toward the lower portion.

According to a preferred feature of the present disclosure, it comprises a support portion formed to surround the outer portion of the metal rod positioned between the second anti-vibration pad and the support portion, wherein the support portion has a truncated cone shape whose diameter increases toward the bottom. do.

According to a preferred feature of the present disclosure, it is formed to protrude a predetermined height from the upper and lower parts of the support part, and includes a lower protrusion support part and an upper protrusion support part having a smaller diameter than the support part, and along the outer surface of the lower protrusion support part and the upper protrusion support part A screw thread is formed, and the upper protrusion support part is screwed to the body part, and it characterized in that it further comprises a cover part screwed with the lower protrusion support part.

According to a preferred feature of the present disclosure, it is formed to protrude a predetermined height from the upper and lower parts of the support part, and includes a lower protrusion support part and an upper protrusion support part having a smaller diameter than the support part, and the lower part of the main body part protrudes a predetermined length toward the outside. It is coupled to the upper protrusion support part, and further comprises a lower ring surrounding the outer surface of the lower protrusion support part, characterized in that the lower ring, the support part and the outer part of the body part are integrally coupled.

According to a preferred feature of the present disclosure, it is characterized in that it further comprises a cover portion screwed with the lower projecting support portion.

According to a preferred feature of the present disclosure, the support part is composed of a lower support part installed in the lower part of the main body part, an upper support part installed in the upper part, and a central support part installed in the center, and is installed through the lower support part toward the upper part. A plurality of lower metal diaphragms connected to a plurality of lower metal rods and spaced apart from each other by a predetermined distance, a plurality of upper metal diaphragms connected to a plurality of upper metal rods installed through and installed downward from the upper support part, and spaced apart from each other by a predetermined distance, and the It is characterized in that it further comprises a current supply unit connected to the upper metal rod protruding through the upper portion of the upper support and the lower metal rod protruding through the lower portion of the lower support portion to supply current.

According to a preferred feature of the present disclosure, it is installed on one side of the side of the main body, it characterized in that it further comprises a thermometer for measuring the internal fluid temperature and a controller for controlling the internal fluid temperature of the main body.

According to an embodiment of the present disclosure, it is possible to heat the fluid without a separate heating element by ionizing the fluid through a metal vibrating body instead of a heating method using a heater rod to heat the fluid by electrical vibration and thermal vibration. There are advantages.

In addition, according to the embodiment of the present disclosure, as the fluid itself is heated, there is an advantage that the heating efficiency is higher than that of the conventional heater rod method and energy can be saved.

In addition, according to the embodiment of the present disclosure, there is an advantage in that a greater amount of heat than input energy can be output as the fluid is ionized due to the resonance phenomenon occurring between the plurality of metal diaphragms.

It should be understood that the effects of the present invention are not limited to the above-described effects, and include all effects that can be inferred from the configuration of the invention described in the detailed description or claims of the present invention.

1 is a perspective view of an ion heating element according to an embodiment of the present disclosure;
2 is an exploded perspective view of an ion heating element according to an embodiment of the present disclosure;
3 is a diagram illustrating a state in which water molecules are ionized between metal diaphragms in an ion heating element according to an embodiment of the present disclosure;
4 is a perspective view of another embodiment of a metal diaphragm in the ion heating element according to an embodiment of the present disclosure;
5 is an exploded perspective view of an ion heating element according to another embodiment of the present disclosure;
6 is a perspective view of an internal metal diaphragm in the ion heating element according to another embodiment of the present disclosure;

Hereinafter, the configuration, operation, and effect of the ion heating element according to the preferred embodiment will be described with reference to the accompanying drawings. For reference, in the following drawings, each component is omitted or schematically illustrated for convenience and clarity, and the size of each component does not reflect the actual size. In addition, the same reference numerals refer to the same components throughout the specification, and reference numerals for the same components in individual drawings will be omitted.

1 shows a perspective view of an ion heating element according to an embodiment of the present disclosure, and FIG. 2 shows an exploded perspective view.

In the ion heating element according to an embodiment of the present disclosure, the inlet 11 to which the fluid is supplied is installed on one lower side, the outlet 13 through which the fluid is discharged is installed on the upper one side, and the fluid flows therein. A body part 10 having a predetermined space to 10) A plurality of metal rods 21 extending upward, installed inside the body portion 10, connected to the plurality of metal rods 21, and spaced apart from each other by a predetermined distance, vibrated when power is supplied to the fluid A plurality of metal diaphragms 30 for heating the fluid by generating bubbles according to ionization, and a current supply unit 40 connected to the metal rod 21 protruding through the lower portion of the support unit 20 to supply current.

The body portion 10 may have a cylindrical shape extending in a vertical direction and having a predetermined space therein, and is configured to allow a fluid such as water to flow in and out. The inlet 11 is installed so that the fluid can be continuously supplied from the lower one side of the main body 10 , and then the fluid heated through the metal diaphragm 30 is discharged from the upper one side of the main body 10 . As it is discharged through (13), the fluid circulates. Although the discharge part 13 is formed on the upper side in FIG. 1 , the present invention is not limited thereto and may be formed on the upper surface.

Next, it may further include a support part 20 installed under the body part 10 to support the body part 10 . The support part 20 may be formed in a disk shape having a diameter larger than that of the body part 10 , and serves to support the body part 10 from the lower part. In addition, the support 20 may have a plurality of openings through which the plurality of metal rods 21 pass, which is preferably formed at a position where it can be inserted into the fixing flange 31 of the metal diaphragm 30 to be described later. do.

According to a preferred feature of the present disclosure, a leg portion 80 extending from an outer portion of the lower surface of the support portion 20 is included, and the leg portion 80 is characterized in that the diameter increases toward the lower portion.

In order to compensate for the fact that it cannot be stably supported from the ground by the metal rod 21 penetrating the support 20, a leg portion 80 extending from the lower surface of the support 20 to the ground is further included. can do. The leg portion 80 is preferably composed of three or more along the outer periphery, and is made to have a larger diameter toward the bottom, so that the ion heating element can be more stably supported.

3 is a diagram illustrating a state in which water molecules are ionized between metal vibrating plates in an ion heating element according to an embodiment of the present disclosure.

Next, a plurality of metal vibrating plates 30 installed inside the main body 10 , connected to the plurality of metal rods 21 and spaced apart from each other by a predetermined distance, and a metal rod protruding through the lower portion of the support portion 20 . It may further include a current supply unit 40 connected to the 21 for supplying current.

The metal diaphragm 30 may have a structure in which a plurality, preferably 4 or 6, are arranged side by side spaced apart from each other by a predetermined distance, and may be connected to the metal rod 21 and supported in the body portion 10 . The current supply unit 40 is composed of a + electrode and a - electrode to supply current from an external power source, and is connected to the metal rod 21 to supply current.

The supply of current can be single-phase and three-phase, and in the case of single-phase support 20, four support parts 20 can be used, and it is preferable to have at least four metal diaphragms 30 as a basic configuration, and depending on the temperature, 2 It can also be incremented by an even number. In addition, in the case of three phases, six support parts 20 may be used, and it is preferable that at least six metal diaphragms 30 are used, and according to the temperature, 9, 12, 15, etc. can be used by increasing by three. Accordingly, current is supplied to the metal diaphragm 30 through the metal rod 21 connected to the current supply unit 40, and the plurality of metal diaphragms 30 are disposed to be spaced apart from each other at a predetermined interval, between As water is ionized into positive and negative ions, it moves between the metal diaphragm 30 tens of times per second, and heat is generated through mutual friction between water molecules. The principle of the metal diaphragm 30 is that as current is supplied, water supplied to the inside is rapidly electrolyzed, and high-pressure expansion into oxygen and hydrogen bubbles causes high-temperature vortex cavitation (vortex cavitation) and recombines again to change into water while electrical As vibration and thermal vibration occur, more heat (about 140% or more of heat) than the initial input energy is output. When the metal diaphragm 30 as described above is used, compared to the conventional heating method using a medium called a heater rod, since water itself becomes a medium and heat is generated, the heating efficiency is significantly higher, and there is no water inside the heating device. Even in this case, water itself is a medium, so there is no risk of fire. In addition, as the heater rod is continuously used inside the boiler, problems such as destruction or corrosion may occur due to hardening, but there is an advantage that it can be used semi-permanently without the above problems.

According to a preferred feature of the present disclosure, the metal diaphragm 30 is characterized in that it is formed in the shape of a truncated cone or polygonal truncated cone with the upper and lower portions open and the diameter narrowing toward the upper portion.

The metal diaphragm 30 is composed of a plurality and is made on the principle that water is heated by the ionization process occurring therebetween. It can be introduced easily, and the heated water can be easily discharged to the upper part.

4 is a perspective view of another embodiment of a metal diaphragm in the ion heating element according to an embodiment of the present disclosure.

As described above, the metal diaphragm 30 may preferably have a truncated cone shape with the upper and lower parts open, but is not limited thereto, and may have a polygonal truncated pyramid shape with the upper and lower parts open. As shown in FIG. 4 , it may have a triangular truncated pyramid or a quadrangular truncated pyramid or more. As a result, a larger surface area can be obtained based on the same body portion 10 as compared to a metal vibrating plate formed of a flat plate, thereby maximizing the effect of vibration generation. Since it is ejected through the hole, it does not require much power from the pump and has the advantage that heat can be spread quickly.

According to a preferred feature of the present disclosure, according to a preferred feature of the present disclosure, a fixing flange is formed to protrude on both sides of the lower portion of the metal diaphragm 30 and is fixed to a predetermined position of the metal rod 21 passing through it. (31) is characterized in that it further comprises.

According to a preferred feature of the present disclosure, the plurality of metal diaphragm 30 is made up of an even number and arranged in a line, and the fixing flange 31 is characterized in that it is intersected at an interval of 180°.

The fixing flange 31 is configured to interconnect the metal rod 21 and the metal diaphragm 30 , and may be formed on both lower sides with respect to the central axis of the metal diaphragm 30 . Accordingly, the two fixing flanges 31 formed on the metal diaphragm 30 are fitted to the metal rod 21 and spaced apart from each other by a predetermined distance so that the second metal diaphragm 30 is inserted into the metal rod 21 and arranged in a line. It has a structure of two metal diaphragms 30 . Here, the metal diaphragm 30 is made of an even number and may be arranged in a line, and in particular, the fixing flanges 31 may be intersected at intervals of 180° or 120°. More specifically, among the metal diaphragm 30, the first metal diaphragm 30 is disposed and the next metal diaphragm 30 has a different position from the fixing flange 31 of the first metal diaphragm 30, Preferably, the metal diaphragm 30 may be installed to be disposed at an orthogonal position. Accordingly, when the current supply unit 40 is connected to the two metal rods 21, it is possible to supply current to the entire metal diaphragm 30, thereby heating the fluid, and the metal diaphragm 30 is a plurality, preferably It is possible to increase the effect of heating water by the ion heating element consisting of four.

5 shows a perspective view of an ion heating element according to another embodiment of the present disclosure.

According to a preferred feature of the present disclosure, the plurality of metal diaphragm 30 is made up of an even number and arranged in a line, and the fixing flange 31 is characterized in that it is intersected at intervals of 120°.

In addition, the metal diaphragm 30 may have a three-phase structure consisting of six, and accordingly, the fixing flange 31 of the metal diaphragm 30 is spaced apart from the lower part by 120° from the bottom, and the first and fourth metal diaphragms ( 30), the second and fifth metal diaphragms 30 share the same metal rod 21 . Accordingly, when a current is supplied through the metal rod 21 , the current is applied to the entire metal diaphragm 30 , and water is ionized to perform a heating action. The number of the metal diaphragm 30 is not limited to 4 or 6, and may consist of 8 or 12, etc., and the heating efficiency is increased accordingly.

According to a preferred feature of the present disclosure, it is characterized in that it further includes a temperature sensor 50 or a grounding sensor 60 that is installed extending upwardly from the support 20 .

The temperature sensor 50 is installed to be embedded in the support part 20, is formed to extend upward, and is configured to measure the temperature of the fluid supplied to the inside of the body part. In addition, the grounding sensor 60 is configured to detect current flowing outside the metal rod 21 or the metal diaphragm 20 inside the main body 10, and determines whether the temperature or grounding is at the uppermost end of the extended sensor. A sensor for measuring may be configured.

According to a preferred feature of the present disclosure, it is installed in connection with the metal rod 21 at the upper or lower portion of the metal diaphragm, and is accommodated in close contact in the main body 10 to block the vibration of the metal rod 21. It is characterized in that it further comprises an anti-vibration pad (70).

According to a preferred feature of the present disclosure, the first anti-vibration pad 71 is installed between the inlet 11 and the metal diaphragm 30 , and installed between the outlet 13 and the metal diaphragm 30 . It is characterized in that it includes a second anti-vibration pad (73).

The anti-vibration pad 70 is supplied with a current to the metal diaphragm 30 to ionize water to generate electrical/thermal vibration. An anti-vibration pad 70 for supporting the entire metal diaphragm 30 may be installed. The anti-vibration pad 70 is installed between the first anti-vibration pad 71 and the metal diaphragm 30 and the outlet 13 installed between the inlet 11 and the metal diaphragm 30 through which the fluid flows. A second anti-vibration pad 73 may be included.

According to a preferred feature of the present disclosure, an open hole is formed in the center of the first anti-vibration pad 71 and the second anti-vibration pad 73 , and the first open hole of the first anti-vibration pad 71 . (72) is characterized in that it has a smaller diameter than the second opening hole (74) of the second anti-vibration pad (73).

It is preferable that the first open hole 72 has a large diameter in order to easily transmit the fluid supplied from the inlet 11 formed at the lower portion to the upper portion, and the second open hole 73 has a metal diaphragm ( 30), it is preferable to have a narrow diameter in order to easily transfer the heated fluid to the upper part.

According to a preferred feature of the present disclosure, the second anti-vibration pad 73 and the support portion 20, including a support portion (90) formed to surround the outer portion of the metal rod (21) positioned between the support portion, (90) is characterized in that it has a truncated cone shape that increases in diameter toward the bottom.

The support part 90 prevents the metal rod 21 installed through the support part 20 from being damaged or defective from vibration, etc., and the metal diaphragm plate 30 can be stably supported on the support part 20 . It may be formed to surround the outer portion of the metal rod 21 in order to be there. In addition, the shape is made in the shape of a truncated cone whose diameter increases toward the bottom, and by increasing the area of the portion in contact with the support portion 20, more stable support is possible. The support part 90 may be made of a material having a high frictional force, such as rubber.

According to a preferred feature of the present disclosure, the support part 20 is formed to protrude a predetermined height from the upper and lower parts, and includes a lower protrusion support part 201 and an upper protrusion support part 203 having a smaller diameter than the support part 20, and the A screw thread is formed along the outer surfaces of the lower protrusion support part 201 and the upper protrusion support part 203 , and the upper protrusion support part 203 is screwed with the main body part, and the lower protrusion support part 201 and the cover screwed together. It is characterized in that it further comprises a part (100).

In order for the support part 20 to be mutually coupled to the body part 10, an upper protrusion support part 203 is formed on the support part 20 and has a smaller diameter, and a thread is formed along the outer surface thereof. and a corresponding screw thread is formed along the lower inner surface of the body portion 10 to be coupled to each other. In addition, the lower protrusion support part 201 may further include a cover part 100 to cover the metal rod 21 and the current supply part 40 connected thereto, and the cover part 100 also includes a lower part. It may be coupled to each other through the protrusion support 201 and screw coupling.

According to a preferred feature of the present disclosure, the support part 20 is formed to protrude a predetermined height from the upper and lower parts, and includes a lower protrusion support part 201 and an upper protrusion support part 203 having a smaller diameter than the support part 20, and the The lower portion of the main body 10 protrudes outward by a predetermined length and is coupled to the upper protrusion support 203, and further includes a lower ring 202 surrounding the outer surface of the lower protrusion support 201, wherein the lower portion It is characterized in that the ring 202 and the support portion 20 and the outer portion of the body portion 10 are integrally coupled.

This is a three-phase (configuration with six metal diaphragms), in order to prevent excessive vibration, the body portion 10, the support portion 20, and the lower ring 202 are coupled in a vertical direction by screwing, etc. to be stably supported. configuration for The lower portion of the main body portion 10 protrudes outward by a predetermined length to have a surface parallel to the support portion 20, and further includes a lower ring 202 surrounding the outer surface of the lower protrusion support portion 201, the support portion 20 ) may have a structure that is coupled to each other in the upper and lower parts.

According to a preferred feature of the present disclosure, a thermometer 110 that is installed on one side of the side of the main body 10 and measures the temperature of the fluid inside and a controller 120 that controls the temperature of the fluid inside the main body 10 It is characterized in that it further comprises.

The thermometer 110 is configured to measure the temperature of the heated fluid through the metal diaphragm 30 to measure whether it has been heated to a desired temperature, and operation control is possible through the control unit 120 .

6 shows a perspective view of an ion heating element according to another embodiment of the present disclosure.

According to a preferred feature of the present disclosure, the support part 20 includes a lower support part 23 installed in the lower part of the body part 10, an upper support part 25 installed in the upper part, and a central support part installed in the center ( 27), connected to a plurality of lower metal rods 24 that are installed through the lower support part 23 toward the upper part, and a plurality of lower metal vibrating plates 33 spaced apart from each other by a predetermined distance, and the upper support part 25 ) connected to a plurality of upper metal rods 26 installed through the lower portion and spaced apart from each other by a predetermined distance from the plurality of upper metal vibrating plates 35 and the upper metal rod 26 protruding through the upper part of the upper support part 25 and It characterized in that it further comprises a current supply unit 40 for supplying current by being connected to the lower metal rod 24 protruding through the lower part of the lower support unit 23 .

This is a configuration in which the ion heating element according to an embodiment of the present disclosure is vertically coupled, and when a current is supplied through the current supply unit 40 from the lower support unit 23 installed in the lower portion, the fluid in the lower metal vibrating plate 33 The fluid heated by heating can be discharged through the discharge unit 13, and in the same principle, from the current supply unit 40 connected to the upper metal rod 26 installed through the upper support unit 25 installed in the upper part. When the fluid is heated by supplying current to the upper metal diaphragm 35 , the fluid rising from the inlet 11 installed at the lower portion is heated and may be discharged through the upper outlet 13 . This has the advantage that one can be used separately for heating, one for hot water, etc. by the configuration of the ion heating element continuously installed in the upper and lower parts.

Although preferred embodiments of the present invention have been described with reference to the accompanying drawings, the embodiments described in the present specification and the configurations shown in the drawings are only the most preferred embodiments of the present invention and represent all of the technical spirit of the present invention. Therefore, it should be understood that there may be various equivalents and modifications that can be substituted for them at the time of filing the present application. Therefore, the embodiments described above are to be understood as illustrative and not restrictive in all respects, and the scope of the present invention is indicated by the following claims rather than the detailed description, and the meaning and scope of the claims and their All changes or modifications derived from the concept of equivalents should be construed as being included in the scope of the present invention.

10: body part
11: inlet
13: discharge part
20: support
201: lower protrusion support
202: lower ring
203: upper protrusion support part
21: metal rod
23: lower support
24: lower metal bar
25: upper support
26: upper metal bar
27: central support
30: metal diaphragm
31: Flange for fixing
33: lower metal diaphragm
35: upper metal diaphragm
40: current supply unit
50: temperature sensor
60: grounding sensor
70: anti-vibration pad
71: first anti-vibration pad
72: 1st open hall
73: second anti-vibration pad
74: 2nd open hall
80: leg
90: support
100: cover part
110: thermometer
120: control unit

Claims (16)

a main body in which an inlet to which a fluid is supplied is installed on one side of the lower portion, an outlet to which the fluid is discharged is installed on one upper side, and a predetermined space through which the fluid flows is formed;
a support part installed under the body part to support the body part;
a plurality of metal rods extending to the upper part of the body part through the support part;
a plurality of metal vibrating plates installed inside the body, connected to the plurality of metal rods and spaced apart from each other by a predetermined interval, and vibrates when power is supplied to generate bubbles according to ionization in the fluid to heat the fluid; and
Including; and a current supply unit connected to the metal rod protruding through the lower portion of the support unit to supply a current;
The ion heating element further comprising an anti-vibration pad installed in connection with the metal rod at the upper or lower portion of the metal diaphragm, and accommodated in close contact with the main body to block the vibration of the metal rod. According to claim 1,
The metal diaphragm is an ion heating element, characterized in that formed in the shape of a truncated cone or polygonal truncated pyramid with the upper and lower portions open and the diameter narrowing toward the upper portion. According to claim 1,
The ion heating element is formed to protrude on both sides of the lower portion of the metal diaphragm, and further comprises a fixing flange fixed to a predetermined position of the metal rod passing through it. 4. The method of claim 3,
The plurality of metal diaphragms is made of an even number and arranged in a line,
The fixing flange is an ion heating element, characterized in that it is cross-arranged at an interval of 180 °. 4. The method of claim 3,
The plurality of metal diaphragms is made of an even number and arranged in a line,
The fixing flange is an ion heating element, characterized in that it is cross-arranged at intervals of 120 °. According to claim 1,
Ion heating element, characterized in that it further comprises a temperature sensor or a grounding sensor installed extending upward from the support. delete According to claim 1,
The anti-vibration pad,
a first anti-vibration pad installed between the inlet and the metal diaphragm;
and a second anti-vibration pad installed between the discharge part and the metal diaphragm. 9. The method of claim 8,
An open hole is formed in the center of the first anti-vibration pad and the second anti-vibration pad,
The first open hole of the first anti-vibration pad has a smaller diameter than the second open hole of the second anti-vibration pad Ion heating element. According to claim 1,
Including a leg portion extending from the outer portion of the lower surface of the support portion,
The ion heating element, characterized in that the diameter increases as the leg portion goes downward. 10. The method of claim 9,
Including a support portion formed to surround the outer portion of the metal rod positioned between the second anti-vibration pad and the support portion,
The ion heating element, characterized in that the support portion has a truncated cone shape that increases in diameter toward the bottom. 5. The method of claim 4,
It is formed to protrude at a predetermined height from the upper and lower parts of the support part, and includes a lower protrusion support part and an upper protrusion support part having a smaller diameter than the support part,
A screw thread is formed along the outer surface of the lower protrusion support part and the upper protrusion support part,
The upper projecting support portion is screwed to the main body portion, the ion heating element characterized in that it further comprises a cover portion screwed to the lower projecting support portion. 6. The method of claim 5,
It is formed to protrude at a predetermined height from the upper and lower parts of the support part, and includes a lower protrusion support part and an upper protrusion support part having a smaller diameter than the support part,
The lower part of the main body protrudes outward by a predetermined length and is coupled to the upper protrusion support part,
Further comprising a lower ring surrounding the outer surface of the lower protrusion support,
The ion heating element, characterized in that the lower ring, the support portion, and the outer portion of the main body are integrally coupled. 14. The method of claim 13,
Ion heating element, characterized in that it further comprises a cover part screwed to the lower protrusion support part. According to claim 1,
The support part consists of a lower support part installed in the lower part of the main body part, an upper support part installed in the upper part, and a central support part installed in the center,
A plurality of lower metal diaphragms connected to a plurality of lower metal rods installed through the lower support portion toward the upper portion and spaced apart from each other by a predetermined distance;
A plurality of upper metal diaphragms connected to a plurality of upper metal rods installed through the upper support portion downwardly and spaced apart from each other by a predetermined distance; and
Ion heating element, characterized in that it further comprises a current supply unit connected to the upper metal rod protruding through the upper portion of the upper support and the lower metal rod protruding through the lower portion of the lower support portion to supply current. According to claim 1,
a thermometer installed on one side of the side of the body and measuring the temperature of the fluid inside; and
Ion heating element, characterized in that it further comprises a control unit for controlling the temperature of the fluid inside the main body.

Images