WO2022065790A1

WO2022065790A1 - Refrigerant heat exchange system using circulation of liquid medium

Info

Publication number: WO2022065790A1
Application number: PCT/KR2021/012544
Authority: WO
Inventors: 김주태; 김주배
Original assignee: 김주태; 김주배
Priority date: 2020-09-28
Filing date: 2021-09-15
Publication date: 2022-03-31
Also published as: KR102266937B1

Abstract

Disclosed is a technical idea characterized by comprising: an exchange chamber that cools cooling water introduced inside by bypassing a refrigerant through a bypassing pipe provided in a condensing pipe through which the condensed refrigerant flows; a relieving chamber that receives the cooled cooling water from the exchange chamber and recovers the heat of the compressed vaporized refrigerant flowing into the condensing pipe introduced to the inside; and a supplying chamber that stores cooling water and allows the refrigerant to flow into the exchange chamber.

Description

Refrigerant heat exchange system using liquid medium circulation

The present invention relates to a system for heat exchange of refrigerant in a condenser, and more particularly, through the circulation of cooling water, which is a liquid medium, to take the heat of the refrigerant flowing into the condenser and to liquefy it at the same time. It is a technical field related to the refrigerant heat exchange system used.

In the case of a vapor compression type refrigeration cycle in various devices or products for controlling room temperature or temperature, such as a refrigerator, the principle of energy and refrigerant circulation that basically acts is the same.

First, while forcibly introducing a high-pressure liquid refrigerant into a tube that expands in volume, the refrigerant is vaporized, and in the process of vaporization, the refrigerant takes away heat from the surroundings.

The gaseous refrigerant, which absorbs heat while vaporizing, increases its pressure as it passes through the compressor, and then liquefies while dissipating heat in the condenser.

As described above, the liquefied refrigerant repeats the process of taking heat while passing through the evaporator in which the volume expands again.

In the case of the condenser, since it corresponds to a space for discharging the stolen heat, it is necessary to separate the space from which the heat is taken and the space for discharging the heat again.

The evaporator is usually present indoors or inside the refrigerator, while the condenser is located outdoors or outside the refrigerator.

There is a problem in that the process from the evaporator existing indoors to the outdoor unit existing outdoors, that is, the condenser, is very long and difficult, and a separate energy resource is wasted in the separate operation process of the outdoor unit itself.

Although the condenser and the evaporator are physically separated, a technical attempt to place them in one or very adjacent spaces is far from being possible.

The technology related to the refrigerant cycle for evaporation, compression, condensation, expansion, etc. has a tradition of more than 100 years, and it is true that there are various attempts to improve the technology, large and small.

For example, "Natural air conditioning cooling system and its operation method (Registration No. 10-0605022, Patent Document 1)" exists.

In the case of the invention according to Patent Document 1, a compressor for compressing a refrigerant, a condenser for taking heat from the compressed high-temperature refrigerant and condensing it, an expansion valve for expanding the condensed refrigerant, and heat exchange with the refrigerant compressed in the condenser The outdoor unit circulation pump for circulating the water that has lost heat through it, the outdoor unit fan installed on one side of the dry cooler coil to create an air flow, the outdoor air temperature sensor to measure the outdoor temperature, and the cooling coil pass an outdoor unit having a cold water temperature sensor for measuring the temperature of one water; An outdoor unit fan, a direct expansion coil (DX coil) that lowers the temperature by directly expanding the refrigerant whose temperature has dropped from the condenser, a cold water coil for cooling the room by circulating low-temperature cold water, an indoor unit circulation pump for circulating the cold water, and The present invention relates to a heat storage type natural air conditioning cooling system including an indoor unit having an indoor temperature sensor for detecting the temperature around a cold water coil of the indoor unit, and to a method for operating the same.

"The refrigerant cycle of an absorption type air conditioner (Patent Document 2, 1994-0015428)" also exists.

In the case of the invention according to Patent Document 2, the absorption chiller relates to a refrigerant evaporation accelerating device, which is installed connected between the generator and the condenser and a part of the high-temperature and high-pressure refrigerant heated in the generator flows through the refrigerant in a low-temperature and low-pressure state, and connects the evaporator and the absorber An outflow guide for guiding the outflow to the connection pipe, an accelerator installed on one side of the inner side of the connection pipe that communicates with the outflow guide end to accelerate the high-temperature and high-pressure refrigerant flowing out through the outflow guide, so that it can be opened and closed at the right place of the outflow guide An opening/closing means that is installed to selectively control the amount of refrigerant flowing out in a high-temperature and high-pressure state, and one side of the opening/closing means are electrically connected to detect the temperature of the room and the temperature of the cold water pipe communicating with the indoor unit, giving a motivation to selectively open and close it The cooling efficiency is improved by increasing the flow rate and flow rate of the refrigerant of the absorption chiller by including a control means.

"Energy-saving industrial air conditioner and its operation method (Registration No. 10-1727561, Patent Document 3)" exists.

In the case of the invention according to Patent Document 3, it relates to an energy-saving industrial air conditioner and an operating method thereof, and more particularly, to an energy-saving industrial air conditioner that reduces power consumption by operating the industrial air conditioner using outdoor air having a relatively lower temperature than the indoor temperature. An air conditioner and its operating method, comprising: a compressor circulating a refrigerant in a cooling circuit and having an electromagnetic valve that opens and closes according to an operation mode; a condenser connected to the compressor to convert the gaseous refrigerant into a liquid refrigerant; a receiver for storing the liquid refrigerant converted in the condenser; Solenoid valve of the compressor cooling circuit that is connected to the receiver and opens and closes according to the operation mode; an expansion valve connected to the solenoid valve of the compressor cooling circuit to convert relatively high temperature and high pressure liquid refrigerant into low temperature and low pressure; an evaporator connected to the expansion valve to cool the indoor space by exchanging heat with indoor air when the liquid refrigerant evaporates; a liquid separator connected to the evaporator to separate the liquid refrigerant and the gas refrigerant flowing out of the evaporator to deliver only the gas refrigerant to the compressor; a naturally cooling solenoid valve that is connected to the receiver and opens and closes according to the operation mode; a liquid pump connected to the natural cooling solenoid valve to circulate the refrigerant in the cooling circuit; a three-way valve connected to the liquid pump and the evaporator to control the opening/closing amount of the refrigerant; a circulation pipe that directly connects the liquid separator to the condenser and includes an electromagnetic valve that opens and closes according to an operation mode; a bypass pipe connecting the three sides to the circulation pipe; and an indoor temperature sensor for measuring the indoor temperature and an outdoor temperature sensor for measuring the outdoor temperature, wherein, according to the indoor temperature measured by the indoor temperature sensor, the refrigerant is transferred to the condenser and receiver, the compressor cooling circuit electromagnetic valve, In the refrigerator operation mode that circulates the compressor cooling circuit including the expansion valve, the evaporator, the liquid separator and the compressor, or when the outdoor temperature measured by the outdoor temperature sensor is lower than the indoor temperature measured by the indoor temperature sensor, the refrigerant is transferred to the condenser by the liquid pump. and a control unit for selecting a natural cooling operation mode for circulating a liquid pump cooling circuit including a receiver, a natural cooling electromagnetic valve, a liquid pump, a three-way valve, an evaporator, a liquid separator, and a circulation pipe.

Conventional technologies consume separate energy for operation of the condenser, and, in addition, have inefficiency in occupying a large space as the evaporator and the condenser are physically separated from each other.

The refrigerant heat exchange system using the circulation of a liquid medium according to the present invention has been devised to solve the conventional problems as described above, and presents the following problems to be solved.

First, the structure of the condenser is to be dramatically improved and the area to be physically secured is reduced.

Second, by improving the mechanism of heat dissipation of the condenser, it is intended to prevent the waste of electric power drawn in from the outside.

Third, unnecessary waste of space resources is prevented by physically dividing the condenser and the evaporator.

The problems to be solved of the present invention are not limited to those mentioned above, and other problems not mentioned will be clearly understood by those skilled in the art from the following description.

The refrigerant heat exchange system using the circulation of a liquid medium according to the present invention has the following problem solving means for the above problems to be solved.

In the case of the refrigerant heat exchange system using the circulation of a liquid medium according to the present invention, the refrigerant is vaporized through an evaporation unit, the vaporized refrigerant is pressurized through a compression unit, and a high-pressure gaseous refrigerant is introduced, the high-pressure gas As a system for exchanging the heat of the refrigerant to dissipate the heat of the refrigerant, the exchange chamber cools the cooling water introduced therein by bypassing the refrigerant through a bypassing pipe provided in a condensing pipe through which the condensed refrigerant flows. ; a relief chamber receiving the cooled coolant from the exchange chamber and recovering heat of the compressed vaporized refrigerant flowing into the condensing pipe introduced therein; and a supply chamber that stores coolant, flows coolant into the exchange chamber, and selectively introduces coolant into the relief chamber.

In the case of the refrigerant heat exchange system using the circulation of a liquid medium according to the present invention, the exchange chamber accommodates and stores cooling water in an internal space, and accommodates a bypass pipe for flowing the refrigerant therein, the bypassing It is disposed adjacent to the pipe and may be characterized in that it accommodates a cooling pipe for flowing the cooling water through an internal conduit.

In the case of the refrigerant heat exchange system using the circulation of the liquid medium according to the present invention, the bypass pipe may be characterized in that it is spirally loaded while being adjacent to the inner surface of the exchange chamber.

In the case of the refrigerant heat exchange system using the circulation of a liquid medium according to the present invention, the cooling pipe is disposed adjacent to the bypassing pipe and is spirally loaded to dissipate and transfer heat to the bypassing pipe. can be done with

In the case of the refrigerant heat exchange system using the circulation of a liquid medium according to the present invention, the relief chamber receives the cooling water from the cooling pipe inside the exchange chamber and receives the inside, and heats from the condensing pipe flowing into the cooling water. It may be characterized by condensing the refrigerant in the condensing pipe by taking it.

In the case of the refrigerant heat exchange system using the circulation of a liquid medium according to the present invention, the relief chamber is characterized in that the condensing pipe extending from the inside of the exchange chamber is spirally loaded while adjacent to the inner surface of the relief chamber can be done with

In the case of the refrigerant heat exchange system using the circulation of a liquid medium according to the present invention, the relief chamber has vertical through-holes formed by penetrating up and down, and a space for accommodating the cooling water is provided centering on the vertical through-holes. The supply chamber may include: a tower chamber having a vertical tower space, accommodating the cooling water on the tower space, and vertically inserted into the vertical through-hole of the relief chamber; and a base chamber disposed under the tower chamber, communicating internally with the tower chamber to receive and store the cooling water, and selectively supply the cooling water to the exchange chamber and the relief chamber It can be characterized as

In the case of the refrigerant heat exchange system using the circulation of a liquid medium according to the present invention, the condensing pipe protrudes inwardly on the inner circumferential surface, is formed along the longitudinal direction of the condensing pipe, and is spirally formed along the longitudinal direction of the condensing pipe It may include a spiral portion that becomes, the spiral portion, it may be characterized in that the flow of the refrigerant flowing inside the condensing pipe is caused to spiral.

In the case of the refrigerant heat exchange system using the circulation of the liquid medium according to the present invention, it is provided on the condensing pipe conduit, and further comprises a limiting unit for reducing bubbles generated in the refrigerant flowing in the condensing pipe can be done with

In the case of the refrigerant heat exchange system using the circulation of the liquid medium according to the present invention, the limiting unit may include: a cover case forming an external body and flowing the refrigerant through an internal conduit; a limiting body disposed on the inner conduit of the cover case and forming a resistance to the flow of the refrigerant; a bubble barrier portion provided in the limiting body, inclined at a predetermined angle in the direction in which the refrigerant flows, and passing the refrigerant through an opening in the inner surface; And it is provided on the limiting body, it may be characterized in that it comprises a bubble engaging portion that is formed to protrude in a direction opposite to the direction in which the refrigerant flows.

The refrigerant heat exchange system using the circulation of the liquid medium according to the present invention having the above configuration provides the following effects.

First, the condenser exists in the same space as the evaporator, but is physically partitioned so that mutual heat exchange does not occur.

Second, the heat emitted from the condenser is absorbed through the cooling water in the chamber, and the water in the chamber does not come into contact with the evaporator, so stable cooling and heating management is possible.

Third, the cooling water uses water in the chamber as a main component, and effectively absorbs the heat of the refrigerant through the heat capacity of the large-capacity water in the chamber.

Fourth, through the circulation of the coolant between the chamber and the chamber, heat energy of the coolant is efficiently absorbed, thereby liquefying the coolant.

Effects of the present invention are not limited to those mentioned above, and other effects not mentioned will be clearly understood by those skilled in the art from the following description.

1 is an overall conceptual diagram showing that a refrigerant heat exchange system using the circulation of a liquid medium according to an embodiment of the present invention is applied.

2 is a perspective view of a refrigerant heat exchange system using the circulation of a liquid medium according to an embodiment of the present invention.

3 is an exploded perspective view of an exchange chamber in a refrigerant heat exchange system using circulation of a liquid medium according to an embodiment of the present invention.

4 is an exploded perspective view of a relief chamber in a refrigerant heat exchange system using a liquid medium circulation according to an embodiment of the present invention.

5 is an exploded perspective view of a relieving chamber and a supplying chamber in a refrigerant heat exchange system using the circulation of a liquid medium according to an embodiment of the present invention.

6 is a partially cut-away perspective view and a cross-sectional view illustrating an internal structure of a condensing pipe in a refrigerant heat exchange system using circulation of a liquid medium according to an embodiment of the present invention.

7 is an exploded perspective view illustrating an internal structure of a limiting unit in a refrigerant heat exchange system using the circulation of a liquid medium according to an embodiment of the present invention.

The refrigerant heat exchange system using the circulation of a liquid medium according to the present invention can have various changes and can have various embodiments, and specific embodiments are illustrated in the drawings and described in detail in the detailed description. However, this is not intended to limit the present invention to specific embodiments, and it should be understood to include all modifications, equivalents and substitutes included in the spirit and scope of the present invention.

1 is an overall conceptual diagram showing that a refrigerant heat exchange system using the circulation of a liquid medium according to an embodiment of the present invention is applied. 2 is a perspective view of a refrigerant heat exchange system using the circulation of a liquid medium according to an embodiment of the present invention. 3 is an exploded perspective view of an exchange chamber in a refrigerant heat exchange system using circulation of a liquid medium according to an embodiment of the present invention. 4 is an exploded perspective view of a relief chamber in a refrigerant heat exchange system using a liquid medium circulation according to an embodiment of the present invention. 5 is an exploded perspective view of a relieving chamber and a supplying chamber in a refrigerant heat exchange system using the circulation of a liquid medium according to an embodiment of the present invention. 6 is a partially cut-away perspective view and a cross-sectional view illustrating an internal structure of a condensing pipe in a refrigerant heat exchange system using circulation of a liquid medium according to an embodiment of the present invention. 7 is an exploded perspective view illustrating an internal structure of a limiting unit in a refrigerant heat exchange system using the circulation of a liquid medium according to an embodiment of the present invention.

In the case of a refrigerant heat exchange system using the circulation of a liquid medium according to the present invention, as shown in FIG. 1 , the refrigerant vaporizes through the evaporation unit 1, and after taking heat from the room or the refrigerator, the vaporized refrigerant is It relates to a system in which heat is dissipated or heat exchanged for condensing again after being pressurized through the compressor unit (2) to make a high-pressure gas refrigerant.

1 relates to an overall heat exchange mechanism to which the present invention is applied, and mainly contains technical ideas about heat exchange such as condensation, expansion, and evaporation of the refrigerant after the refrigerant recovers heat from a room or a desired space.

First, in the case of a refrigerant heat exchange system using the circulation of a liquid medium according to the present invention, as shown in FIG. 2 , an exchange chamber 100 , a relieving chamber 200 , and a supply chamber (supplying chamber, 300) will be included.

First, the refrigerant that has passed through the evaporation unit 1 in FIG. 1 enters the condensing pipe 10 of FIG. 2 .

The condensing pipe 10 forms a path through which the refrigerant flows as described above. After leaving the evaporation unit 1, it comes out through the compression unit 2, and thereafter, before entering the relief chamber 200. 10a, 10b in the relief chamber, and 10c when exiting the relief chamber. In addition, in the case of the condensing pipe 10 , when exiting the relief chamber 200 , after passing through the expansion valve v , the main path entering the evaporation unit 1 and a partial flow into the exchange chamber 100 , bypassing It may flow to the bypass pipe 11 which is a path.

First, as shown in FIGS. 2 and 3 , in the exchange chamber 100 , coolant is accommodated in an internal space.

3, the exchange chamber 100 has a bypassing pipe 11 branched from the condensing pipe 10 therein, and the bypassing pipe 11 is the condensing pipe 10 is expanded. It branches on the pipe after the valve v, and the branched pipe enters the exchange chamber 100 as shown in FIG. 3 .

In addition, the cooling pipe 20 supplied from the supply chamber 300 is directly introduced into the exchange chamber 100 .

In the case of the cooling pipe 20 in the exchange chamber 100 , it exists as the second cooling unit 22 and is wound in a circular spiral shape, and the cooling water in the second cooling unit 22 of the cooling pipe 20 is a refrigerant. After heat exchange with the bypassed second pipe 11b, that is, cooled, it enters the space inside the relief chamber 200, which will be described later.

In the case of the relief chamber 200 , the cooling water is received from the third cooling unit 23 from the second cooling unit 22 of the exchange chamber 100 , and the cooled cooling water is stored therein. Of course, the cooling water entering the relief chamber 200 takes heat from the refrigerant flowing in the inner pipe 10b, and then returns to the supply chamber 300 through the down pipe 202h.

1 to 4, the relief chamber 200 is cooled and condensed through the inlet pipe 10a and the inner pipe 10b charged to the coolant in the relief chamber 200, and the outlet pipe After exiting through (10c), it passes through the expansion valve (v).

That is, the supply chamber 300 selectively supplies cooling water to the exchange chamber 100 through the first cooling unit 21 , or selectively supplies cooling water into the relief chamber 200 through the supply pipe 310h. perform the supply function.

As shown in FIG. 3 , in the case of the exchange chamber 100 , the second pipe 11b loaded therein is disposed adjacent to the inner surface of the exchange chamber 100 , and the second cooling unit 22 is placed in a square shape. It is preferable to load it spirally while winding it.

In addition, as shown in FIG. 3, in the case of the exchange chamber 100, the second cooling unit 22 is loaded therein, and the second cooling unit 22 is disposed inside the second pipe 11b, It is preferable to arrange it in a spiral while winding it in a circle.

The second cooling unit 22, which is spirally wound in a circle, is wound around the inside of the second pipe 11b, recovers the cold air generated by the second pipe 11b, and is cooled.

As shown in FIG. 4, in the relief chamber 200, a vertical through-hole (h) is formed in the middle, and the cooling water is accommodated only in an area excluding the vertical through-hole (h). The inner pipe 10b is disposed.

The supply chamber 300 preferably includes a tower chamber (tower chamber, 310), and a base chamber (base chamber, 320), as shown in FIG.

In the case of the tower chamber 310 , it is formed as a vertical tower space, receives cooling water on the vertical tower space, and is vertically inserted into the vertical through-hole h of the relief chamber 200 .

In addition, in the case of the base chamber 320 , it is disposed under the tower chamber 310 , and is internally communicated with the tower chamber 310 to receive and store cooling water, and the exchange chamber 100 and the relief chamber 200 . It is a configuration that selectively supplies cooling water to the

The cooling water of the base chamber 320 may pass through the first cooling unit 21 and may be provided to the second cooling unit 22 of the exchange chamber 100 through a pump.

The cooling water of the tower chamber 200 may be introduced into the first relief pipe 201h through the supply pipe 310h and the cooling water evaporated in the relief chamber 200 may be replenished.

In the case of the circulation cycle of the cooling water, the cooling water existing in the base chamber 320 enters the exchange chamber 100 through the first cooling unit 21 . Thereafter, the cooling water is cooled through heat exchange with the second pipe 11b through which the bypassed refrigerant that flows around the inside of the exchange chamber 100 flows while being wound around the second cooling unit 21 . Thereafter, the cooling water exits the exchange chamber 100 and enters the relief chamber 200 through the third cooling unit 23 to cool the inner pipe 10b through which the refrigerant flows, and to the base chamber through the 202h pipe. back again to (320).

In the case of the refrigerant flow cycle, the refrigerant expanded by absorbing heat through the evaporation unit 1 passes through the compression unit 2 corresponding to the compressor, and then flows through the condensing pipe 10 to the relief chamber 20 Heat is taken away by cooling water from the inner inner pipe 11b and condensed, and then exits through the outlet pipe 10c. Thereafter, the refrigerant that has passed through the expansion valve v basically goes to the evaporation unit 1, but a part enters the exchange chamber 100 through the first pipe 11a of the bypassing pipe 11 and as described above. After taking the heat of the same coolant, it meets the refrigerant that has passed through the evaporation unit 1 and enters the compressor unit 2 .

In addition, the condensing pipe 10 as described above may include a spiral portion (P), as shown in FIG.

The spiral portion P protrudes inwardly from the inner circumferential surface, and is formed in a spiral shape along the longitudinal direction of the condensing pipe 10 while being formed along the longitudinal direction of the condensing pipe 10 .

The spiral part (P) causes the flow of the refrigerant flowing inside the condensing pipe (10) to be spirally, and through this, the liquid particles of the refrigerant are crossed over the inner surface of the condensing pipe (10) and the surface of the spiral part (P). to make contact, so that the heat of the refrigerant is taken away efficiently.

In the case of the refrigerant heat exchange system using the circulation of the liquid medium according to the present invention, it may further include a limiting unit (limiting unit, 30) as shown in Figs.

In the case of the spiral part (P), there may be a problem that air bubbles are rather generated inside if the gas swirls spirally in the process of liquefaction, and in this case, the efficiency of heat exchange may decrease or a problem may occur during the liquefaction process. can

Accordingly, as shown in FIG. 7 , the limiting unit 30 is provided on the condensing pipe 10 , thereby reducing bubbles generated in the refrigerant flowing in the condensing pipe 10 .

The limiting unit 30 may include a cover case 31 , a limiting body 32 , a bubble partition wall part 33 , and a bubble stopping part 34 .

In the case of the cover case 31, it forms an external body and is configured to flow the refrigerant through an internal conduit.

As shown in Figure 7, the limiting body 32 is disposed on the inner pipe of the cover case 31, forms a resistance to the flow of the refrigerant, the bubble partition wall 33, the bubble engaging portion 34 It is a fixed attachment configuration.

In the case of the bubble partition wall part 33, it is provided on the limiting body 32 as described above, is inclined at a predetermined angle in the direction in which the coolant flows, and the coolant passes through the opening 33h on the inner surface.

The predetermined angle may be formed to form an acute angle with the direction in which the refrigerant flows, as shown in FIG. 7 , or an obtuse angle may be formed with the direction in which the refrigerant flows to be symmetrical thereto.

7, in the case of the bubble catching portion 34, provided in the limiting body 32, protrudes in a direction opposite to the direction in which the refrigerant flows, and blocks the flow of arbitrarily formed bubbles, gives time to dissolve again in the liquid.

The scope of the present invention is determined by the matters described in the claims, and parentheses used in the claims are not described for selective limitation, but are used for clear components, and descriptions in parentheses are also interpreted as essential components. should be

Claims

In a system for vaporizing the refrigerant through the evaporation unit, pressurizing the vaporized refrigerant through the compression unit, introducing the high-pressure gaseous refrigerant, and exchanging the heat of the refrigerant to dissipate the heat of the high-pressure gaseous refrigerant. in,

an exchange chamber for cooling the coolant introduced therein by bypassing the coolant through a bypassing pipe provided in the condensing pipe through which the condensed coolant flows;

a relief chamber receiving the cooled coolant from the exchange chamber and recovering heat of the compressed vaporized refrigerant flowing into the condensing pipe introduced therein; and

A refrigerant heat exchange system using circulation of a liquid medium, characterized in that it includes a supply chamber that stores the coolant and flows the coolant into the exchange chamber.
According to claim 1, wherein the exchange chamber,

Cooling water is accommodated and stored in the internal space, and a bypass pipe through which the refrigerant flows is accommodated therein, and a cooling pipe disposed adjacent to the bypassing pipe and configured to accommodate the cooling water through an internal conduit is accommodated. A refrigerant heat exchange system using the circulation of a liquid medium.
According to claim 2, wherein the bypassing pipe,

Refrigerant heat exchange system using circulation of a liquid medium, characterized in that it is spirally loaded while adjacent to the inner surface of the exchange chamber.
According to claim 3, wherein the cooling pipe,

Refrigerant heat exchange system using circulation of a liquid medium, characterized in that it is disposed adjacent to the bypassing pipe, is loaded in a spiral, and dissipates and transfers heat to the bypassing pipe.
According to claim 1, wherein the relief chamber,

Refrigerant heat exchange using circulation of a liquid medium, characterized in that the cooling water is received from the cooling pipe inside the exchange chamber and accommodated therein, and heat is taken from the condensing pipe flowing into the cooling water to condense the refrigerant in the condensing pipe. system.
According to claim 5, The relief chamber,

Refrigerant heat exchange system using circulation of a liquid medium, characterized in that the condensing pipe is spirally loaded while being adjacent to the inner surface of the relief chamber.
According to claim 1,

The relief chamber,

A vertical through-hole formed by penetrating vertically is provided, and a space for accommodating the cooling water is provided around the vertical through-hole,

The supply chamber,

a tower chamber having a vertical tower space, accommodating the cooling water on the tower space, and vertically inserted into the vertical through-hole of the relief chamber; and

It is disposed in the lower part of the tower chamber, is in communication with the tower chamber to receive and store the cooling water, characterized in that it comprises a base chamber (base chamber) for selectively supplying the cooling water to the exchange chamber, Refrigerant heat exchange system using liquid medium circulation.
According to claim 2, wherein the condensing pipe,

It protrudes inwardly on the inner circumferential surface and is formed along the longitudinal direction of the condensing pipe, and includes a spiral part that is spirally formed along the longitudinal direction of the condensing pipe,

The spiral part,

Refrigerant heat exchange system using circulation of a liquid medium, characterized in that the flow of the refrigerant flowing inside the condensing pipe is caused in a spiral.
The method of claim 8, wherein the system comprises:

Refrigerant heat exchange system using circulation of a liquid medium, characterized in that it further comprises a limiting unit provided on the condensing pipe conduit to reduce bubbles generated in the refrigerant flowing in the condensing pipe.
The method of claim 9, wherein the limiting unit,

a cover case forming an external body and flowing the refrigerant through an internal conduit;

a limiting body disposed on the inner conduit of the cover case and forming a resistance to the flow of the refrigerant;

a bubble partition portion provided in the limiting body, inclined at a predetermined angle in a direction in which the refrigerant flows, and passing the refrigerant through an opening in an inner surface; and

Provided in the limiting body, the refrigerant heat exchange system using the circulation of the liquid medium, characterized in that it comprises a bubble engaging portion that is formed to protrude in a direction opposite to the direction in which the refrigerant flows.