KR20190053330A - Greenhouse cooling and heating system - Google Patents

Abstract

The present invention relates to a greenhouse cooling and heating system using inter-seasonal thermal storage in the alluvium aquifer, which cools and heats a greenhouse using underground water stored in an alluvium aquifer, comprising: a cool water main tube well having at least one portion positioned in the alluvium aquifer for pumping and injecting cool water; a hot water main tube well having at least one portion positioned in the alluvium aquifer and spaced at a predetermined distance from the cool water main tube well for pumping and injecting cool water; a heat pump cooling the greenhouse by heat exchange of the cool water pumped from the cool water main tube well and heating the greenhouse by heat exchange of the hot water pumped from the hot water main tube well; a cool water assistant tube well installed around the cool water main tube well to inject the cool distributed water rising in the cool water main tube well when the cool distributed water discharged from the heat pump is injected into the cool water main tube well; and a hot water assistant tube well installed around the hot water main tube well to inject the hot distributed water rising in the hot water main tube well when the hot distributed water discharged from the heat pump is injected into the hot water main tube well. The present invention installs one or more assistant tube wells around a main tube well to increase injection capacity of the injected water re-injected into the tube well after cooling and heating are performed, thereby enhancing energy usage efficiency.

Description

{GREENHOUSE COOLING AND HEATING SYSTEM} <br> <br> <br> Patents - stay tuned to the technology GREENHOUSE COOLING AND HEATING SYSTEM

The present invention relates to a cooling / heating system for a regenerative aquifer in an alluvium aquifer, and more particularly, in a summer season, a hot water pump is used to store hot water generated from a heat pump in an alluvial aquifer through on- The present invention relates to an alluvial aquaculture aquarium cooling / heating system capable of improving the cooling / heating efficiency of a heat pump by storing the generated cold wastewater in an alluvial aquifer through cold quenching.

In recent years, geothermal heating and cooling systems have been developed that utilize geothermal heat of constant temperature regardless of seasonal changes as a heat source for heating and cooling. Especially, they have excellent thermal insulation and insulation, are located 5 to 20 m below the surface, And the geothermal heating and cooling system using the alluvial aquifer as the ground is being developed for cooling and heating the greenhouse.

Generally, a thermal storage and cooling system using an alluvial aquifer installs cold fixation and on-fixation so that even the alluvial aquifer where the ground water is located is pumped. When cold water is pumped, the groundwater is pumped and cooled by heat exchange through a heat pump. The hot water heated by the cooling operation is discharged by the warming and stored in the alluvial aquifer. When the heating is performed, the ground water of the hot water is pumped and the heating is performed by the heat exchange through the heat pump. Cooling and quenching, and storing in an alluvial aquifer.

However, when the amount of groundwater pumped for heating and cooling exceeds a certain amount, some of the groundwater re-injected into the city after the cooling and heating is discharged to the outside, causing problems such as reduction of groundwater, subsidence in the surrounding area, , Resulting in a problem of low energy utilization efficiency.

(Patent Document 1) KR1021578 B1

SUMMARY OF THE INVENTION Accordingly, the present invention has been made in view of the above problems, and provides an allotment-storage-system greenhouse heating / cooling system for an allotment which can increase the energy utilization efficiency by increasing the injection capacity of the injection water re-

In accordance with an embodiment of the present invention, the all-terrain inter-stage thermal storage greenhouse cooling / heating system performs the cooling / heating of the greenhouse using groundwater stored in the alluvial aquifer, and includes at least a cold water main pipe A hot water mainteeth which is separated from the cold water main pipe by a predetermined distance and at least a part of which is located in an allotment aquifer for hot water pumping and hot water supply and the cold water pumped from the cold water main pipe, A heat pump for discharging the discharged hot water to the hot water main tube and performing the heating of the greenhouse through the heat exchange between the hot water pumped from the hot water main tube and the cold drain water cooled by the heating operation to the cold water main pipe, When the discharged cold water is injected into the cold water main tube, A cold water auxiliary pipe installed at least one around the cold water main pipe so that cold water flowing into the pipe can be dispersedly injected into the hot water pipe, and when the hot water discharged from the heat pump is injected into the hot water main pipe, And at least one or more hot water auxiliary wells installed around the hot water mainte- nance definition so as to be injected.

And a heat storage tank for storing cold or hot water heat-exchanged through the heat pump.

Each of the cold water main pipe and the hot water main pipe is disposed between the ground and the soil layer and between the alluvial aquifer and the rock layer and is provided with a main pipe inner casing having at least a portion of a position corresponding to the alluvial aquifer, And a grounding agent layer formed at a position corresponding to a partial area of the alluvial aquifer and the soil layer and formed on the outer surface of the main pipe inner casing in close contact with the outer surface of the main pipe inner casing, May include a grooved grouting layer to prevent coming up.

Each of the cold water main tube and the hot water main tube is provided with a main tube outer casing extending from the ground to the top of the rock layer through the soil layer and the alluvial aquifer layer and the main tube inner casing is installed inside the main tube outer casing at a depth deeper than the main tube outer casing And injecting the main control agent layer between the main casing outer casing and the main casing inner casing to form the main casing grouting layer on the main casing casing layer between the main casing outer casing and the main casing inner casing, And the like.

The slot size of the main screen may be 1 mm, and the average diameter of the main control layer may be 2 to 5 mm.

Each of the cold water main tube and the hot water main tube includes a main tube pumping tube installed inside the tube casing for pumping cold water or hot water stored in the tube casing, an underwater pump installed at a lower end of the main tube pumping tube, And a main pipe injection pipe installed inside the main pipe inner casing for injecting discharged hot water or cold water.

Each of the cold water assistant pipe and the hot water assistant pipe is disposed from the ground to the alluvial aquifer through the soil layer and has an auxiliary tubular inner surface formed with at least a part of the position corresponding to the alluvial aquifer, And an auxiliary reservoir layer formed at a position corresponding to a partial area of the alluvial aquifer and the soil layer and formed on the auxiliary reservoir reservoir layer in close contact with the outer surface of the sub reservoir inner casing, And an auxiliary tubular grouting layer that prevents the groundwater from rising on the outer surface of the casing.

The slot size of the auxiliary tubular screen may be 0.3 to 0.6 mm, and the average particle size of the auxiliary tubular filter layer may be 2 to 5 mm.

A cold water main pipe connected to the cold water main pipe, a cold water auxiliary pipe connected to the cold water main pipe, and a hot water auxiliary pipe connecting the hot water pipe main pipe and the hot water auxiliary pipe pipe for dispersed injection of hot water flowing into the hot pipe main pipe, .

Wherein the tubular connection pipe includes a first connection part branched from the inner tubular casing and extending in the direction of the inner casing of the auxiliary pipe, a second connection part extending from the first connection part and extending in the upward direction, And a third connection part inserted into the inside of the inner casing of the auxiliary pipe.

And an air discharge valve installed in the tubular connection pipe to discharge the air inside the tubular inner casing and the tubular connection pipe.

According to the allotment aquifer greenhouse heating and cooling system of the present invention, the energy saving and cooling and heating costs can be reduced by performing cooling and heating of the greenhouse using hot water and cold water stored in the alluvial aquifer.

In addition, by injecting water injected again into the main pipe after the cooling and heating operation is dispersed through the auxiliary pipe provided around the main pipe, the injection capacity of the injected water can be increased to improve the energy utilization efficiency.

Furthermore, by simplifying the structure of the main pipe and the auxiliary pipe, the installation cost of the pipe can be reduced.

FIG. 1 is a configuration diagram illustrating a summer operation of the allotment aquarium thermal storage and cooling system for an alluvial aquifer according to an embodiment of the present invention.
FIG. 2 is a view illustrating the operation of the winter season in the allotment aquarium greenhouse heating / cooling system in an alluvial aquarium according to an embodiment of the present invention.
FIG. 3 is a block diagram showing the construction of the cold water main pipe and the cold water auxiliary pipe shown in FIG. 1 in more detail.
FIG. 4 is a flowchart illustrating a process for installing the cold water main body shown in FIG.

The present invention is capable of various modifications and various forms, and specific embodiments are illustrated in the drawings and described in detail in the text. It should be understood, however, that the invention is not intended to be limited to the particular forms disclosed, but includes all modifications, equivalents, and alternatives falling within the spirit and scope of the invention.

The terms first, second, etc. may be used to describe various elements, but the elements should not be limited by the terms. The terms are used only for the purpose of distinguishing one component from another. For example, without departing from the scope of the present invention, the first component may be referred to as a second component, and similarly, the second component may also be referred to as a first component.

The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. The singular expressions include plural expressions unless the context clearly dictates otherwise. In the present application, the terms " comprising " or " having ", and the like, are intended to specify the presence of stated features, integers, steps, operations, elements, parts, or combinations thereof, But do not preclude the presence or addition of one or more other features, integers, steps, operations, elements, parts, or combinations thereof.

Unless otherwise defined, all terms used herein, including technical or scientific terms, have the same meaning as commonly understood by one of ordinary skill in the art to which this invention belongs.

Terms such as those defined in commonly used dictionaries are to be interpreted as having a meaning consistent with the meaning in the context of the relevant art and are to be interpreted as ideal or overly formal in meaning unless explicitly defined in the present application Do not.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Reference will now be made in detail to the preferred embodiments of the present invention, examples of which are illustrated in the accompanying drawings.

FIG. 1 is a diagram illustrating a summer operation of a cooling / heating system for a regenerative greenhouse in an alluvial aquarium according to an embodiment of the present invention. FIG.

Referring to FIGS. 1 and 2, a system for cooling and heating a greenhouse using groundwater stored in an alluvial aquifer is used to perform cooling and heating of a greenhouse according to an embodiment of the present invention. The cooling water of the greenhouse 700 is cooled through the heat exchange between the installed cold water main pipe 100, the hot water of the hot water, the hot water main pipe 200 installed in the basement and the cold water pumped from the cold water main pipe 100, And a heat pump 300 for performing heating of the greenhouse 700 through heat exchange of the hot water pumped from the heater 200. In addition, the all-terrain inter-stage thermal storage greenhouse cooling / heating system according to an embodiment of the present invention includes a cold water auxiliary furnace 400 installed around a cold water main body 100 for dispersed injection of cold water discharged from a heat pump 300, And a hot water auxiliary pipe 500 installed around the hot water main pipe 200 for dispersed injection of the hot water discharged from the heat pump 300.

The cold water main line 100 is located in the basement so that at least a part of the cold water is located in the alluvial aquifer for the purpose of inflow of cold water and injection. The cold water main pipe 100 is used for cooling the greenhouse 700 by pumping cold water stored in the alluvial aquifer during the summer season and uses the cold water used for heating the greenhouse 700 through the heat pump 300 during the winter season, It is used to store in the aquifer.

The hot water main tube 200 is underground so that at least a part of the hot water is located in the alluvial aquifer for the ample water and injection. The hot water main tube 200 is installed to be spaced apart from the cold water main tube 100 by a predetermined distance to prevent thermal interference with the cold water main tube 100. For example, the hot water main tube 200 is installed at a distance of about 50 m or more from the cold water main tube 100. The hot water main pipe 200 is used for heating the greenhouse 700 by heating the hot water stored in the alluvial aquifer during the winter season and uses the hot water discharged for the cooling of the greenhouse 700 through the heat pump 300 during the summer, As shown in FIG.

The heat pump 300 performs cooling of the greenhouse 700 through the heat exchange of the cold water pumped from the cold water main pipe 100 during the summer season and discharges the warmed water discharged by the cooling operation to the hot water main pipe 200. In addition, the heat pump 300 performs heating of the greenhouse 700 through heat exchange of hot water pumped from the hot water main pipe 200 in the winter season, and discharges the cold drain water cooled by the heating operation to the cold water main pipe 100 . Although the cold water main pipe 100 and the hot water pipe 200 are shown connected to the heat pump 300 through a common pipe in the drawing, the piping connecting the cold water main pipe 100 and the heat pump 300, The pipe connecting the main pipe 200 and the heat pump 300 may be provided as a separate pipe.

The alluvial aquifer cooling and heating system is divided into summer and winter, and is used for cooling the greenhouse during the summer and heating the greenhouse during the winter.

For example, in the summer, as shown in FIG. 1, the cold water stored in the alluvial aquifer is pumped to the heat pump 300 through the cold water main pipe 100, and heat exchange using the heat pump 300 is performed The warmed water heated by the heat exchange in the heat pump 300 is discharged to the hot water main tube 200 and stored in the allotment aquifer.

2, the hot water stored in the alluvial aquifer is pumped through the hot water main pipe 200 and is supplied to the heat pump 300, and the hot water stored in the greenhouse 200 through heat exchange using the heat pump 300, And the cold drain water cooled by the heat exchange in the heat pump 300 is discharged to the cold water main pipe 100 and stored in the allotment aquifer.

In order to increase the amount of hot water to be injected into the cold water main pipe 100 and the amount of hot water to be injected into the hot water main pipe 200 according to the present invention, (400), and a hot water auxiliary duct (500) installed around the hot water main tube (200).

The cold water auxiliary conduit 400 surrounds the cold water pipe 100 so that the cold water discharged from the heat pump 300 is injected into the cold water main pipe 100, At least one of which is installed. For example, six cold water auxiliary pipes 400 are installed at regular intervals of three on both sides of the cold water main pipe 100.

The hot water auxiliary pipe 500 is connected to the hot water main pipe 200 so that the hot water discharged from the heat pump 300 is injected into the hot water main pipe 200, At least one is installed. For example, six hot water auxiliary pipes 500 are installed at regular intervals of three on both sides of the hot water pipe 200.

In this way, by providing one or more auxiliary tunnels 400 and 500 around the main tunnels 100 and 200, the infusion water flowing into the main tunnels 100 and 200 is dispersedly injected into the auxiliary tunnels 400 and 500, The system is operated until the rise of the water level of the main pipes 100 and 200 reaches the surface and the main pipes 100 and 200 are about to overflow after a predetermined time has elapsed , The system is stopped when the maximum water level of the main pipes (100, 200) is exceeded to induce the water level of the raised main pipes (100, 200) to return to the original ground water level, and this process is repeated to the alluvial aquifer The injection amount to be injected can be increased.

In addition, a heat storage tank 600 may be further provided for storing the cold or hot water heat-exchanged through the heat pump 300 so that the required amount of heat can be supplied to the greenhouse 700 when the system is stopped.

When cooling the greenhouse 700, the cold water pumped from the cold water main pipe 100 is directly injected into the hot water main pipe 200 through the heat radiating device in the greenhouse 700 without passing through the heat pump 300 Can be additionally installed.

FIG. 3 is a block diagram showing the construction of the cold water main pipe and the cold water auxiliary pipe shown in FIG. 1 in more detail.

Referring to FIG. 3, the cold water main tube 100 includes a main tube inner casing 110, a main pipe layer 120, and a main pipe grouting layer 130.

The main casing inner casing 110 is located from the ground to the soil layer and the alluvial aquifer through the bedrock. The main casing inner casing 110 is a hollow cylindrical casing having an empty interior, for example, a casing having a diameter of about 200 mm and a depth of about 100 m. Thus, by installing the main casing inner casing 110 up to the rock layer, the amount of cold water stored can be increased.

The main casing inner casing (110) has a main casing screen (112) formed in at least a part of the position corresponding to the allotment aquifer. The mainscreen screen 112 is used for the inflow and outflow of groundwater. The mainscreen screen 112 is constructed to introduce cold water stored in the alluvial aquifer into the inside of the main casing inner casing 110, A plurality of slots passing through the inside and the outside of the tubular body are formed. For example, the mainscreen screen 112 is formed of a wire screen, and the slot is formed in a size of about 1 mm.

The main pipe layer 120 is formed in close contact with the outer surface of the main casing inner casing 110 and is formed at a position corresponding to a partial area of the alluvial aquifer and the soil layer. In order to prevent the groundwater from flowing into the main casing inner casing 110 through the slots formed in the main casing screen 112, And is formed of a material having a particle size. For example, the foundation coating layer 120 is formed of sand gravel having an average particle size of about 2 to 5 mm.

The main grouting layer 130 is formed on the main tube layer 120 in close contact with the outer surface of the main tube inner casing 110. The main grouting layer 130 is formed of a material having a density higher than that of the main pipe layer 120 such as cement to prevent the groundwater from rising on the outer surface of the main pipe inner casing 110, Prevent leakage.

The cold water main pipe 100 includes a main pipe maintenance pipe 114 installed inside the main pipe inner casing 110 for pumping cold water stored in the main pipe inner casing 110 and an underwater pump 116 installed at the lower end of the main pipe maintenance pipe 114 And a main pipe injection pipe 118 installed in the main casing inner casing 110 for injecting the cold drain water discharged from the heat pump 300.

The main pipe maintenance pipe 114 is inserted from the outside into the interior of the main casing inner casing 110 and installed such that the lower end thereof reaches the position of the rock layer. The submersible pump 116 is installed at the lower end of the main control pumping pipe 114 to pump the cold water stored in the main casing inner casing 110 for the cooling of the greenhouse 700 in the summer, To the heat pump (300). Meanwhile, the cold drain water, which is heat-exchanged in the heat pump 300 for heating the greenhouse 700 during the winter season, is injected into the main casing inner casing 110 through the main pipe injection pipe 118.

FIG. 4 is a flowchart illustrating a process for installing the cold water main body shown in FIG.

3 and 4, in order to install the cold water main pipe 100, a main pipe outer casing (not shown) is installed from the ground to the upper end of the rock layer through the soil layer and the alluvial aquifer (S100). The main casing outer casing is a large-diameter casing having a larger diameter than the casing inner casing 110, for example, a casing having a diameter of about 450 mm.

Then, the main casing inner casing 110 is installed inside the main casing outer casing at a depth deeper than the main casing outer casing (S110). The main casing inner casing 110 is a small-diameter casing casing having a diameter smaller than that of the casing outer casing, for example, a casing having a diameter of about 200 mm, and a main casing screen 112 formed in the middle is installed in an allotment aquifer.

Subsequently, an excipient made of sand gravel having an average particle size of about 2 to 5 mm is injected between the main casing outer casing and the main casing inner casing 110 to form the main casing casing layer 120 (S120).

Then, the main grouting layer 130 is formed on the main grouting layer 120 between the main tube outer casing and the main tube inner casing 110 using a material such as cement (S130).

Subsequently, the outer casing of the main pipe installed in the ground is pulled out and removed (S140). Thus, instead of continuing to install the outer casing in the basement, the installation cost can be reduced by drawing and recycling.

Subsequently, by installing internal facilities such as a main drain pipe 114, a submerged pump 116, and a main photolithography injection pipe 118, and installing a main pipe manhole 140 on the upper side, the installation process of the cold water main pipe 100 Is completed.

As shown in FIG. 3, at least one cold water auxiliary pipe 400 for dispersed injection of the injection water injected into the cold water main pipe 100 is installed around the cold water main pipe 100. For example, six cold water auxiliary pipes 400 are installed at regular intervals of three on both sides of the cold water main pipe 100.

The cold water aquarium 400 includes an ancillary inner casing 410, an ancillary outer media layer 420, and an ancillary outer grouting layer 430.

The inner casing inner casing 410 is located from the ground through the soil layer to the alluvial aquifer. The auxiliary casing inner casing 410 is a hollow cylindrical casing whose interior is empty, for example, a casing having a diameter of about 76 mm.

An auxiliary canal inner casing (410) is formed with an auxiliary canal screen (412) in at least a portion of the location corresponding to the allotment aquifer. The auxiliary tubular screen 112 has a structure in which a plurality of slots are formed through the inner and outer portions of the tubular tubular member so as to allow the cold drain water injected into the tubular inner tubular casing 410 to flow out to the alluvial aquifer. For example, the auxiliary tubular screen 412 is formed of a wire screen, and the slot is formed in a size of about 0.3 to 0.6 mm.

The auxiliary tubular emulsion layer 420 is formed in close contact with the outer surface of the auxiliary tubular inner casing 410 and is formed at a position corresponding to a partial area of the alluvial aquifer and the soil layer. For example, the auxiliary coarse dressing layer 420 is formed of sand gravel having an average particle size of about 2 to 5 mm.

The auxiliary canal grouting layer 430 is formed on the auxiliary canal preparation layer 420 in close contact with the outer surface of the auxiliary canal inner casing 410. The auxiliary tubular grouting layer 430 is formed of a material having a higher density than the auxiliary tubular emulsion layer 420 such as cement to prevent the groundwater from rising on the outer surface of the auxiliary tubular inner casing 410 .

The cold water auxiliary pipe 400 having such a structure can be installed through the same process as that of the cold water main pipe 100, so a detailed description thereof will be omitted.

The cold water main pipe 100 and the cold water auxiliary pipe 400 are connected to each other through the pipe connecting pipe 800 so that the cold water injected into the cold water main pipe 100 can be dispersedly injected into the cold water auxiliary pipe 400. [ have.

The tubular connection pipe 800 is installed in the soil layer so as to connect the cold water main pipe 100 and the cold water auxiliary pipe 400 to each other for the dispersion injection of the cold water flowing into the cold water main pipe 100.

The tubular connecting pipe 800 includes a first connecting portion 810 branched from the main tube inner casing 110 and extending in the direction of the inner tubular inner casing 410, a second connecting portion 810 branched from the first connecting portion 810, And a third connection part 830 extending from the second connection part 820 and inserted into the interior of the auxiliary pipe inner casing 410. [ The construction of the tubular connection pipe 800 is merely an example, and various structures can be modified to be dispersively injected from the cold water main pipe 100 to the cold water auxiliary pipe 400.

On the other hand, when air is compressed in the interior of the casing 410 and the connection pipe 800, the flow of water from the cold water main pipe 100 to the cold water auxiliary pipe 400 may not be smooth . Therefore, an air discharge valve 840 is installed in the tubular connection pipe 800 to discharge the air inside the auxiliary tubular inner casing 410 and the tubular connection pipe 800. For example, the air discharge valve 840 may be installed in the second connection portion 820 exposed inside the auxiliary gauge manhole 440 for easy operation by the driver.

As described above, one or more cold water auxiliary pipes 400 are installed around the cold water main pipe 100, and they are connected through the pipe connecting pipe 800. Accordingly, when the water level of the injection water injected into the cold water main pipe 100 is increased, the dispersion injection is naturally performed toward the cold water auxiliary pipe 400 through the pipe connection pipe 800, thereby increasing the injection amount .

The construction of the hot water main pipe 200 and the hot water auxiliary pipe 500 is the same as that of the cold water main pipe 100 and the cold water auxiliary pipe 400, and therefore a detailed description thereof will be omitted.

While the present invention has been described in connection with what is presently considered to be practical and exemplary embodiments, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, It will be understood by those skilled in the art that various changes in form and details may be made therein without departing from the spirit and scope of the invention as defined by the appended claims.

100: cold water main tube 110: casing inner casing
112: main tube screen 114: main tube pumping tube
116: Submersible pump 118: Main tube injection tube
120: main tube emulsion layer 130: main tube grouting layer
200: Hot water main tube 300: Heat pump
400: cold water auxiliary tubing 410: secondary tubing inner casing
412: Auxiliary viewing screen 420: Auxiliary viewing area
430: auxiliary ground grouting layer 500: hot water auxiliary well
600: Heat storage tank 700: Greenhouse
800: duct connecting pipe 840: air discharge valve

Claims (11)

A system for controlling the cooling and heating of a greenhouse using groundwater stored in an alluvial aquifer,
A chilled water main which is located at least in part in an alluvial aquifer for both the cold water infusion and infusion;
A hot water main pipe spaced a certain distance from the cold water main pipe for pumping and injecting hot water and at least a part of which is located in the alluvial aquifer;
The cooling water of the greenhouse is cooled through the heat exchange between the cold water pumped from the cold water main tube and the hot water heated by the cooling is discharged to the hot water main tube and the greenhouse is heated by the heat exchange of the hot water pumped from the hot water main tube A heat pump for discharging the cold drain water cooled by the heating operation to the cold water main pipe;
A cold water auxiliary pipe installed at least one around the cold water main pipe so that cold drain water flowing into the cold water main pipe can be dispersedly injected when cold drain water discharged from the heat pump is injected into the cold water pipe main pipe; And
And at least one hot water auxiliary duct installed around the hot water main pipe so that the hot water discharged from the heat pump is injected into the hot water main pipe and the hot water discharged from the hot water main pipe can be dispersedly injected. system. The method according to claim 1,
Further comprising a heat storage tank for storing cold water or hot water heat-exchanged through the heat pump. The method according to claim 1,
Each of the cold water main pipe and the hot water pipe main pipe,
A main pipe inner casing formed from a ground to a soil layer and an alluvial aquifer to a rock layer and having a main screen at least in a part corresponding to the alluvial aquifer;
A main conduit filter layer formed in close contact with an outer surface of the main casing inner casing and formed at a position corresponding to a partial area of the alluvial aquifer and the soil layer; And
And a main grouting layer formed on the main tube layer in close contact with the outer surface of the main tube inner casing to prevent groundwater from rising on the outer surface of the main tube inner casing. system. The method of claim 3,
The cold water main and the hot water main pipes, respectively,
The main casing outer casing is installed from the ground to the top of the rock bed through the soil layer and alluvial aquifer,
Wherein said main casing inner casing is installed at a depth deeper than said main casing outer casing in said main casing outer casing,
Injecting the main control agent layer between the main casing outer casing and the main casing inner casing,
Forming the main grouting layer on the main etchant layer between the main casing outer casing and the main casing inner casing,
Wherein the outer casing is formed through a process of drawing the outer casing of the main pipe. The method of claim 3,
Wherein the slot size of the main screen is 1 mm and the average particle size of the main control layer is 2 to 5 mm. The method of claim 3,
The cold water main and the hot water main pipes, respectively,
A main pipe pumping pipe installed inside the main pipe inner casing to pump cold water or hot water stored in the main pipe inner casing;
An underwater pump installed at a lower end of the main control tank for pumping water; And
Further comprising a main pipe injection pipe installed in the inner casing of the main pipe for injecting hot water discharged from the heat pump or cold drain water. The method of claim 3,
Wherein each of the cold water assistant pipe and the hot water assistant pipe comprises:
An ancillary inner casing formed from a ground to an alluvial aquifer through a soil layer and having an anvil screen at least a portion of a location corresponding to an alluvial aquifer;
An auxiliary reservoir layer formed in close contact with an outer surface of the inner casing and formed at a position corresponding to a partial area of the alluvial aquifer and the soil layer; And
And an auxiliary tubular grouting layer formed on the auxiliary tubular filter layer in close contact with the outer surface of the tubular inner casing to prevent the groundwater from rising on the outer surface of the tubular inner tubular casing. Inter - store heat storage greenhouse heating and cooling system. 8. The method of claim 7,
Wherein the slot size of the auxiliary tubular screen is 0.3 to 0.6 mm and the average particle size of the auxiliary tubular filter layer is 2 to 5 mm. 8. The method of claim 7,
A cold water main pipe connected to the cold water main pipe, a cold water auxiliary pipe connected to the cold water main pipe, and a hot water auxiliary pipe connecting the hot water pipe main pipe and the hot water auxiliary pipe pipe for dispersed injection of hot water flowing into the hot pipe main pipe, Further comprising an aquifer storage room cooling / heating system. 10. The method of claim 9,
The tubular connector
A first connection part branched from the main pipe inner casing and extending in the direction of the inner casing inner pipe;
A second connection portion branched from the first connection portion and extending in an upward direction; And
And a third connection part extending from the second connection part and inserted into the inside of the auxiliary pipe inner casing. 11. The method of claim 10,
Further comprising an air discharge valve installed in the tubular connection pipe to discharge the air inside the inner tubular casing and the tubular tubular connection pipe.

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