KR20180137190A - Insulation system for double windows - Google Patents

Abstract

The present invention relates to a system for insulating a double window. The system for insulating the double window according to the present invention comprises: the double window including a chamber formed between a pair of glass windows, at least one bead inlet through which a plurality of beads and air are introduced into the chamber, a bead outlet through which the plurality of beads and the air contained in the chamber are discharged, and at least one air entrance into and out of the chamber; a movable body movably provided in the chamber while maintaining an interval between the pair of glass windows; and a movable body moving unit for moving the movable body.

Description

{INSULATION SYSTEM FOR DOUBLE WINDOWS}

The present invention relates to a double-sided insulation panel in which a plurality of beads are filled in a chamber between a pair of glass windows to insulate, shovel and soundproof a pair of glass windows or to discharge a plurality of beads housed in the chamber, And more particularly, to a double jacket insulation system capable of preventing shrinkage of a double window due to air flow in a chamber.

In buildings, glass windows isolate the natural environment from the indoor environment, serve as solar and fresh outside air supply routes, and are an essential component to give people a sense of perspective and openness.

Recently, the size of a window tends to become larger in order to make the appearance of a building more beautiful.

Therefore, in order to reduce the energy used in buildings, it is important to minimize the heat loss through the windows.

Conventionally, gas-filled double windows, vacuum window glasses, low emission coated glass, transmittance control glass, multilayer glass, etc., which inject gas having a low thermal conductivity into the inner space of the double window have been conventionally developed, It is difficult to use it universally because of a special manufacturing technique.

In addition, even if the conventional double-sided window is obtained, additional curtains or blinds must be additionally installed to prevent four-sided heat penetration.

In order to solve such a problem, a plurality of beads are filled in a chamber between a pair of glass windows by air blowing by an air blowing device to insulate, shade and soundproof a pair of glass, or to discharge a plurality of beads filled in a chamber A dual pane insulation system capable of viewing between a pair of glasses is being developed.

When a plurality of beads stored in a chamber between a pair of glass windows are discharged to a storage tank by air blowing by a blowing device or a plurality of beads stored in a storage tank are filled in a chamber, A negative pressure may be generated in the chamber, and the central region of the chamber may contract to damage the glass window.

In addition, as the bead flows between the chamber and the reservoir, static electricity is generated between the beads to aggregate the beads, so that the beads flow smoothly in the chamber or the reservoir and are not discharged, In particular, the number of beads remaining in the chamber is increased, so that it is not possible to keep the window clean. Thus, the user's convenience is reduced and the power consumption of the blower is also increased, thereby deteriorating the performance of the entire system.

Korean Patent Publication No. 10-2003-0013032 (entitled " Insulation System of Double Window Structure Using Beads, Published Date: Feb. 14, 2003) US Patent No. 9,151,105 (entitled WINDOW INSULATION SYSTEM AND METHOD OF OPERATING THE SAME, filed on May 10, 2015). Japanese Unexamined Patent Publication No. Hei 7-189561 (entitled Insulation window, published on Jul. 28, 1995)

SUMMARY OF THE INVENTION It is an object of the present invention to provide a double-sided thermal insulation system capable of preventing a chamber of a double-window from being shrunk to reduce damage to a window.

In addition, the present invention is capable of rapidly discharging beads received in a chamber when the beads stored in a chamber of a double window are discharged without stagnation, reducing the number of beads remaining in the chamber, and keeping the window clean. The present invention also provides a double-pane insulating system for improving a double-pane insulating system.

SUMMARY OF THE INVENTION It is an object of the present invention to provide an apparatus and a method for manufacturing a glass bead having a chamber formed between a pair of glass windows, at least one bead inlet through which a plurality of beads and air are introduced into the chamber, A double pane forming one or more air outlets through which air enters and exits the chamber; A movable body movably provided in the chamber while maintaining an interval between the pair of glass windows; And a moving body moving unit for moving the moving body.

Here, the moving body is provided so as to be able to move up and down in the chamber, and the moving body moving unit includes: a wire for suspending the moving body and lifting the moving body; A wire drum on which the wire is wound or unwound; And a driving motor for driving the wire drum to rotate the wire drum.

The moving body is provided in a plurality of elevatable chambers in the chamber, and the moving body moving unit includes, as another embodiment, at least one wire for suspending the plurality of moving bodies and raising and lowering the plurality of moving bodies; At least one auxiliary wire connecting the plurality of moving bodies with each other maintaining a gap therebetween; A wire drum on which the wire is wound or unwound; And a driving motor for driving the wire drum to rotate the wire drum.

The moving body is provided so as to be able to approach or separate from the bead inlet, and the moving body moving unit is, as another embodiment, a screw shaft for a moving body provided transversely to the moving body and screwed to the moving body; And a screw shaft driving motor for moving the screw shaft for the moving body.

Wherein the movable body is provided with a plurality of movable bodies movable toward or away from the bead inlet, and the movable body moving unit further comprises at least one auxiliary wire for connecting and connecting the plurality of movable bodies with each other at an interval; A screw shaft horizontally provided with respect to the moving body and screwed to one of the plurality of moving bodies; And a screw shaft driving motor for moving the screw shaft for the moving body.

The moving body is provided so as to be approachable or separable from the bead inlet, and the moving body moving unit is, as another embodiment, a driving rod connected to the moving body; And an actuator for linearly reciprocating the moving body by reducing the length and elongation of the driving rod.

The apparatus may further include a guide provided along the moving direction of the moving body to guide movement of the moving body.

And bead discharge means for discharging the plurality of beads received in the chamber to the bead outlet.

The bead discharge means includes a chamber air inflow pipe communicating with the chamber on the opposite side of the bead outlet and introducing air into the chamber; And a chamber air inlet pipe provided in the chamber air inlet pipe for opening and closing the chamber air inlet pipe.

In another embodiment, the bead discharge means is formed by stacking a plurality of pipes having mutually different lengths, and is provided on the bottom of the chamber or the chamber air inflow pipe, so that air flowing along the chamber air inflow pipe is supplied to the bead outlet The air injection unit may further include an air injection member for injecting air toward the nozzle.

The bead discharge means may be a screw shaft having a helical shape and rotatably provided at the bottom of the chamber toward the bead outlet. And a screw shaft driving motor for rotating the screw shaft.

The bead discharging means may further include a belt conveyor provided at the bottom of the chamber for discharging the plurality of beads accommodated in the chamber toward the bead outlet, forming an endless track.

A reservoir for storing the plurality of beads; And a main blowing device for sucking air or blowing air in the chamber to fill the chamber with the plurality of beads stored in the reservoir or to discharge the plurality of beads filled in the chamber to the reservoir have.

A bead flow tube connected to the reservoir and guiding the plurality of beads to flow; A bead supply pipe branched from the bead flow tube and connected to the bead inlet; A bead discharge pipe branched from the bead flow tube and connected to the bead outlet; An air discharge pipe connected to the reservoir and guiding the flow of air discharged from the reservoir; An air flow pipe connected to the air inlet and guiding the flow of the air entering and exiting the air inlet; And a communication pipe communicating with the air flow pipe and the air discharge pipe and having the main air blowing device.

A branch pipe branching from the air flow pipe and guiding the flow of air; A branch pipe valve provided in the branch pipe for opening and closing the branch pipe; And an auxiliary blowing device provided in the branch pipe for pressurizing and blowing air into the chamber through the branch pipe and the air flow pipe.

The chamber air inlet pipe may be branched from the air flow pipe or the branch pipe.

A bead flow pipe valve provided in the bead flow pipe for opening / closing the bead flow pipe; A bead supply pipe valve provided in the bead supply pipe for opening and closing the bead supply pipe; A bead discharge pipe valve provided in the bead discharge pipe for opening and closing the bead discharge pipe; An air discharge pipe valve provided in the air discharge pipe for opening and closing the air discharge pipe; And an air flow pipe provided in the air flow pipe for opening and closing the air flow pipe, wherein when the plurality of beads are filled in the chamber from the reservoir, the bead flow pipe valve and the bead supply pipe valve are opened, The valve for the bead discharge pipe is closed and the valve for the bead flow pipe and the valve for the bead discharge pipe are opened and the valve for the bead supply pipe can be closed when the plurality of beads are discharged from the chamber to the storage tank.

A bead return pipe branched from the bead supply pipe or the bead flow pipe and connected to the reservoir; And a bead collecting pipe valve provided in the bead collecting pipe for opening and closing the bead collecting pipe, wherein when the plurality of beads are filled in the chamber from the reservoir, the bead collecting pipe valve is closed, When the bead is discharged from the chamber to the reservoir, the valve for the bead collecting pipe can be opened.

An object of the present invention is, as another embodiment, a method of manufacturing a honeycomb structure including a chamber formed between a pair of glass windows, at least one bead inlet through which a plurality of beads and air are introduced into the chamber, A double window forming a bead outlet to be discharged and one or more air outlets through which air enters and exits the chamber; And one or more supports provided in the chamber, the one or more supports being fixedly supported on the pair of windshields while maintaining a gap between the pair of windshields.

According to the present invention, it is possible to prevent the chamber of the double window from shrinking and to reduce the damage of the window glass. Further, the beads received in the chambers of the double-chamber can be quickly discharged without being stagnated, the beads remaining in the chambers can be reduced, the window can be kept clean and the user's convenience can be improved .

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a configuration diagram of a double-sided insulation system according to a first embodiment of the present invention;
2 is a view illustrating a process of filling a plurality of beads into a double window of the double-
FIG. 3 is a view showing a process of discharging a plurality of beads from a dual window of the double-
Fig. 4 is an enlarged view showing the operation of the bead discharging means of Fig. 3,
Fig. 5 is a view showing another embodiment of the bead discharging means,
Fig. 6 is a perspective view of the air injection member of Fig. 5,
7 is a schematic view showing still another embodiment of the bead discharging means,
8 is a configuration diagram showing still another embodiment of the bead discharging means,
9 is a configuration diagram of a double-sided thermal insulation system according to a second embodiment of the present invention,
FIGS. 10 and 11 illustrate a process of filling a plurality of beads into a double window of the double-wall heat insulating system of FIG. 9;
FIGS. 12 to 14 illustrate a process in which a plurality of beads are discharged from a dual window of the double-
15 is a configuration diagram of a double jacket insulating system according to a third embodiment of the present invention,
16 and 17 are views showing a process of filling a plurality of beads into a double window of the double-sided adiabatic system of FIG. 15,
FIG. 18 and FIG. 19 are views showing a process of discharging a plurality of beads from a dual window of the double-sided adiabatic system of FIG. 15,
20 is a plan view showing a state where the moving body of Fig. 15 is housed in the chamber, Fig.
FIG. 21 is a plan view showing a state in which a moving body is accommodated in the chamber when filling and discharging the beads of FIG. 15;
22 is a configuration diagram of a double jacket insulating system according to a fourth embodiment of the present invention;
23 is a view showing a modification of the internal structure of a double-layered window of a double-sided thermal insulation system according to a first embodiment of the present invention as a fifth embodiment of the present invention,
24 is a view showing the operating state of the moving body of FIG. 23,
25 is a modification of the internal structure of a double-glazed double-glazing system according to a second embodiment of the present invention as a sixth embodiment of the present invention,
Fig. 26 is a view showing an operating state of the moving body of Fig. 25,
27 is a perspective view of the moving body.

BRIEF DESCRIPTION OF THE DRAWINGS The advantages and features of the present invention, and the manner of achieving them, will be apparent from and elucidated with reference to the embodiments described hereinafter in conjunction with the accompanying drawings. It should be understood, however, that the invention is not limited to the disclosed embodiments, but may be embodied in many different forms and should not be construed as limited to the embodiments set forth herein, And is provided to fully convey the scope of the present invention to a technician.

The terminology used herein is for the purpose of illustrating embodiments and is not intended to be limiting of the present invention. In the present specification, the singular form includes plural forms unless otherwise specified in the specification. The terms " comprises "and / or" comprising "used in the specification do not exclude the presence or addition of one or more other elements in addition to the stated element. Like reference numerals refer to like elements throughout the specification and "and / or" include each and every combination of one or more of the elements mentioned. Although "first "," second "and the like are used to describe various components, it is needless to say that these components are not limited by these terms. These terms are used only to distinguish one component from another. Therefore, it goes without saying that the first component mentioned below may be the second component within the technical scope of the present invention.

Unless defined otherwise, all terms (including technical and scientific terms) used herein may be used in a sense that is commonly understood by one of ordinary skill in the art to which this invention belongs. In addition, commonly used predefined terms are not ideally or excessively interpreted unless explicitly defined otherwise.

Hereinafter, the present invention will be described in detail with reference to the accompanying drawings.

Prior to explanation, it is described below that the double-glazing insulation system is applied to one double glazing, but it is to be noted that the technical idea of the present invention can be applied to a plurality of double glazing windows.

In addition, in the various embodiments, components having the same configuration are represented by the same reference symbols in the first embodiment. In the other embodiments, only the configurations different from those of the first embodiment will be described.

1 to 3 show a double jacket insulation system according to a first embodiment of the present invention.

As shown in these figures, the double-sided thermal insulating system according to the first embodiment of the present invention includes a double window 10, a moving body 160, and a moving body moving unit 170a.

The double pane 10 has a structure in which a pair of window panes are arranged side by side at regular intervals and supported by a window frame (not shown).

An internal space is formed between the pair of glass windows, for example, a chamber 11 is formed. The chamber 11 has a filled state in which a plurality of beads 1 are filled, or a discharged state in which a plurality of beads 1 are not received. When the plurality of beads 1 are filled in the chamber 11, the double glazing 10 is subjected to thermal insulation, shading and soundproofing, and when the plurality of beads 1 are discharged from the chamber 11, It is possible to see.

Here, a plurality of beads 1 will be briefly described. The beads are filled with air and gas so as to have heat insulating properties with spherical grains. The bead 1 is preferably made of a foamed foam material having excellent fluidity by blowing air, but the material of the bead 1 is not limited to this, and other kinds of foamed foam or hydrogel may be used. It is also preferable that the color of the bead 1 is white for blocking sunlight, or has a transparent color for transmitting sunlight. In summer, white beads (1) can be used to block the sunlight to obtain an adiabatic effect. In winter, white or transparent beads (1) are used to provide a so- And a heat insulating effect can be obtained. On the other hand, the color of the bead 1 is not limited, and can be produced in various colors. The shape of the bead 1 may have various cross-sectional shapes such as an elliptical shape and a polygonal shape in addition to the spherical shape.

On the other hand, the double pane 10 forms the chamber 11 and is sealed by the window frame frame.

A plurality of beads 1 and a bead inlet 13 into which air flows are formed at the upper end of one side of the double window 10, for example, on the right side of the upper end of the double window 10.

On the left side of the upper end of the double pane 10, an air inlet / outlet 15 through which air enters / exits the chamber 11 is formed.

At the inside of the chamber 11 adjacent to the air inlet 15, a bead blocking member 17 for the chamber is provided along the vertical direction of the double window 10. The chamber bead blocking member 17 has a rectangular plate shape and is coupled to the air inlet 15 of the double pane 10. A plurality of air holes (not shown) each having a semicircular cross-sectional shape smaller than the diameter of the bead 1 are formed at both side edges of the chamber bead blocking member 17 in close contact with the respective window surfaces of the double- have. Thus, the bead blocking member 17 for the chamber enables air to flow into the chamber 11 through the air passage hole, thereby preventing the bead 1 from flowing into the air flow pipe 91, which will be described later. However, the air passage holes may be formed in the shape of one or more slots along the longitudinal direction of the chamber bead blocking member 17. The bead blocking member 17 for the chamber may also be formed in a net shape in which a plurality of through holes having a diameter smaller than the diameter of the bead 1 are formed.

A plurality of beads (1) housed in the chamber (11) and a bead outlet (19) through which air is discharged are formed at one side of the bottom of the window frame between the double windows (10).

The dual window 10 is provided with a pressure measuring sensor 21 for measuring the pressure inside the chamber 11 and a distance measuring sensor 23 for measuring the filling distance of the bead in the chamber 11. Here, the distance measuring sensor 23 may be provided with an ultrasonic sensor.

At the center of the upper end of the double-pane 10, a moving body accommodating portion 27 for accommodating the moving body 160 is provided.

The movable body 160 is formed of a block having a pentagonal cross-sectional shape, and is movable up and down, for example, in the chamber 11 so as to be movable in the chamber 11 while maintaining an interval between the pair of glass windows. The moving body 160 moves along the center axis of the chamber 11. The moving body 160 has a thickness corresponding to the interval between the pair of glass windows. Although the moving body 160 has a pentagonal cross-sectional shape in the present embodiment, the present invention is not limited thereto, and the moving body 160 may have a polygonal cross-sectional shape such as a triangle or a quadrangle.

The moving body moving unit 170a moves the moving body 160 housed in the chamber 11. The moving body moving unit 170a includes a wire 171, a wire drum 173, and a drive motor 175 for a wire drum.

The wire 171 supports the moving body 160 in a suspended manner and moves the moving body 160 up and down.

The wire drum 173 has a cylindrical shape and is provided on the outer upper portion of the double window 10 to wind and unwind the wire 171.

The drive motor 175 for the wire drum is provided on the outer upper side of the double window 10 to rotate the wire drum 173 in the forward and reverse directions.

As a result, when the driving motor 175 for the wire drum is rotated in one direction, the wire 171 is wound on the wire drum 173, and the moving body 160 is moved upward to the chamber 11. When the driving motor 175 for the wire drum is rotated in the other direction, the wire 171 is retracted from the wire drum 173 and the moving body 160 is lowered to the bottom of the chamber 11.

The double jacket adiabatic system according to the first embodiment of the present invention further includes bead discharge means 30a for discharging a plurality of beads 1 received in the chamber 11 to the bead outlet 19. The bead discharge means 30a is provided on the other side of the bottom of the window frame between the double windows 10, for example, on the side opposite to the bead outlet 19. In this embodiment, as the bead discharge means 30a, a chamber air inlet pipe 31 and a chamber air inlet pipe valve 33 are provided.

The chamber air inlet pipe 31 has a hollow pipe or duct shape. The chamber air inlet pipe 31 communicates with the chamber 11 and serves to guide the flow of the air so that external air flows into the chamber 11 filled with the bead 1. [ The chamber air inflow pipe (31) is located on the side opposite to the bead outlet (19) with the chamber (11) therebetween. The chamber air inflow pipe 31 is connected to the branch pipe 101 via the air flow pipe 91 but the present invention is not limited thereto and the chamber air inflow pipe 31 may be connected to the branch pipe 101 Connected directly to the auxiliary air flow pipe 111 to be described later, connected to a separate blower, or used independently.

The chamber air inlet pipe (31) is provided with a chamber air inlet pipe valve (33) for opening and closing the chamber air inlet pipe (31). It is possible to control the flow of air flowing into the chamber 11 along the chamber air inflow pipe 31 by the opening and closing operation of the chamber air inflow pipe valve 33.

When the plurality of beads 1 filled in the chamber 11 of the double window 10 are discharged to the reservoir 50 as described above, the residual beads 11 generated in the bottom region opposite to the bead outlet 19 of the chamber 11 The external air flowing through the chamber air inflow pipe 31 is supplied toward the bead outlet 19 in the bottom region of the chamber 11 so that the plurality of beads 1 filled in the chamber 11 The bead 1 is sloped and stacked on the bottom region opposite to the bead outlet 19 of the chamber 11 when discharged through the bead outlet 19 and is smoothly fed to the reservoir 50 through the bead outlet 19 . As a result, it is possible to eliminate the remaining portion of the bead 1 in the bottom region of the chamber 11.

On the other hand, as another embodiment of the bead discharge means 30b, air flows along the chamber air inlet pipe 31 to the bead outlet 19, as shown in Figs. 5 and 6, The air injection member 35 may be further provided.

As shown in Fig. 6, the air injection member 35 has a structure in which a plurality of pipes having mutually different lengths are laminated. For example, the air injection members 35 are arranged such that the shorter the distance from the chamber 11 to the bottom of the chamber 11, the longer the pipes are arranged, and the shorter the distance from the chamber 11, And is formed as a laminate. A plurality of air injection holes (37) are formed in the surface of the air injection member (35).

The external air introduced into the chamber air inflow pipe 31 passes through a plurality of pipes having mutually different lengths and increases the flow velocity and at the same time, the bead outlet 19 of the chamber 11 at different positions of the chamber 11, The plurality of beads 1 filled in the chamber 11 do not remain in the bottom area of the chamber 11 due to the laminar flow generated by the air injected from the air injection member 35, And is discharged to the reservoir 50 through the bead outlet 19. Particularly, by the air injected toward the bottom of the air chamber 11 through the plurality of air injection holes 37 formed in the air injection member 35, the plurality of beads 1 are stagnated at the bottom of the chamber 11 So that it can be smoothly discharged toward the bead outlet 19.

Fig. 7 shows another embodiment of the bead discharge means 30c. As shown in the drawing, the bead discharging means 30c includes a screw shaft 41 and a screw shaft driving motor 43, unlike the bead discharging means 30a and 30b described above.

The screw shaft 41 has a helical shape and is rotatably provided at the bottom of the chamber 11 toward the bead outlet 19. [

The screw shaft driving motor 43 is provided on the outside of the double window 10 to rotate the screw shaft 41.

Thus, when the screw shaft driving motor 43 is operated, the screw shaft 41 rotates with a helical motion to rotate the bead 1 located at the bottom side region opposite to the bead outlet 19 of the chamber 11 by a predetermined amount To the bead outlet (19). The beads 1 remaining in the chamber 11 are smoothly discharged into the reservoir 50 through the bead outlet 19 without being obliquely stacked on the bottom region of the chamber 11, It is possible to solve the problem that the bead 1 remains in the region.

Although the chamber air inlet pipe 31 and the chamber air inlet pipe valve 33 and the screw shaft 41 and the screw shaft driving motor 43 are shown as the bead discharging means in this embodiment, The screw shaft 41 and the screw shaft driving motor 43 may be provided as the bead discharging means.

8 shows yet another embodiment of the bead discharge means 30d. As shown, the bead discharge means 30d includes a belt conveyor 45, unlike the bead discharge means 30a, 30b, and 30c described above.

The belt conveyor 45 is provided in the bottom area of the chamber 11 and includes a belt 47 forming an endless track, a roller 49 for rotating the belt 47, And a motor (not shown).

By providing the belt conveyor 45 in the bottom region of the chamber 11 as described above, the bead 1 located at the bottom region opposite to the bead outlet 19 of the chamber 11 is stacked on the belt 47, And is then transported toward the discharge port 19. The beads 1 remaining in the chamber 11 are smoothly discharged into the reservoir 50 through the bead outlet 19 without being obliquely stacked on the bottom region of the chamber 11, It is possible to solve the problem that the bead 1 remains in the region.

Although the chamber air inlet pipe 31 and the chamber air inlet pipe valve 33 and the belt conveyor 45 are shown as being provided together as the bead discharging means in the present embodiment, Only the belt conveyor 45 may be provided.

In the present embodiment, the bead discharging means 30a, 30b, 30c and 30d suck the air in the chamber 11 by a main blowing device 97 to be described later, and a plurality of beads 1 The present invention is applied to a dual-pane thermal insulation system in which a plurality of beads 1 filled in a chamber 11 are discharged to a storage tank 50. However, A plurality of beads 1 stored in the storage tank 50 are filled in the chamber 11 or a plurality of beads 1 filled in the chamber 11 are stored in a storage tank 50) in the case of a double-sided insulation system. That is, the bead discharging means 30a, 30b, 30c, 30d described above can be used to fill a plurality of beads 1 stored in the reservoir 50 into the chamber 11, The present invention can be applied to various types of double jacket insulation systems in which the air in the chamber 11 is sucked and blown or the air is sucked and blown into the chamber 11 when the jacket 1 is discharged to the storage tank 50. [

The double jacket adiabatic system according to the first embodiment of the present invention includes a reservoir 50, a bead flow pipe 71, a bead supply pipe 75, a bead discharge pipe 81, an air discharge pipe 85, A flow pipe 91, a communicating pipe 95, and a main air blower 97.

The reservoir (50) has a hollow cylindrical shape and stores a plurality of beads (1).

The reservoir 50 is provided with a bead blocking member 51 for the reservoir at an inner upper region thereof. The reservoir bead blocking member 51 has a net shape in which a plurality of through holes (not shown) are formed. The plurality of through holes formed in the reservoir bead blocking member 51 have a diameter smaller than the diameter of the beads 1 so that the bead blocking member 51 for reservoirs has a plurality of beads 1 introduced into the reservoir 50, To the air discharge pipe (85).

In addition, a storage tank air inlet pipe 53 is connected to the storage tank 50. The reservoir air inlet pipe 53 has a hollow pipe or duct shape. The reservoir air inflow pipe 53 is connected to the side wall of the reservoir 50 between the reservoir bead blocking member 51 and the air exhaust pipe 85 so that external air is introduced into the reservoir 50, And guide the flow of the air so that the beads are flown above the plurality of beads (1) stored in the beads (50).

The reservoir air inflow pipe 53 is provided with a valve 55 for reservoir air inflow pipe for opening and closing the reservoir air inflow pipe 53. It is possible to control the flow of the air flowing into the storage tank 50 along the storage tank air inflow pipe 53 by opening and closing the valve 55 for the storage tank air inflow pipe.

By injecting the external air above the plurality of beads 1 stored in the reservoir 50, the plurality of beads 1 stored in the reservoir 50 can be used as bottlenecks when the beads 1 are filled in the chamber 11. [ So that it can be smoothly discharged from the storage tank 50 without any development.

 Here, the storage tank air inlet pipe 53 and the storage tank air inlet pipe valve 55 may be optionally provided as needed.

The reservoir 50 further includes a stirrer 61 that stirs the plurality of beads 1 received in the reservoir 50. The agitator 61 includes an impeller 63 having a plurality of vanes and a driving motor 65 for rotating the impeller 63.

By providing the agitator 61 in the reservoir 50 as described above, a plurality of beads 1 stored in the reservoir 50 are uniformly mixed, and the beads 1 are gathered by the static electricity generated between the beads 1 The plurality of beads 1 stored in the storage tank 50 can be smoothly discharged from the storage tank 50 without a bottleneck phenomenon.

A transparent sight glass (not shown) may be provided on the outer wall of the storage tank 50 along the height direction of the storage tank 50 to visually check the amount of the beads 1 stored in the storage tank 50.

On the other hand, the reservoir 50 is connected to the bead outlet 19 of the double pane 10 by the bead flow pipe 71. The bead flow tube 71 has a hollow pipe or a duct shape and serves to guide the plurality of beads 1 to flow.

The bead flow tube 71 is provided with a bead flow tube valve 73 for opening and closing the bead flow tube 71. The flow of the bead 1 flowing along the bead flow pipe 71 can be interrupted by the opening and closing operation of the bead flow pipe valve 73.

The bead flow tube 71 branches to the bead supply tube 75 and the bead discharge tube 81.

The bead supply pipe 75 has a hollow pipe or a duct shape and is branched from the bead flow pipe 71 and connected to the bead inlet 13. The bead supply pipe 75 serves to guide the plurality of beads 1 discharged from the reservoir 50 to flow into the chamber 11.

The bead supply pipe 75 is provided with a bead supply pipe valve 77 for opening and closing the bead supply pipe 75. The flow of the bead 1 flowing along the bead supply pipe 75 can be interrupted by the opening and closing operation of the valve 77 for the bead supply pipe.

The bead discharge pipe 81 has a hollow pipe or a duct shape and is branched from the bead flow pipe 71 and connected to the bead outlet 19. The bead discharge pipe 81 serves to guide the plurality of beads 1 discharged from the chamber 11 to flow into the reservoir 50.

The bead discharge pipe 81 is provided with a bead discharge pipe valve 83 for opening and closing the bead discharge pipe 81. It is possible to control the flow of the bead 1 flowing along the bead discharge pipe 81 by the opening and closing operation of the bead discharge pipe valve 83. [

The air discharge pipe 85 has a hollow pipe or duct shape. The air discharge pipe 85 is connected to the upper portion of the storage tank 50 and serves to guide the flow of the air discharged from the storage tank 50.

The air discharge pipe 85 is provided with an air discharge pipe valve 87 for opening and closing the air discharge pipe 85. It is possible to control the flow of the air flowing along the air discharge pipe 85 by opening and closing the valve 87 for the air discharge pipe.

The air flow tube 91 has a hollow pipe or duct shape. The air flow pipe 91 is connected to the air inlet 15 and serves to guide the flow of the air flowing through the air flow pipe 91.

The air flow pipe 91 is provided with an air flow pipe valve 93 for opening and closing the air flow pipe 91. It is possible to control the flow of air flowing along the air flow pipe 91 by opening and closing operation of the air flow pipe valve 93.

The communication pipe 95 is connected to the air flow pipe 91 and the air discharge pipe 85 so as to communicate with the air flow pipe 91 and the air discharge pipe 85.

Herein, the double jacket adiabatic system according to an embodiment of the present invention further includes a bead collecting pipe 79a and a bead collecting pipe valve 79b. The bead collecting pipe 79a and the bead collecting pipe valve 79b may be selectively provided.

The bead return pipe 79a has a hollow pipe or a duct shape and is branched from the bead flow pipe 71 and connected to the upper area of the storage tank 50. [ The bead recovery pipe 79a serves to guide a plurality of beads 1 discharged from the chamber 11 and flowing through the bead discharge pipe 81 into the upper region of the storage tank 50 via the bead flow pipe 71 . Here, although not shown, the bead return pipe 79a may be branched from the bead feed pipe 75 and connected to the upper region of the storage tank 50, without branching from the bead flow pipe 71. [

The bead recovery pipe 79b is provided in the bead recovery pipe 79a to open and close the bead recovery pipe 79a. The flow of the bead 1 flowing along the bead return pipe 79a can be interrupted by the opening and closing operation of the bead return pipe valve 79b.

The main air blowing device 97 is provided in the communicating pipe 95 to suck air in the chamber 11 through the air flow pipe 91 or to suck air in the chamber 11 through the air exhaust pipe 85. Here, the main blower 97 may be a conventional blower, a blower, an air compressor, a pump, or the like.

On the other hand, when the main air blowing device 97 sucks the air of the chamber 11 through the air flow pipe 91, the chamber 11 is filled with a plurality of beads 1 stored in the storage tank 50. At this time, the bead flow pipe valve 73, the bead feed pipe valve 77 and the air flow pipe valve 93 are opened, and the bead discharge pipe valve 83 and the air discharge pipe valve 87 are closed.

A plurality of beads 1 filled in the chamber 11 are discharged from the chamber 11 to the reservoir 50 when the main air blowing device 97 sucks the air of the chamber 11 through the air discharge pipe 85. [ Lt; / RTI > At this time, the bead flow pipe valve 73, the bead discharge pipe valve 83 and the air discharge pipe valve 87 are opened, and the bead feed pipe valve 77 and the air flow pipe valve 93 are closed.

Further, the double jacket insulating system according to the first embodiment of the present invention further includes a branch pipe 101, a branch pipe valve 103, and an auxiliary blower 105.

The branch pipe (101) has a hollow pipe or duct shape. The branch pipe (101) branches off from the air flow pipe (91) and serves to guide the flow of air.

The branch pipe 103 is provided in the branch pipe 101 to open and close the branch pipe 101. And controls the flow of air flowing along the branch pipe (101) by opening and closing operation of the branch pipe valve (103).

The auxiliary blower 105 is provided in the branch pipe 101 and pressurizes and blows air into the chamber 11 through the branch pipe 101 and the air flow pipe 91. The air introduced into the chamber 11 through the branch pipe 101 and the air flow pipe 91 by the auxiliary blower 105 passes through each air passage hole of the chamber bead blocking member 17 and flows along the windshield face Flows into the chamber 11 and flows to the bead outlet pipe 81 through the bead outlet 19 together with the residual beads 1 by removing the residual beads 1 attached to the respective window surfaces by the electrostatic force. Here, an air filter 107 for filtering air flowing through the branch pipe 101 may be provided at the front end of the auxiliary blower 105.

Part of the air flowing along the air flow pipe 91 through the branch pipe 101 by the auxiliary blower 105 flows into the chamber air inlet pipe 31 so that the bead The bead 1 is supplied to the discharge port 19 so that the bead 1 is discharged to the opposite bottom side region of the bead outlet 19 of the chamber 11 when the plurality of beads 1 filled in the chamber 11 are discharged through the bead outlet 19. [ 1 are stacked obliquely and are not stagnated and discharged to the storage tank 50 through the bead outlet 19 quickly. As a result, it is possible to eliminate the remaining portion of the bead 1 in the bottom region of the chamber 11.

Therefore, when the plurality of beads 1 are discharged from the chamber 11 of the double-pane 10, not only the residual beads 1 attached to the window surface of the double-pane 10 but also the bead outlet 19 of the chamber 11, It is possible to minimize the residual beads 1 located on the opposite bottom region of the glass window 1 and to keep the window glass clean.

Here, the auxiliary blower 105 may be a conventional blower, a blower, an air compressor, a pump, or the like.

The double jacket thermal insulation system according to the first embodiment of the present invention further includes an auxiliary air flow pipe 111 and an auxiliary air flow pipe valve 113.

The auxiliary air flow tube 111 has a hollow pipe or duct shape. The auxiliary air flow pipe 111 is connected to the lower end of the branch pipe 101 and the lower end of the bead flow pipe 71 or the storage tank 50 so that the air blown from the auxiliary blower 105 flows into the bead flow pipe 71 or the storage tank 50, As shown in FIG. The auxiliary air flow pipe 111 is provided with a net made of a hole smaller than the bead 1 at a portion of the bead flow pipe 71 or the lower end of the storage tank 50 which is in contact with the lower end thereof to block the flow of the bead 1.

The auxiliary air flow pipe valve 113 is provided in the auxiliary air flow pipe 111 to open and close the auxiliary air flow pipe 111. The opening and closing operation of the auxiliary air flow pipe valve 113 enables the flow of the air flowing into the bead flow pipe 71 along the auxiliary air flow pipe 111 to be interrupted.

The air blown from the auxiliary blower 105 flows into the bead flow pipe 71 or the lower end of the storage tank 50 through the auxiliary air flow pipe 111 so that when the bead 1 is filled in the chamber 11, The plurality of beads 1 can flow from the reservoir 50 to the chamber 11 smoothly along the bead flow tube 71 by improving the fluidity of the plurality of beads 1 discharged from the reservoir 50.

Here, the auxiliary air flow pipe 111 and the auxiliary air flow pipe valve 113 may be optionally provided.

Further, the double jacket insulating system according to the first embodiment of the present invention further includes an auxiliary bead discharge pipe 115 and an auxiliary bead discharge pipe valve 117.

The auxiliary bead discharge tube 115 has a hollow pipe or duct shape. The auxiliary bead discharge tube 115 is connected to the bottom of the chamber 11 and the bead flow tube 71 and serves to guide the plurality of beads 1 discharged from the chamber 11 to the storage tank 50 to flow.

An auxiliary bead discharge pipe valve 117 is provided in the auxiliary bead discharge pipe 115 to open and close the auxiliary bead discharge pipe 115. The opening and closing operation of the auxiliary bead discharge pipe valve 117 enables the flow of the bead 1 flowing into the bead flow pipe 71 along the auxiliary bead discharge pipe 115 to be interrupted.

By providing the auxiliary bead discharge pipe 115 in this manner, the plurality of beads 1 filled in the chamber 11 serve as a bypass discharge when discharging the beads through the bead outlet 19 to the storage tank 50, The bottleneck phenomenon occurring in the bead outlet 19 can be prevented.

Here, the auxiliary bead discharge pipe 115 and the auxiliary bead discharge pipe valve 117 may be optionally provided.

The dual window insulating system according to the first embodiment of the present invention minimizes static electricity for minimizing static electricity generated when a plurality of beads 1 collide with each other and reciprocate between the chamber 11 and the storage tank 50 Device is provided.

The apparatus includes an ion generator 121, a temperature controller 123, and a humidity controller 125. The ion generator 121, the temperature controller 123 and the humidity controller 125 are respectively provided in the branch pipe 101. The ion generator 121 ionizes the air flowing through the branch pipe 101, 123 regulates the temperature of the air flowing through the branch pipe 101 and the humidity controller 125 regulates the humidity of the air flowing through the branch pipe 101.

Here, as the temperature controller 123, a heater and a cooler may be provided, and as the humidity controller 125, a dehumidifier and a humidifier may be provided.

Further, the apparatus includes a temperature measurement sensor 131, a humidity measurement sensor 133, and an electrostatic measurement sensor 135 as static electricity minimization devices. The temperature measurement sensor 131, the humidity measurement sensor 133 and the electrostatic measurement sensor 135 are respectively provided in the storage tank 50. The temperature measurement sensor 131 measures the temperature inside the storage tank 50, The sensor 133 measures the humidity inside the reservoir 50 and the electrostatic measurement sensor 135 measures the static electricity between the plurality of beads 1 accommodated in the reservoir 50.

Thereby, before discharge of the plurality of beads 1 stored in the reservoir 50 to the chamber 11, the electrostatic measurement sensor 135 measures the static electricity of the beads 1 stored in the reservoir 50, 1, the auxiliary blower 105 and the ion generator 121, the agitator drive motor 65 of the agitator 61, and the main blower 97 (not shown) under the control of a control unit ). At this time, on the basis of the temperature data and the humidity data measured by the temperature measurement sensor 131 and the humidity measurement sensor 133 provided in the storage tank 50, static electricity is generated between each bead 1 stored in the storage tank 50, The temperature and the humidity of the air flowing through the branch pipe 101 are controlled.

The auxiliary air flow pipe valve 113 is opened so that the air ionized by the ion generator 121 is supplied into the reservoir 50 through the auxiliary air flow pipe 111, Lt; / RTI >

The air discharge pipe valve 87 is opened to discharge the air introduced into the storage tank 50 through the air discharge pipe 85 and the communication pipe 95 and to the outside through the main air blowing device 97. At this time, the air flow pipe valve 93 is closed.

Meanwhile, in the storage tank 50, the beads 1 being agitated by the agitator 61 are mixed with the ionized air introduced into the reservoir 50, thereby minimizing the static electricity. When the static electricity measured by the static electricity measurement sensor 135 is lower than the reference value, the auxiliary blower 105 and the ion generator 121, the agitator drive motor 65 of the agitator 61, Thereby stopping the device 97.

Thereby, the plurality of beads (1) stored in the storage tank (50) can be stored with the static electricity minimized.

By providing the static electricity minimizing device as described above, the static electricity generated in the bead 1 is minimized to prevent the beads 1 from tangling due to the electrostatic force between the beads 1, ) Can reduce the occurrence of bottlenecks. It is also possible to smoothly flow the bead 1 in the chamber 11 or the storage tank 50 to prevent a bottleneck phenomenon and to keep the windshield clean so as to improve the convenience of the user, It can reduce the consumption and improve the performance of the whole system.

The double jacket thermal insulation system according to the first embodiment of the present invention is characterized in that a rotary feeder 141 for the storage tank is provided at the lower end of the storage tank 50 and a bead outlet pipe A rotary feeder 143 for the discharge pipe may be provided and a rotary feeder 145 for the auxiliary bead discharge pipe may be provided at a connection portion between the bottom of the chamber 11 and the auxiliary bead discharge pipe 115.

The plurality of beads 1 are introduced into the bead flow pipe 71 or the storage tank 50 by a predetermined amount by the rotary feeder 141 for storage tank when the plurality of beads 1 are taken in and out of the storage tank 50 And the occurrence of bottlenecks in the bead outlet area of the storage tank 50 can be reduced.

When storing the plurality of beads 1 filled in the chamber 11 in the reservoir 50, the plurality of beads 1 filled in the chamber 11 are supplied to the rotary feeder 143 for the bead discharge pipe and the auxiliary bead discharge The rotary rotary feeder 145 can reduce the occurrence of a bottleneck in the bead outlet area 81 and the auxiliary bead outlet pipe 115 by a predetermined amount.

In this embodiment, a rotary feeder 141 for the storage tank is provided at the lower end of the storage tank 50, and a rotary feeder 143 for the bead discharge pipe is provided at the connection portion between the bead discharge port 19 and the bead discharge pipe 81 A rotary feeder 145 for an auxiliary bead discharge pipe is shown as being provided at the connection portion between the bottom of the chamber 11 and the auxiliary bead discharge pipe 115. However, the present invention is not limited thereto, and slide gates may be provided instead of the rotary feeder .

The bead flow pipe 71, the bead discharge pipe 81, the air discharge pipe 85, the air flow pipe 91, the communicating pipe 95, the branch pipe 101, the auxiliary air flow pipe 111 It is effective that the reservoir air inflow pipe 53, the chamber air inflow pipe 31 and the auxiliary bead discharge pipe 115 are made of a conductive material in order to minimize static electricity. The valve for bead flow pipe 73, the valve for bead feed pipe 77, the valve for bead discharge pipe 117, the valve for air discharge pipe 87, the valve for air flow pipe 93, the branch pipe valve 103, The auxiliary air flow pipe valve 113, the reservoir air inflow pipe valve 55, the chamber air inflow pipe valve 33 and the auxiliary bead discharge pipe valve 117 are opened or closed by the solenoid valve or the motor, Motor-operated valve.

With this arrangement, the operation of the double-sided thermal insulation system according to the first embodiment of the present invention will be described with reference to FIGS. 1 to 3. FIG.

First, as shown in Fig. 1, a plurality of beads 1 are stored in a storage tank 50, and in a state where a plurality of beads 1 are not filled in the chamber 11 of the double- A process of filling a plurality of beads 1 with a plurality of beads 11 will be described.

The movable body 160 is positioned at the center of the chamber 11 by operating the drive motor 175 for the wire drum before filling the plurality of beads 1 into the chamber 11. [

The valve for bead flow pipe 73, the valve for bead supply pipe 77 and the valve for air flow 93 are opened and the valve for bead discharge pipe 83, the valve for auxiliary bead pipe 117 and the valve for air discharge pipe 87 And the bead recovery pipe 79b are closed, the main blower 97 is operated.

2, the main air blowing device 97 is connected to the communication pipe 95, the air flow pipe 91, the chamber 11, the bead supply pipe 75, , And sucks the air present in the bead flow tube (71). At this time, since the air discharge pipe valve 87 is closed, the air inside the storage tank 50 is not sucked by the main air blower 97 through the air discharge pipe 85.

A negative pressure is generated in the communicating tube 95, the air flow pipe 91, the chamber 11, the bead supply pipe 75 and the bead flow pipe 71 by the suction action of the main blower 97, A plurality of beads 1 stored in the bead flow pipe 71 flows along the bead flow pipe 71 and the bead supply pipe 75 and flows into the upper region of the chamber 11. At this time, the maximum negative pressure is generated at the center of the chamber 11 by the suction pressure of the main air blowing device 97, but the moving body 160 is located at the center of the chamber 11, So that the moving body 160 serves as a column for supporting the pair of glass windows. As a result, the shrinkage phenomenon does not occur in the central region of the chamber 11, and the glass window is prevented from being broken. Based on the pressure value in the chamber 11 measured by the pressure measurement sensor 21 and the bead filling distance value in the chamber 11 measured by the distance measurement sensor 23, (175) is rotated in one direction or another direction to move the movable body (160).

On the other hand, the valve for reservoir air inflow pipe 55 provided in the reservoir air inflow pipe 53 is opened during or before the inflow of the plurality of beads 1 into the chamber 11, It is possible to smoothly discharge a plurality of beads 1 stored in the storage tank 50 from the storage tank 50 without bottleneck by introducing outside air having a high pressure into the space above the plurality of beads 1 stored in the storage tank 50 It is possible.

It is also possible to open the auxiliary air flow pipe valve 113 provided in the auxiliary air flow pipe 111 and operate the auxiliary air blowing device 105 to blow air into the auxiliary air flow pipe 111, The plurality of beads 1 are introduced into the reservoir 50 through the auxiliary air flow pipe 111 to improve the fluidity of the plurality of beads 1 discharged from the reservoir 50, To the chamber 11 smoothly along the bead flow tube 71. In this case, At this time, the branch pipe valve 103 provided in the branch pipe 101 is closed to prevent the air blown from the auxiliary blower device 105 from flowing into the air flow pipe 91 through the branch pipe 101.

The plurality of beads 1 introduced into the chamber 11 fall freely from the upper end of the double window 10 toward the lower end and are filled in the entire region of the chamber 11 as shown in Fig. At this time, the plurality of beads (1) filled in the chamber (11) are prevented from flowing out to the air flow pipe (91) by the chamber bead blocking member (17) provided in the air inlet / outlet (15).

The air introduced into the chamber 11 together with the plurality of beads 1 passes through the chamber bead blocking member 17 and is discharged to the outside through the air flow pipe 91 and the main blower 97 .

The open bead flow conduit valve 73 and the bead feed conduit valve 77 and the air flow conduit valve 93 are opened after the plurality of beads 1 stored in the reservoir 50 are filled in the entire area of the chamber 11. [ And at the same time, closes the reservoir air inflow conduit valve 55 and the auxiliary air flow conduit valve 113.

By stopping the operation of the main air blowing device 97, the chamber 11 of the double-blind window 10 is filled with a plurality of beads 1, and the double- So that additional installation of separate curtains or blinds becomes unnecessary. Particularly, the moving body 160 is positioned at the center of the chamber 11, thereby preventing the chamber 11 of the double-pane 10 from contracting, thereby reducing damage to the window.

In the case where the bead return pipe 79a and the bead return pipe valve 79b are not provided in this embodiment, the valve for bead flow pipe 73, the valve for bead supply pipe 77, The main blowing device 97 is operated in a state where the valve for bead discharge pipe 83, the valve for auxiliary bead discharge pipe 117 and the valve for air discharge pipe 87 are closed, A plurality of beads 1 can be filled into the chamber 11 by flowing the beads 1 of the beads 1 into the upper region of the chamber 11 via the bead flow pipe 71 and the bead supply pipe 75.

Hereinafter, a process of discharging a plurality of beads 1 into the reservoir 50 in a state where a plurality of beads 1 are filled in the chamber 11 of the double glazing 10 will be described with reference to FIG. do.

3, the bead flow pipe 73, the bead discharge pipe valve 83, the air discharge pipe valve 87 and the bead pipe 73b are opened and the air flow pipe valve 93 is opened. The main blower 97 is operated.

On the other hand, before opening or closing the chamber air inflow pipe valve 33 or opening the branch pipe valve 103 before or during the inflow of the plurality of beads 1 into the storage tank 50, So that external air can be supplied to the chamber 11.

The main air blowing device 97 is connected to the communicating pipe 95, the air discharge pipe 85, the reservoir 50, the bead flow pipe 71, the bead return pipe 79a, The bead supply pipe 75, the bead discharge pipe 81, and the chamber 11, as shown in Fig. At this time, since the air flow pipe valve 93 is closed, the air in the chamber 11 is not sucked into the main air blower 97 through the air flow pipe 91.

The bead flow pipe 71, the bead return pipe 79a and the bead discharge pipe 81 by the suction action of the main air blowing device 97. The communicating pipe 95, the air discharge pipe 85, the reservoir 50, A negative pressure is generated in the chamber 11 and a part of the beads 1 filled in the chamber 11 flows along the bead flow tube 71 through the bead discharge tube 81 and flows into the bottom of the storage tank 50 The remaining beads 1 flow along the bead flow pipe 71 and the bead return pipe 79a through the bead discharge pipe 81 and flow into the upper portion of the storage tank 50. [

When the valve for bead flow pipe 73, the valve for bead discharge pipe 83 and the valve for air discharge pipe 87 are not provided in the present embodiment, the bead return pipe 79a and the bead return pipe valve 79b are not provided, The main air blowing device 97 is operated so that the bead 1 filled in the chamber 11 is passed through the bead discharge pipe 81 and the bead flow pipe 71 in a state in which the air flow pipe 93 is closed. The beads 1 can be discharged from the chamber 11 by flowing into the bottom of the storage tank 50. [

After the beads 1 are discharged from the chamber 11, some of the beads 1 are attached to the glass surface by electrostatic force or remain in the bottom area of the chamber 11.

Thus, the branch pipe valve 103 and the chamber air inlet pipe valve 33 are opened and the auxiliary blower 105 is further operated. At this time, the auxiliary air flow pipe valve 113 provided in the auxiliary air flow pipe 111 is closed and the air blown from the auxiliary air blowing device 105 flows through the auxiliary air flow pipe 111 into the bead flow pipe 71 or the reservoir 50 ).

The auxiliary blower 105 blows air toward the branch pipe 101 and some air blown into the branch pipe 101 flows through the air flow pipe 91 into the chamber 101, Passes through each air passage hole of the bead blocking member 17 and flows into the chamber 11 along the windshield surface to remove the residual beads 1 attached to the surfaces of the windshields by the electrostatic force, And flows to the bead discharge pipe 81 through the bead outlet 19.

The remaining air blown into the branch pipe 101 flows into the bottom region of the chamber 11 through the chamber air inflow pipe 31. External air having a relatively higher pressure than the chamber 11 is introduced into the bottom region of the chamber 11 and is injected toward the bead outlet 19 so that the bead is discharged to the bottom region opposite to the bead outlet 19 of the chamber 11, The bead 1 is obliquely stacked and is not stagnated and discharged to the reservoir 50 through the bead outlet 19 quickly so that the residual of the bead 1 in the bottom region of the chamber 11 can be eliminated.

This minimizes the amount of the beads 1 attached to the glass window surface of the double pane 10 and the amount of the beads 1 remaining in the bottom region of the chamber 11, so that the glass window can be kept clean. Then, the driving motor 175 for the wire drum is operated to store the moving body 160 in the moving body housing portion 27.

On the other hand, the plurality of beads 1 discharged from the chamber 11 and stored in the storage tank 50 are prevented from flowing out to the air discharge pipe 85 by the reservoir bead blocking member 51 provided in the storage tank 50 .

The air flowing into the reservoir 50 together with the plurality of beads 1 passes through the bead blocking member 51 for reservoir and flows through the air discharge pipe 85 and the communicating pipe 95 to the main blower 97 .

After the plurality of beads 1 discharged from the chamber 11 are stored in the reservoir 50, the bead flow pipe 73 and the bead discharge pipe valve 83, which have been opened as shown in FIG. 1, The conduit valve 87 and the bead return pipe valve 79b are closed, and at the same time, the branch pipe valve 103 is closed.

By stopping the operation of the main blower unit 97, the chamber 11 of the double glazing unit 10 is in a state in which the plurality of beads 1 are discharged and can be viewed through the double glazing unit 10.

9-14 illustrate a dual pane insulation system according to a second embodiment of the present invention.

The double skin insulating system according to the second embodiment of the present invention differs from the first embodiment in that the moving body 160 is movable in the left and right direction of the chamber 11 in such a manner that the moving body 160 approaches and separates from the bead inlet 13, .

The moving body 160 has a rectangular plate shape having a size corresponding to the thickness of the pair of glass windows. The moving body 160 has a length such that interference with the bead blocking member 17 for the chamber and the bead outlet 19 does not occur.

The moving body moving unit 170b includes a pair of movable body screw shaft 181 and a pair of movable body screw shaft driving motor 183.

A pair of movable screw shafts 181 are arranged laterally with respect to the moving body 160, for example, in the vertical direction of the chamber 11, with a space therebetween. Each mobile screw shaft 181 is screwed to the movable body 160 so as to be capable of screwing.

The movable screw shaft driving motor 183 is coupled to the movable screw shaft 181 to rotate the movable screw shaft 181 in the forward and reverse directions.

Thus, when the screw shaft driving motor 183 for the moving body is rotated in one direction, the moving body moves toward the bead inlet 13. When the screw shaft driving motor 183 for a moving body is rotated in the other direction, the moving body 160 moves away from the bead inlet 13.

In addition, the double jacket thermal insulation system according to the second embodiment of the present invention further includes a guide 189 for guiding the movement of the movable body 160.

The guide 189 has a bar shape, and the movable body 160 is movably coupled. The guide 189 is provided along the moving direction of the moving body 160 and is arranged, for example, in parallel with the screw shaft 181 for the moving body to guide the movement of the moving body 160.

Further, in the double-sided adiabatic system according to the second embodiment of the present invention, the bead blocking member 17 for the chamber is disposed in the upper region of the chamber 11, unlike the first embodiment described above. Further, the air flow tube connected to the upper portion of the chamber 11 is branched into the first air flow tube 91a and the second air flow tube 91b. The first air flow tube 91a and the second air flow tube 91b are connected to the chamber 11 at intervals along the lateral direction of the chamber 11. The first air flow pipe 91a is provided with a first air flow pipe valve 93a for opening and closing the first air flow pipe 91a and the second air flow pipe 91b is provided with a second air flow pipe 91b for opening / 2 air flow pipe valve 93b is provided.

Here, the moving body moving unit 170b in this embodiment is composed of the moving body screw shaft 181 and the screw shaft driving motor 183 for moving body, but the present invention is not limited to this, and the moving body moving unit 170b is not shown A driving rod connected to the moving body, and an actuator for linearly reciprocating the moving body by reducing the length and elongation of the driving rod.

The operation of the double-sided thermal insulation system according to the second embodiment of the present invention will now be described.

9, a plurality of beads 1 are stored in a reservoir 50. In a state where a plurality of beads 1 are not filled in the chamber 11 of the double window 10, A process of filling a plurality of beads 1 with a plurality of beads 11 will be described.

The moving body 160 is moved toward the center of the chamber 11 by actuating the screw shaft driving motor 183 for the moving body before filling the plurality of beads 1 into the chamber 11.

The valve for bead flow pipe 73, the valve for bead supply pipe 77, the valve for air flow pipe 93 and the valve for first air flow pipe 93a are opened and the valve for bead discharge pipe 83 and the valve for auxiliary bead discharge pipe The main air blowing device 97 is operated in a state where the air discharge pipe valve 117, the air discharge pipe valve 87, the second air flow pipe valve 93b and the bead return pipe valve 79b are closed.

10, the main air blowing device 97 is connected to the communication pipe 95, the air flow pipe 91, the first air flow pipe 91a, the chamber 11 ), The bead supply pipe (75), and the bead flow pipe (71). At this time, since the air discharge pipe valve 87 is closed, the air inside the storage tank 50 is not sucked by the main air blower 97 through the air discharge pipe 85.

The air flow pipe 91, the first air flow pipe 91a, the chamber 11, the bead supply pipe 75 and the bead flow pipe 71 A plurality of beads 1 stored in the storage tank 50 flow along the bead flow tube 71 and the bead supply tube 75 and flow into the upper region of the chamber 11. [ At this time, the maximum negative pressure is generated in the chamber 11 by the suction pressure of the main air blowing device 97, but the movable body 160 maintains the interval between the pair of the window panes, The shrinkage phenomenon does not occur in the chamber 11, and the damage of the glass window can be reduced.

Based on the pressure value inside the chamber 11 measured by the pressure measurement sensor 21 and the bead filling distance value measured inside the chamber 11 measured by the distance measurement sensor 23, The driving motor 183 is rotated in the other direction to move the moving body 160 away from the bead inlet 13 and move the chamber 11 between the moving body 160 and the bead inlet 13, Fill the bead (1) with the area. When the moving body 160 moves from the center of the chamber 11 to the opposite side of the bead inlet 13, the second air flow pipe valve 93b is further opened to move the movable body 160 between the moving body 160 and the bead inlet 13 The air existing in the chamber 11 region is sucked into the air flow pipe 91 through the first air flow pipe 91a and the second air flow pipe 91b.

On the other hand, before or during the inflow of the plurality of beads 1 into the chamber 11, the reservoir air inflow conduit valve 55 provided in the reservoir air inflow conduit 53 is opened and a plurality The bead 1 can be smoothly discharged from the reservoir 50 without causing a bottleneck.

It is also possible to open the auxiliary air flow pipe valve 113 provided in the auxiliary air flow pipe 111 and operate the auxiliary air blowing device 105 to blow air into the auxiliary air flow pipe 111, Air to be blown may be introduced into the bead flow pipe 71 via the auxiliary air flow pipe 111. [ At this time, the branch pipe valve 103 provided in the branch pipe 101 is closed to prevent the air blown from the auxiliary blower device 105 from flowing into the air flow pipe 91 through the branch pipe 101.

A plurality of beads 1 introduced into the region of the chamber 11 between the moving body 160 and the bead inlet 13 are freely dropped from the upper end of the double window 10 toward the lower end and filled in the entire region of the chamber 11 . At this time, the plurality of beads (1) filled in the chamber (11) are prevented from flowing out to the air flow pipe (91) by the chamber bead blocking member (17) provided in the air inlet / outlet (15).

The air introduced into the chamber 11 together with the plurality of beads 1 passes through the chamber bead blocking member 17 and is discharged to the outside through the air flow pipe 91 and the main blower 97 .

The open bead flow conduit valve 73 and the bead feed conduit valve 77 and the air flow conduit valve 93 are opened after the plurality of beads 1 stored in the reservoir 50 are filled in the entire area of the chamber 11. [ The first air flow pipe valve 93a and the second air flow pipe valve 93b are closed and at the same time the reservoir air inflow pipe valve 55 and the auxiliary air flow pipe valve 113 are closed.

By stopping the operation of the main air blowing device 97, the chamber 11 of the double-blind window 10 is filled with a plurality of beads 1, and the double- So that additional installation of separate curtains or blinds becomes unnecessary. Particularly, when the bead 1 is filled in the chamber 11, the moving body 160 moves away from the bead inlet 13 while maintaining the space between the pair of the window panes so that the chamber 11 of the double- It is possible to prevent shrinkage and to reduce breakage of the glass window.

In the case where the bead return pipe 79a and the bead return pipe valve 79b are not provided in this embodiment, the valve for bead flow pipe 73, the valve for bead supply pipe 77, The main blowing device 97 is operated in a state where the bead discharge pipe valve 83, the auxiliary bead discharge pipe valve 117 and the air discharge pipe valve 87 are closed and the first air flow pipe valve 93a And the second air flow pipe valve 93b are selectively opened or closed in accordance with the movement of the moving body 160 so that the plurality of beads 1 stored in the storage tank 50 are passed through the bead flow pipe 71 and the bead supply pipe 75 To the upper region of the chamber (11), and the plurality of beads (1) can be filled in the chamber (11).

Hereinafter, a process of discharging a plurality of beads 1 into the reservoir 50 in a state where a plurality of beads 1 are filled in the chamber 11 of the double glazing 10 will be described with reference to FIG. do.

12, the bead flow pipe 73, the bead discharge pipe valve 83, the air discharge pipe valve 87, and the air outlet pipe 87 are provided with the movable body 160 at the maximum distance from the bead inlet 13 The bead recovery pipe 79b is opened and the main air blowing device 97 is closed with the air flow pipe valve 93, the first air flow pipe valve 93a and the second air flow pipe valve 93b closed . On the other hand, after opening the chamber air inlet pipe valve 33 or the branch pipe valve 103 before or during the flow of the beads 1 into the storage tank 50, To supply the outside air to the chamber (11).

The main air blowing device 97 is connected to the communicating pipe 95, the air discharge pipe 85, the reservoir 50, the bead flow pipe 71, the bead return pipe 79a, The bead discharge tube 81, and the air existing in the chamber 11, as shown in Fig. At this time, since the air flow pipe valve 93 is closed, the air in the chamber 11 is not sucked into the main air blower 97 through the air flow pipe 91.

The bead flow pipe 71, the bead return pipe 79a and the bead discharge pipe 81 by the suction action of the main air blowing device 97. The communicating pipe 95, the air discharge pipe 85, the reservoir 50, A negative pressure is generated in the chamber 11 so that the beads 1 filled in the chamber 11 flow along the bead flow tube 71 via the bead discharge tube 81 and enter the bottom of the storage tank 50 And the remaining beads 1 flow along the bead flow pipe 71 and the bead return pipe 79a through the bead discharge pipe 81 and flow into the upper part of the storage tank 50. [

When the valve for bead flow pipe 73, the valve for bead discharge pipe 83 and the valve for air discharge pipe 87 are not provided in the present embodiment, the bead return pipe 79a and the bead return pipe valve 79b are not provided, The main air blowing device 97 is operated so that the bead 1 filled in the chamber 11 is passed through the bead discharge pipe 81 and the bead flow pipe 71 in a state in which the air flow pipe 93 is closed. The beads 1 can be discharged from the chamber 11 by flowing into the bottom of the storage tank 50. [

After the beads 1 are discharged from the chamber 11, some of the beads 1 are attached to the glass surface by electrostatic force or remain in the bottom area of the chamber 11.

Thus, the branch pipe valve 103, the chamber air inlet pipe valve 33, the first air flow pipe valve 93a and the second air flow pipe valve 93b are opened and the auxiliary air blower 105 is further opened . At this time, the auxiliary air flow pipe valve 113 provided in the auxiliary air flow pipe 111 is closed and the air blown from the auxiliary air blowing device 105 flows through the auxiliary air flow pipe 111 into the bead flow pipe 71 or the reservoir 50 ).

As the auxiliary fan 105 operates, the auxiliary fan 105 blows air toward the branch pipe 101, and some air blown into the branch pipe 101 flows through the air flow pipe 91 and the first air Passes through each air passage hole of the chamber bead blocking member 17 via the flow pipe 91a and the second air flow pipe 91b and flows into the chamber 11 along the windshield face to be attached to each windshield face by the electrostatic force And the remaining bead 1 flows into the bead discharge tube 81 through the bead outlet 19. The bead outlet 1 is connected to the bead outlet 81 via the bead outlet 19,

The remaining air blown into the branch pipe 101 flows into the bottom region of the chamber 11 through the chamber air inflow pipe 31. External air having a relatively higher pressure than the chamber 11 is introduced into the bottom region of the chamber 11 and is injected toward the bead outlet 19 so that the bead is discharged to the bottom region opposite to the bead outlet 19 of the chamber 11, The bead 1 is obliquely stacked and is not stagnated and discharged to the reservoir 50 through the bead outlet 19 quickly so that the residual of the bead 1 in the bottom region of the chamber 11 can be eliminated.

13 and 14, the screw shaft driving motor 183 for a moving body is rotated in one direction to move the moving body 160 so as to approach toward the bead inlet 13, and the electrostatic force The residual beads 1 attached by the residual beads 1 are forcibly released so that the remaining beads 1 flow to the bead discharge tube 81 through the bead outlet 19 and can keep the window clean. Here, the first air flow pipe valve 93a and the second air flow pipe valve 93b are closed to introduce air into the chamber 11 through the first air flow pipe 91a and the second air flow pipe 91b The movable body 160 is moved toward the bead inlet 13 while being closely attached to the windshield surface so that the windshield surface is scraped by the moving body 160 so that the residual beads 1 attached to the windshield surface are forcedly tared .

On the other hand, the plurality of beads 1 discharged from the chamber 11 and stored in the storage tank 50 are prevented from flowing out to the air discharge pipe 85 by the reservoir bead blocking member 51 provided in the storage tank 50 .

The air flowing into the reservoir 50 together with the plurality of beads 1 passes through the bead blocking member 51 for reservoir and flows through the air discharge pipe 85 and the communicating pipe 95 to the main blower 97 .

After the plurality of beads 1 discharged from the chamber 11 are stored in the reservoir 50, the bead flow pipe 73 and the bead discharge pipe valve 83, which have been opened as shown in Fig. 14, The conduit valve 87 and the bead return pipe valve 79b are closed, and at the same time, the branch pipe valve 103 is closed.

By stopping the operation of the main blower unit 97, the chamber 11 of the double glazing unit 10 is in a state in which the plurality of beads 1 are discharged and can be viewed through the double glazing unit 10.

15-20 illustrate a double jacket insulation system according to a third embodiment of the present invention.

The double-skinned thermal insulation system according to the third embodiment of the present invention differs from the first embodiment described above in that the moving body 160 has a thickness corresponding to the thickness of the pair of glass windows 10a (see Fig. 20) and the width of the chamber 11 Shaped rectangular plate shape. 21 and 22, the movable body 160 includes four sealing members 165 capable of being drawn out along the respective sides of the double-sided window 10, and each of the sealing members 165 has a sealing Is projected from each side of the moving body 160 by the operation of the member driving motor 167 and closely contacts the glass window 10a to seal the glass window 10a.

In the double-sided adiabatic system according to the third embodiment of the present invention, the bead supply pipe 75 connected to the chamber 11 is connected to the first bead supply pipe 75a and the second bead supply pipe 75a, 75b. The first bead supply pipe 75a and the second bead supply pipe 75b are connected to the first bead inlet 13a and the second bead inlet 13b which are spaced apart in the vertical direction of the chamber 11, respectively. The first bead feed pipe 75a is provided with a first bead feed pipe valve 77a for opening and closing the first bead feed pipe 75a and the second bead feed pipe 75b is provided with a second bead feed pipe 75b for opening / 2 bead supply pipe valve 77b is provided.

In the double jacket adiabatic system according to the third embodiment of the present invention, unlike the first embodiment, the air flow pipe 91 connected to the chamber 11 is connected to the first air flow pipe 91a and the second air flow pipe 91b. The first air flow tube 91a and the second air flow tube 91b are respectively connected to the first air inlet 15a and the second air inlet 15b which are spaced apart in the vertical direction of the chamber 11. The first air flow pipe 91a is provided with a first air flow pipe valve 93a for opening and closing the first air flow pipe 91a and the second air flow pipe 91b is provided with a second air flow pipe 91b for opening / 2 air flow pipe valve 93b is provided.

The double window 10 is provided between the bottom of the chamber 10 and the first bead inlet 13a and between the first bead inlet 13a and the second bead inlet 13b and between the bottom of the chamber 10 and the first bead inlet 13a, A pressure measuring sensor 21 for measuring the pressure and a distance measuring sensor 23 for measuring the filling distance of the bead 1 inside the chamber 11 are provided.

The operation of the double-sided thermal insulation system according to the third embodiment of the present invention will now be described.

15, a plurality of beads 1 are stored in a storage tank 50. In a state in which a plurality of beads 1 are not filled in the chamber 11 of the double window 10, A process of filling a plurality of beads 1 with a plurality of beads 11 will be described.

The driving motor 175 for the wire drum is operated to fill the movable body 160 with the first bead inlet 13a and the upper portion of the first air inlet 15a .

The bead flow pipe 73, the bead supply pipe 77, the first bead feed pipe 77a, the first air flow pipe 93a and the air flow pipe 93 are opened, The valve 83, the auxiliary bead discharge pipe valve 117, the air discharge pipe valve 87, the second bead supply pipe valve 77b, the second air flow pipe valve 93b and the bead pipe valve 79b In the closed state, the main blower 97 is operated.

16, the main air blowing device 97 is connected to the communication pipe 95, the air flow pipe 91, the first air flow pipe 91a, the chamber 11 The first bead feed pipe 75a, the bead feed pipe 75, and the bead flow pipe 71, as shown in Fig. At this time, since the air discharge pipe valve 87 is closed, the air inside the storage tank 50 is not sucked by the main air blower 97 through the air discharge pipe 85.

The air flow pipe 91, the first air flow pipe 91a, the chamber 11, the first bead supply pipe 75a and the bead supply pipe 75a are connected to each other by the suction action of the main blower 97, A negative pressure is generated in the bead flow tube 71 and the plurality of beads 1 stored in the reservoir 50 are passed through the bead flow tube 71, the bead supply tube 75 and the first bead supply tube 75a Flows into the middle region of the chamber 11. At this time, the maximum negative pressure is generated in the chamber 11 by the suction pressure of the main air blowing device 97, but the movable body 160 maintains the interval between the pair of the window panes 10a, It serves as a column for supporting the pair of glass windows 10a, so that the shrinkage phenomenon does not occur in the chamber 11, and the glass window 10a is prevented from being broken. Based on the pressure value inside the chamber 11 measured by the pressure measuring sensor 21 and the bead filling distance value measured inside the chamber 11 measured by the distance measuring sensor 23, The bead 1 is filled into the region of the chamber 11 between the bottom of the chamber 11 and the moving body 160 while the motor 175 is rotated in one direction to move the moving body 160 to the upper portion of the chamber 11 When the moving body 160 passes through the first bead inlet 13a and rises toward the second bead inlet 13b, the second airflow tube valve 93b is further opened to move the bottom of the chamber 11 The air existing between the moving bodies 160 is sucked into the air flow tube 91 through the first air flow tube 91a and the second air flow tube 91b.

When the moving body 160 rises to the upper portion of the chamber 11 and passes through the second bead inlet 13b, the second bead feed tube valve 77b is further opened to move the bead 1 to the chamber 11 And the moving body 160. [0064]

On the other hand, before or during the inflow of the plurality of beads 1 into the chamber 11, the reservoir air inflow conduit valve 55 provided in the reservoir air inflow conduit 53 is opened and a plurality The bead 1 can be smoothly discharged from the reservoir 50 without causing a bottleneck.

It is also possible to open the auxiliary air flow pipe valve 113 provided in the auxiliary air flow pipe 111 and operate the auxiliary air blowing device 105 to blow air into the auxiliary air flow pipe 111, Air to be blown may be introduced into the bead flow pipe 71 via the auxiliary air flow pipe 111. [ At this time, the branch pipe valve 103 provided in the branch pipe 101 is closed to prevent the air blown from the auxiliary blower device 105 from flowing into the air flow pipe 91 through the branch pipe 101.

The plurality of beads 1 introduced into the region of the chamber 11 between the moving body 160 and the respective bead inflow ports 13a and 13b move from the upper portion of the double window 10 to the lower portion thereof as shown in Fig. And is filled in the entire region of the chamber 11. At this time, the plurality of beads (1) filled in the chamber (11) are prevented from flowing out to the first air flow tube (91a) and the second air flow tube (91b) by the chamber bead blocking member (17).

The air introduced into the chamber 11 together with the plurality of beads 1 passes through the chamber bead blocking member 17 and flows through the first air flow tube 91a and the second air flow tube 91b and the air flow tube 91, and is discharged to the outside through the main blower unit 97.

The open bead flow conduit valve 73 and the bead feed conduit valve 77 and the air flow conduit valve 93 are opened after the plurality of beads 1 stored in the reservoir 50 are filled in the entire area of the chamber 11. [ And at the same time, closes the reservoir air inflow conduit valve 55 and the auxiliary air flow conduit valve 113.

By stopping the operation of the main air blowing device 97, the chamber 11 of the double-blind window 10 is filled with a plurality of beads 1, and the double- So that additional installation of separate curtains or blinds becomes unnecessary. Particularly, when the bead 1 is filled in the chamber 11, the moving body 160 retains the space between the pair of the glass windows 10a to prevent the chamber 11 of the double window 10 from contracting It is possible to reduce damage to the window glass.

When the bead return pipe 79a and the bead return pipe valve 79b are not provided in this embodiment, the bead flow pipe valve 73 and the air flow pipe valve 93 are opened, The main blowing device 97 is operated while the auxiliary bead discharge pipe valve 83 and the auxiliary bead discharge pipe valve 117 and the air discharge pipe valve 87 are closed and the valve for the first bead supply pipe 77a and the valve for the second bead pipe The plurality of beads 1 stored in the reservoir 50 are selectively opened and closed by selectively opening and closing the first air flow pipe valve 77b, the first air flow pipe valve 93a and the second air flow pipe valve 93b according to the movement of the moving body 160, The beads can flow into the upper region of the chamber 11 via the bead flow tube 71 and the bead supply pipe 75 to fill the plurality of beads 1 into the chamber 11. [

17, a description will be given of a process of discharging a plurality of beads 1 into the reservoir 50 in a state where a plurality of beads 1 are filled in the chamber 11 of the double- do.

18, the bead flow pipe 73, the bead discharge pipe valve 83, the air discharge pipe valve 87, and the air outlet pipe 87 are opened in a state where the movable body 160 is lifted to the highest position of the chamber 11 The bead recovery pipe valve 79b is opened and the air flow pipe valve 93, the first air flow pipe valve 93a, the second air flow pipe valve 93b, the first bead supply pipe valve 77a, With the two-bead supply valve 77b closed, the main blower 97 is operated. On the other hand, after opening the chamber air inlet pipe valve 33 or opening the branch pipe valve 103 during or before the inflow of the plurality of beads 1 into the storage tank 50, the auxiliary air blower 105 May be operated to supply the outside air to the chamber 11.

The main air blowing device 97 is connected to the communicating pipe 95, the air discharge pipe 85, the reservoir 50, the bead flow pipe 71, the bead return pipe 79a, The bead discharge tube 81, and the air existing in the chamber 11, as shown in Fig. At this time, since the air flow pipe valve 93, the first air flow pipe valve 93a and the second air flow pipe valve 93b are closed, air in the chamber 11 flows through the first air flow pipe 91a and the second air flow pipe 91b, 2 air flow pipe 91b and the air flow pipe 91 to the main blower unit 97. [

The bead flow pipe 71, the bead return pipe 79a and the bead discharge pipe 81 by the suction action of the main air blowing device 97. The communicating pipe 95, the air discharge pipe 85, the reservoir 50, A negative pressure is generated in the chamber 11 so that the beads 1 filled in the chamber 11 flow along the bead flow tube 71 via the bead discharge tube 81 and enter the bottom of the storage tank 50 And the remaining beads 1 flow along the bead flow pipe 71 and the bead return pipe 79a through the bead discharge pipe 81 and flow into the upper part of the storage tank 50. [

When the valve for bead flow pipe 73, the valve for bead discharge pipe 83 and the valve for air discharge pipe 87 are not provided in the present embodiment, the bead return pipe 79a and the bead return pipe valve 79b are not provided, The first air flow pipe valve 93a and the second air flow pipe valve 93b and the first bead supply pipe valve 77a and the second bead pipe valve 77b The main blowing device 97 is operated so that the bead 1 filled in the chamber 11 flows into the bottom of the storage tank 50 via the bead discharge pipe 81 and the bead flow pipe 71 , A plurality of beads (1) can be discharged from the chamber (11).

After the beads 1 are discharged from the chamber 11, some of the beads 1 are attached to the glass surface by electrostatic force or remain in the bottom area of the chamber 11.

Thus, the branch pipe valve 103, the chamber air inlet pipe valve 33, the first air flow pipe valve 93a and the second air flow pipe valve 93b are opened and the auxiliary air blower 105 is further opened . At this time, the auxiliary air flow pipe valve 113 provided in the auxiliary air flow pipe 111 is closed and the air blown from the auxiliary air blowing device 105 flows through the auxiliary air flow pipe 111 into the bead flow pipe 71 or the reservoir 50 ).

As the auxiliary fan 105 operates, the auxiliary fan 105 blows air toward the branch pipe 101, and some air blown into the branch pipe 101 flows through the air flow pipe 91 and the first air Passes through each air passage hole of the chamber bead blocking member 17 via the flow pipe 91a and the second air flow pipe 91b and flows into the chamber 11 along the windshield face to be attached to each windshield face by the electrostatic force And the remaining bead 1 flows into the bead discharge tube 81 through the bead outlet 19. The bead outlet 1 is connected to the bead outlet 81 via the bead outlet 19,

The remaining air blown into the branch pipe 101 flows into the bottom region of the chamber 11 through the chamber air inflow pipe 31. External air having a relatively higher pressure than the chamber 11 is introduced into the bottom region of the chamber 11 and is injected toward the bead outlet 19 so that the bead is discharged to the bottom region opposite to the bead outlet 19 of the chamber 11, The bead 1 is obliquely stacked and is not stagnated and discharged to the reservoir 50 through the bead outlet 19 quickly so that the residual of the bead 1 in the bottom region of the chamber 11 can be eliminated.

19, the driving motor 175 for a wire drum is rotated in the other direction so that the moving body 160 is lowered toward the bottom of the chamber 11, and the remaining residual glass attached to each glass window surface by the electrostatic force The bead 1 is forcibly released so that the remaining bead 1 flows to the bead discharge pipe 81 through the bead outlet 19 and can keep the window 10a clean. Here, the first air flow pipe valve 93a and the second air flow pipe valve 93b are closed to introduce air into the chamber 11 through the first air flow pipe 91a and the second air flow pipe 91b The movable body 160 is moved toward the bottom of the chamber 11 while closely adhering to the windshield surface so as to scrape the windshield surface with the moving body 160 so that the residual beads 1 attached to the windshield surface are forced It may be removed.

On the other hand, the plurality of beads 1 discharged from the chamber 11 and stored in the storage tank 50 are prevented from flowing out to the air discharge pipe 85 by the reservoir bead blocking member 51 provided in the storage tank 50 .

The air flowing into the reservoir 50 together with the plurality of beads 1 passes through the bead blocking member 51 for reservoir and flows through the air discharge pipe 85 and the communicating pipe 95 to the main blower 97 .

After the plurality of beads 1 discharged from the chamber 11 are stored in the reservoir 50, the bead flow pipe 73, the bead discharge pipe valve 83, the air discharge pipe valve 87, The recovery pipe 79b is closed, and at the same time, the branch pipe 103 is closed.

By stopping the operation of the main blower unit 97, the chamber 11 of the double glazing unit 10 is in a state in which the plurality of beads 1 are discharged and can be viewed through the double glazing unit 10.

Fig. 22 shows a double-sided insulation system according to a fourth embodiment of the present invention.

As shown in the drawings, the dual-core thermal insulating system according to the fourth embodiment of the present invention includes a plurality of supports 190 without moving bodies and moving body moving units, unlike the first embodiment described above.

The supports 190 are disposed at intervals in the chamber 11 and are fixedly supported on a pair of glass windows while maintaining a gap between the pair of glass windows.

In this embodiment, a plurality of supports 190 are provided, but one or more supports 190 may be provided.

This allows the plurality of beads 1 accommodated in the chamber 11 between the pair of glass windows to be discharged into the storage tank 50 by the blowing of the main blower 97 or the plurality of beads 1 stored in the storage tank 50 The chamber 11 of the double glazing 10 can be prevented from being shrunk by the support 190 and the breakage of the glass window can be reduced.

23 and 24 illustrate a double jacket insulation system according to a fifth embodiment of the present invention, which is a modification of the internal structure of the double jacket of the double jacket insulating system according to the first embodiment of the present invention.

As shown in these drawings, the double glazing 10 of the double glaze insulating system according to the fifth embodiment of the present invention differs from the first embodiment described above in that a plurality of moving bodies 160a, 160b, Respectively. Further, the chamber 11 is not provided with the chamber air inflow pipe, and the bead blocking member 17 for the chamber having the "C" -shaped cross-sectional shape is provided.

On the other hand, the plurality of moving bodies 160a, 160b and 160c have the form of a blind curtain which keeps a space between the pair of windshields, ascends and descends in the chamber 11, and approaches and separates from each other.

Each moving body 160a, 160b, 160c has a thickness corresponding to the interval between the pair of glass windows, and has a rectangular plate shape as shown in Fig.

A rectangular opening 161 is formed in the center area and both ends of each of the moving bodies 160a, 160b and 160c so that a plurality of beads 1 can move.

Although three moving bodies 160a, 160b and 160c are arranged in the vertical direction of the chamber 11 in this embodiment, the number of moving bodies is not limited to this and may be one or more.

These moving bodies 160a, 160b and 160c are moved up and down in the chamber 11 by the moving body moving unit 170c.

The moving body moving unit 170c includes a wire 171, a wire drum 173, and a drive motor 175 for a wire drum.

The wire 171 is coupled to each of the moving bodies 160a, 160b and 160c to support the moving bodies 160a, 160b and 160c in a suspended manner, thereby moving the moving bodies 160 up and down. In this embodiment, the moving bodies 160a, 160b, and 160c are suspended by a pair of wires 171 in order to prevent the moving body from swinging during the lifting and lowering. In addition, each of the moving bodies 160a, 160b, and 160c is connected to each other by a pair of auxiliary wires 172 while maintaining a gap therebetween.

The wire drum 173 has a cylindrical shape and is provided on the outer upper portion of the double window 10 to wind and unwind the wire 171.

The drive motor 175 for the wire drum is provided on the outer upper side of the double window 10 to rotate the wire drum 173 in the forward and reverse directions.

Thus, when the driving motor 175 for the wire drum is rotated in one direction, the wires 171 are wound on the wire drum 173, and the moving bodies 160a, 160b and 160c are lifted upwards of the chamber 11. When the driving motor 175 for the wire drum is rotated in the other direction, the wire 171 is retracted from the wire drum 173 and the moving bodies 160a, 160b and 160c descend to the bottom of the chamber 11 do.

As described above, by providing a plurality of moving bodies 160a, 160b, and 160c that ascend and descend in the chamber 11, a plurality of beads 1 are filled in the chamber 11, or when the chamber 11 is discharged from the chamber 11 A plurality of moving bodies 160a, 160b and 160c serve as pillars for supporting a pair of glass windows, so that the shrinking phenomenon does not occur in the chamber 11, .

When the plurality of beads 1 are discharged from the chamber 11, the moving bodies 160a, 160b and 160c descend toward the bottom region of the chamber 11, and residual beads The residual bead 1 flows to the bead discharge pipe 81 through the bead outlet 19 and can keep the window clean.

25 and 26 illustrate a double-glazing system according to a sixth embodiment of the present invention, which is a modification of the internal structure of the double-glazing system of the double glazing system according to the second embodiment of the present invention.

As shown in these figures, the dual window 10 of the double jacket thermal insulation system according to the sixth embodiment of the present invention differs from the above-described second embodiment in that a plurality of moving bodies 160a, 160b, As shown in Fig. An air inlet 15 communicating with an air flow tube (not shown) is provided on the opposite side of the bead inlet 13 at the upper end of the chamber 11.

On the other hand, the plurality of moving bodies 160a, 160b, and 160c have the form of a blind curtain which moves toward and away from the chamber 11 while maintaining a gap between the pair of glass windows and approaches and separates from each other.

Each moving body 160a, 160b, 160c has a thickness corresponding to the interval between the pair of glass windows, and has a rectangular plate shape as shown in Fig.

A rectangular opening 161 is formed in the center area and both ends of each of the moving bodies 160a, 160b and 160c so that a plurality of beads 1 can move.

In this embodiment, although three moving bodies 160a, 160b and 160c are arranged in the left-right direction of the chamber 11, the number of moving bodies is not limited to this and may be one or more.

These moving bodies 160a, 160b and 160c move to the left and right of the chamber 11 by the moving body moving unit 170d.

The moving object moving unit 170d includes a moving object screw shaft 181 and a moving object screw shaft driving motor 183.

The moving body screw shaft 181 is horizontally disposed on the upper portion of the chamber 11 with respect to the moving bodies 160a, 160b and 160c. The screw shaft 181 for a moving body is screwed so as to be capable of screwing with a moving body supporting portion 162 for supporting the moving bodies 160a, 160b and 160c, and the moving body supporting portion 162 is screwed to beads of the moving bodies 160a, And supports the moving body 160a closest to the inlet 13 in a suspended manner.

Meanwhile, the moving bodies 160a, 160b, and 160c are connected to each other by a pair of auxiliary wires 172 while maintaining a gap therebetween.

The movable screw shaft driving motor 183 is coupled to the movable screw shaft 181 to rotate the movable screw shaft 181 in the forward and reverse directions.

When the screw shaft driving motor 183 for a moving body is rotated in one direction, the moving bodies 160a, 160b and 160c move toward the bead inlet 13, and the moving bodies 160a, 160b and 160c move the auxiliary wires 172 ). When the screw shaft driving motor 183 for a moving body is rotated in the other direction, the moving bodies 160a, 160b and 160c move away from the bead inlet 13 and the moving bodies 160a, 160b and 160c do.

By providing a plurality of moving bodies 160a, 160b and 160c moving left and right in the chamber 11 as described above, the plurality of beads 1 can be filled in the chamber 11, A plurality of moving bodies 160a, 160b and 160c serve as pillars for supporting a pair of the glass windows with respect to the negative pressure generated in the chamber 11, so that the shrinkage phenomenon does not occur in the chamber 11, It is possible to reduce the damage.

When the plurality of beads 1 are discharged from the chamber 11, the moving bodies 160a, 160b and 160c move toward the bead inlet 13 and the residual beads 1 The residual beads 1 flow into the bead discharge pipe 81 through the bead outlet 19 and can keep the window clean.

While the present invention has been described in connection with what is presently considered to be practical exemplary embodiments, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, You will understand. Therefore, it should be understood that the above-described embodiments are illustrative in all aspects and not restrictive.

1: bead 10: double glazing
11: chamber 13: bead inlet
15: air inlet 17: bead blocking member for chamber
19: Bead outlet 30a, 30b, 30c, 30d:
31: chamber air inlet pipe 35: air injection member
41: Screw shaft 43: Screw shaft driving motor
45: belt conveyor 50: storage tank
61: stirrer 71: bead flow tube
75: Bead supply pipe 79a: Bead return pipe
81: bead discharge pipe 85: air discharge pipe
91: air flow tube 95: communicating tube
97: main blowing device 101: branch pipe
105: auxiliary blower 111: auxiliary air flow tube
115: auxiliary bead discharge pipe 160: mobile body
170a, 170b, 170c, and 170d:

Claims (19)

A chamber formed between a pair of glass windows, at least one bead inlet through which the plurality of beads and air are introduced into the chamber, a bead outlet through which the plurality of beads and air contained in the chamber are discharged, A double pane forming one or more air outlets for entry and exit;
A movable body movably provided in the chamber while maintaining an interval between the pair of glass windows; And
And a moving body moving unit for moving the moving body. The method according to claim 1,
Wherein the movable body is movable up and down in the chamber,
The moving body moving unit includes:
A wire supporting the moving body in a suspended manner and raising and lowering the moving body;
A wire drum on which the wire is wound or unwound; And
And a drive motor for the wire drum to rotate the wire drum. The method according to claim 1,
Wherein the movable body is provided in the chamber so as to be able to move up and down,
The moving body moving unit includes:
One or more wires suspending the plurality of moving bodies and raising and lowering the plurality of moving bodies;
At least one auxiliary wire connecting the plurality of moving bodies with each other maintaining a gap therebetween;
A wire drum on which the wire is wound or unwound; And
And a drive motor for the wire drum to rotate the wire drum. The method according to claim 1,
Wherein the movable body is provided so as to be able to approach or separate from the bead inlet,
The moving body moving unit includes:
A screw shaft horizontally provided with respect to the moving body and screwed with the moving body; And
And a screw shaft drive motor for the movable body for rotating the screw shaft for the movable body. The method according to claim 1,
Wherein the movable body is provided with a plurality of the movable bodies so as to be able to approach or separate from the bead inlet,
The moving body moving unit includes:
At least one auxiliary wire connecting the plurality of moving bodies with each other maintaining a gap therebetween;
A screw shaft horizontally provided with respect to the moving body and screwed to one of the plurality of moving bodies; And
And a screw shaft drive motor for the movable body for rotating the screw shaft for the movable body. The method according to claim 1,
Wherein the movable body is provided so as to be able to approach or separate from the bead inlet,
The moving body moving unit includes:
A driving rod connected to the moving body; And
And an actuator for linearly reciprocating the moving body by reducing the length and elongation of the driving rod. The method according to claim 1,
Further comprising a guide provided along a moving direction of the moving body to guide movement of the moving body. The method according to claim 1,
Further comprising bead discharge means for discharging said plurality of beads received in said chamber to said bead outlet. 9. The method of claim 8,
Wherein the bead discharge means comprises:
A chamber air inflow pipe communicating with the chamber on the opposite side of the bead outlet and introducing air into the chamber; And
And a chamber air inflow pipe valve provided in the chamber air inflow pipe for opening and closing the chamber air inflow pipe. 9. The method of claim 8,
Wherein the bead discharge means comprises:
Further comprising an air injection member laminated with a plurality of pipes of mutually different lengths and provided on the bottom of the chamber or the chamber air inlet tube for jetting air flowing along the chamber air inlet tube toward the bead outlet , Double pane insulation system. 9. The method of claim 8,
Wherein the bead discharge means comprises:
A screw shaft having a helical shape and rotatably provided at the bottom of the chamber toward the bead outlet; And
Further comprising a screw shaft drive motor for rotating said screw shaft. 9. The method of claim 8,
Wherein the bead discharge means comprises:
Further comprising a belt conveyor provided at a bottom of the chamber to form an endless track and to discharge the plurality of beads received in the chamber toward the bead outlet. The method according to claim 1,
A reservoir for storing the plurality of beads; And
And a main blower device for sucking air or blowing air in the chamber to fill the chamber with the plurality of beads stored in the storage tank or to discharge the plurality of beads filled in the chamber to the storage tank, Insulation system. 14. The method of claim 13,
A bead flow tube connected to the reservoir and guiding the plurality of beads to flow;
A bead supply pipe branched from the bead flow tube and connected to the bead inlet;
A bead discharge pipe branched from the bead flow tube and connected to the bead outlet;
An air discharge pipe connected to the reservoir and guiding the flow of air discharged from the reservoir;
An air flow pipe connected to the air inlet and guiding the flow of the air entering and exiting the air inlet; And
And a communication pipe communicating with the air flow pipe and the air discharge pipe, wherein the communication pipe is provided with the main air blowing device. 15. The method of claim 14,
A branch pipe branching from the air flow pipe and guiding the flow of air;
A branch pipe valve provided in the branch pipe for opening and closing the branch pipe; And
Further comprising an auxiliary blowing device provided in the branch pipe and pressurized and blown into the chamber through the branch pipe and the air flow pipe. 16. The method of claim 15,
Wherein the chamber air inlet pipe is branched from the air flow pipe or the branch pipe. 15. The method of claim 14,
A bead flow pipe valve provided in the bead flow pipe for opening / closing the bead flow pipe;
A bead supply pipe valve provided in the bead supply pipe for opening and closing the bead supply pipe;
A bead discharge pipe valve provided in the bead discharge pipe for opening and closing the bead discharge pipe;
An air discharge pipe valve provided in the air discharge pipe for opening and closing the air discharge pipe; And
And an air flow pipe valve provided in the air flow pipe for opening and closing the air flow pipe,
Wherein when the plurality of beads is filled in the chamber from the reservoir, the valve for the bead flow pipe and the valve for the bead feed pipe are opened and the valve for the bead discharge pipe is closed, and the plurality of beads are discharged from the chamber to the reservoir Wherein the bead flow conduit valve and the bead outlet conduit are open and the bead conduit valve is closed. 18. The method of claim 17,
A bead return pipe branched from the bead supply pipe or the bead flow pipe and connected to the reservoir; And
Further comprising a bead collecting pipe valve provided in the bead collecting pipe for opening and closing the bead collecting pipe,
Wherein the valve for the bead return pipe is closed when the plurality of beads is filled into the chamber from the reservoir and the valve for the bead return pipe is opened when the plurality of beads is discharged from the chamber to the reservoir. A chamber formed between a pair of glass windows, at least one bead inlet through which the plurality of beads and air are introduced into the chamber, a bead outlet through which the plurality of beads and air contained in the chamber are discharged, A double pane forming one or more air outlets for entry and exit; And
And one or more supports provided in the chamber, the one or more supports being fixedly supported on the pair of windshields while maintaining a gap between the pair of windshields.

Images