KR20190047476A - Cylinder disposal machine - Google Patents

Abstract

The present invention relates to a device for removing remaining gas in a container and recycling a container, which automatizes a transporting process, a gas extracting process, and a compressing process of an inserted gas container, while perfectly extracting remaining gas and improving a processing speed, thereby enhancing productivity. This invention is characterized by extracting remaining gas until the remaining gas does not exist in a container after a process of perforating a gas container, and ultimately allows the container which is compressed through a container compressing process to be ejected to the outside, thereby allowing the compressed container to be recycled.

Description

[0001] CYLINDER DISPOSAL MACHINE [0002]

More particularly, the present invention relates to a device for removing residual gas and recycling a container which can automate the transferring process, the gas extraction process and the pressing process of the introduced gas container, The residual gas is extracted from the process of piercing the gas container until the residual gas is not left in the container, and finally, the container that has been compressed to the outside is taken out through the compression process of the container so that the compressed container can be recycled And to a container recycling apparatus for removing residual gas from the container.

Reuse of currently used empty containers is prohibited by law and is regulated by law to be classified as hazardous and not to be disposed of with household waste.

Unlike the thickness of the domestic butane gas container (about 0.2 mm), the propane container designed to fill the high pressure propane gas is made of soft iron (0.7112 mm) and is very strong and difficult to deform. Therefore, If you do not go through a specialized processing company, it is not easy to recycle it.

However, in spite of the legal regulations, ordinary consumers may mix empty gas containers with general waste, so that abandoned propane containers are sent to the landfill. However, in most landfills, propane containers with high pressure due to residual gas The potential for explosion is a reason for refusing landfilling of gas containers that do not pierce or remove pressure relief valves.

Currently, countries that use the same disposable propane containers such as the USA and Canada have tried to solve many troubles and solutions for the post-use treatment such as the removal of the residual quantity of the product. However, And finding ways to recycle them safely at low cost is becoming a desperate job.

As a conventional technology, there is a semi-automatic residual gas removal device of butane gas cylinder (Korean Patent Registration No. 1597277).

However, the prior art has the risk of explosion because the output pin punctures the side of the gas cylinder by the triggering device.

In addition, the prior art has no structure to recover the residual gas and to reduce the volume thereof in order to collect the residual gas, and it has a problem that the efficiency is very low because all processes are directly operated.

Korea Patent No. 1597277

SUMMARY OF THE INVENTION The present invention has been made in view of the above problems, and it is a first object of the present invention to provide a method and apparatus for automating the transferring process, gas extraction process and compression process of a container, And a container recycling device for removing residual gas from the container.

A second object of the present invention is to provide a method for removing residual gas from a hole in a gas container until no residual gas remains in the container and reusing the gas, And to provide a device for removing residual gas from a container and recycling the container.

According to an aspect of the present invention for achieving the above object, a first aspect of the present invention provides an apparatus for supplying a container, comprising: a charging unit for charging a plurality of containers; a conveying unit for conveying the charged containers; A loading part for discharging a container from which residual gas has been removed at the same time, a gas removing part for temporarily fixing the loaded container through the loading part, a gas removing part for removing the gas through the gas removing part, A pressing part for pressing the container by being supplied through the container; And a container storage unit for storing the container pressed through the pressing unit and discharging the container to the outside, wherein the gas removing unit includes an adhesive block for sealing the lower portion of the container and sealing the container, and a perforating unit for perforating the container, The adhesion block may further include a gas removal line for removing residual gas discharged through the perforated container.

A second aspect of the present invention is the dispenser according to the first aspect of the present invention, wherein the dispenser comprises a plurality of dispensers formed in a case coupled to a frame, and a plurality of dispensers fixed to the inner panel coupled to the frame, A guide plate fixed to the inner panel and guiding a container guided through the guide roller in a zigzag direction, a tray fixed to the inner panel and sequentially feeding the container dropped through the guide plate to the conveyance unit, Wherein the tray has a cut-out portion formed on a surface thereof, and the cut-out portion includes a rotation bar exposing a stopper projection.

According to a third aspect of the present invention, in the first aspect of the present invention, in the first aspect of the present invention, the transfer unit is composed of a lift plate fixed to a lower portion of the loading unit and having a plurality of rollers fixed thereon for easy loading by placing the container thereon, and a first actuator .

According to a fourth aspect of the present invention, in the first aspect of the present invention, in the first aspect of the present invention, the loading section includes a feed rail, a second actuator fixed to the feed rail, a feed screw rotated by the second actuator, And a slider that is downwardly coupled to the mover to load and unload the container transferred from the transfer unit to the degassing unit.

A fifth aspect of the present invention is that, in the first invention, in the first aspect of the present invention, the gas removing portion includes a base plate, a first fixing plate coaxially connected to the base plate and the first guide rod in a vertical direction, A first moving plate and a second moving plate sequentially connected in a vertical direction through a first guide rod between the base plate and the first fixing plate, A moving block connected to the upper end of the third guide bar fixed to the first moving plate and disposed across the center of the second fixing plate, a close block fixed to the upper portion of the moving block, And a slide bar for receiving the container loaded through the loading part, wherein the slide bar is capable of pressing the bottom surface of the container Characterized in that the resilient installation of the movement through the cylinder block or the elastomeric means.

In a sixth aspect of the present invention, in the fifth aspect of the present invention, the bottom of the second fixing plate is provided with an adhesive plate having a groove formed therein so as to correspond to an upper portion of the container mounted on the slide bar, .

According to a seventh aspect of the present invention, in the fifth aspect of the present invention, the drilling unit with the drill is fixedly mounted on the upper center of the second moving plate, and the drill of the drilling unit includes the first stationary plate, And is disposed across.

According to an eighth aspect of the present invention, in the fifth aspect, the second moving plate, the moving block, and the adhered block are raised and lowered together with the first moving plate which is raised and lowered by the third actuator fixed to the base plate.

In a ninth aspect of the present invention, in the seventh invention, the second moving plate and the perforating means are individually lifted and lowered by a fourth actuator fixed to the first moving plate.

According to a tenth aspect of the present invention, in the first aspect of the present invention, in the first aspect of the present invention, a sealing ring for sealing the close contact portion with the container is coupled to the upper portion of the close- And an air removing line is further connected to the inner space to maintain a vacuum state before the residual gas is exhausted.

The eleventh invention is characterized in that, in the seventh invention, the moving block further includes a guide for guiding the drill up and down while preventing the residual gas from flowing out of the container, and a seal ring incorporated in the guide hole .

A twelfth aspect of the present invention provides the twelfth aspect of the present invention, wherein, in the first aspect of the present invention, the compressed part is disposed on a falling line of the container from which gas has been removed, An inflow plate fixed to the upper portion of the two fixed presses and having a cutting film radially cut so as to prevent the drop impact of the container, and an inflow plate coupled to the lower portions of the two fixed presses, And a discharge plate.

The thirteenth invention is characterized in that, in the first invention, the apparatus for removing residual gases and the apparatus for recycling a container are built in a case coupled to four sides of a frame, and a roller is connected to the bottom of the case .

According to the apparatus for removing residual gas and recycling of a container of the present invention, it is possible to automate the transferring process, the gas extracting process, and the pressing process of the container.

In addition, it is possible to prevent a safety accident by collecting the residual gas without the leakage of the residual gas, and the extracted residual gas can be reused.

In addition, the containers squeezed out by the container squeezing process are taken out, so that the squeezed containers are easily collected and can be recycled.

In addition, the device for removing residual gas from the container and the device for recycling containers can be installed in a single case to facilitate installation and movement.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a perspective view of a device for removing residual gases and a container recycling apparatus according to the present invention;
Fig. 2 is an internal configuration view of the case in Fig. 1,
FIG. 3 is a schematic view showing a feeding part and a feeding part shown in FIG. 2,
FIG. 4 is a view showing a loading part and a gas removing part extracted in FIG. 2;
Fig. 5 is a cross-sectional view showing the essential part of Fig. 4,
FIG. 6 is a view showing a compressed part extracted in FIG. 2,
7 and 8 are operation diagrams of a conveying portion according to the present invention,
9 is an operation diagram of the loading section according to the present invention;
Figures 10 to 13 are operational diagrams of a gas evacuator in accordance with the present invention.

BRIEF DESCRIPTION OF THE DRAWINGS The above and other objects, features, and advantages of the present invention will become more readily apparent from the following description of preferred embodiments with reference to the accompanying drawings. However, the present invention is not limited to the embodiments described herein but may be embodied in other forms.

Rather, the embodiments disclosed herein are provided so that the disclosure can be thorough and complete, and will fully convey the scope of the invention to those skilled in the art.

The embodiments described and exemplified herein also include their complementary embodiments.

In the present specification, the singular form includes plural forms unless otherwise specified in the specification. The terms "comprise" and / or "comprising" used in the specification do not exclude the presence or addition of one or more other elements.

Hereinafter, the present invention will be described in detail with reference to the drawings. In describing the specific embodiments below, various specific details have been set forth in order to provide a more detailed description of the invention. However, it will be appreciated by those skilled in the art that the present invention may be understood by those skilled in the art without departing from such specific details. In some cases, it should be mentioned in advance that it is common knowledge in describing an invention that parts not significantly related to the invention are not described in order to avoid confusion in explaining the present invention.

FIG. 1 is a perspective view of an apparatus for removing residual gas and a container recycling apparatus according to the present invention. FIG. 2 is an internal configuration diagram of the apparatus shown in FIG. 1, 4 is a cross-sectional view showing the essential part of the embodiment of the present invention, and Fig. 6 is a cross-sectional view showing the structure of the compressed part taken out in Fig. 2 .

As shown in FIGS. 1 to 6, the present invention automates the transferring process, the gas extraction process, and the pressing process of the introduced gas container, and the removal of the residual gas of the container, The present invention relates to a container recycling apparatus and a container recycling apparatus which extracts residual gas from a process of making a hole in a gas container until no residual gas remains in the container and finally, To a device for removing residual gas and a container recycling apparatus for recycling the compressed container.

In addition, the apparatus for removing residual gases and recycling the containers according to the present invention is installed inside a case 710 coupled to the four sides of the frame 700, The wheels 711 can be installed to facilitate installation and disassembly.

In addition, the apparatus for removing residual gas and recycling the container according to the present invention can be used for pressing a metal can used for drinking water, food, etc. in addition to a gas container.

The apparatus for removing residual gases and recycling the containers according to the present invention comprises six units including a charging unit 100, a transfer unit 200, a loading unit 300, a gas removing unit 400, (500) and a container storage unit (600).

The charging unit 100 may include a plurality of charging holes 110 on the surface of the case 710 coupled to the frame 700 so that a plurality of containers can be charged.

3, the input unit 100 includes a plurality of guide rollers 120 coupled to an inner panel 720 coupled to the frame 700 to prevent deviations of the path of the container introduced through the input port 110, .

Each of the guide rollers 120 functions to lower the falling speed of the container and to allow the loaded container to be dropped in a desired direction.

The inner panel 720 is coupled to a plurality of guide plates 130 for guiding the container guided through the guide rollers 120 in a zigzag direction.

Each of the guide plates 130 is configured to be able to change the direction of the container by forming a ramp.

The inner panel 720 is coupled to a tray 140 for sequentially feeding containers dropped through the guide plate 130 to the transfer unit 200.

The tray 140 has a cutout 41 formed on its surface and a cutter rod 150 having a stopper protrusion 151 exposed to the cutout 41.

Accordingly, when the swinging rod 150 rotates, the stopper protrusion 151 enters the inside of the cutout portion 41, and the container can be sequentially entered into the feeder 200.

The feeding unit 200 serves to feed the loaded container to the loading unit 300.

The transfer unit 200 is fixed to a lower portion of the loading unit 100. The transfer unit 200 includes a lift plate 210 on which a plurality of rollers 211 are fixed to facilitate loading of the container. The first actuator 220 can move up and down.

That is, when the container is placed on the roller 211, the first actuator 220 lifts the lift plate 210 to transport the container to the loading unit 300.

Here, the roller 211 freely rotates so that the container can be smoothly moved by the loading unit 300.

The lift plate 210 is provided with a position sensor 212 so that the first actuator 220 can be operated when the container is placed on the roller 211.

As shown in FIG. 4, the loading unit 300 functions to load a container transferred through the transfer unit 200. In addition, the loading part 300 also has a function of dropping the gas-removed container to the crimping part 500 by means of a container to be newly loaded.

The loading unit 300 includes a conveying rail 310 fixed to an upper end of the gas removing unit 400, a second actuator 320 fixed to the conveying rail 310, A moving member 340 that is screwed on the conveying screw 330 and moves along the conveying rail 310 and a conveying member 340 which is downwardly coupled to the moving member 340 and is rotated by the conveying unit 200 And a plate 350 for loading the transferred container with the gas removing unit 400.

The loading unit 300 serves to move the container mounted on the roller 211 of the transfer unit 200 horizontally to the plate 350 and supply the container to the gas removing unit 400.

As shown in FIGS. 4 and 5, the gas removing unit 400 temporarily removes the gas loaded through the loading unit 300 to remove gas.

The gas removing unit 400 includes a base plate 410, a first fixing plate 420 vertically coaxially connected to the base plate 410 through a first guide rod 411, A second fixing plate 430 which is vertically coaxially connected through a fixing plate 420 and a second guide rod 421 and a second fixing plate 430 which is coaxially connected to the first fixing plate 420 through a first And a first moving plate 440 and a second moving plate 450 sequentially connected to each other through a guide rod 411 in a vertical direction.

The gas removing unit 400 includes a moving block 460 connected to the upper end of a third guide bar 442 fixed to the first moving plate 440 and disposed across the center of the second fixing plate 430, A sliding block 470 disposed on the upper outer surface of the moving block 460 to seat the loaded container through the loading portion 300; 461).

The slide bar 461 is resiliently mounted on the movable block 460 through a cylinder 462 or an elastic means so that the sticking block 470 can press the bottom surface of the container.

The lower plate of the second fixing plate 430 is coupled to the upper plate 431 with a groove 432 formed in a groove 432 to correspond to the upper portion of the container.

When the container is placed on the slide bar 461, the first moving plate 440 is moved upward by the third actuator 441. At this time, when the first moving plate 440 rises, the second moving plate 450 moves together with the moving block 460 and the adhesion block 470. The container mounted on the slide bar 461 also rises and is fitted into the groove 432 of the fastening plate 431 formed on the bottom surface of the second fastening plate 430 so that the container can be fixed.

The drill 481 of the drill 481 is fixed to the upper center of the second moving plate 450 and the drill 481 of the drill 480 is fixed to the first fixing plate 420 And the movable block 460 and the adhesion block 470. [

At this time, the second moving plate 450 and the punching means 480 can be individually lifted and lowered by the fourth actuator 451 fixed to the first moving plate 440. The container seated in the slide bar 461 is structured so as to be pierced by the drill 481 of the perforating means 480 which is raised by the fastening block 470 and the fastening plate 431 do.

In addition, a sealing ring R for sealing the close contact portion with the container is coupled to the upper portion of the close-contact block 470 to prevent gas from flowing out.

The adhesion block 470 is also provided with an internal space portion 473 in which a gas detection sensor 474 is installed and communicates with the gas removal line 471 to detect gas exhausted from the container.

At this time, the inner space portion 473 is further connected with an air removing line 472 to maintain a vacuum state before discharging residual gas.

Meanwhile, the moving block 460 is provided with a guide hole 463 and a seal ring R built in the guide hole 463 to guide the lifting and lowering of the drill 481, .

As shown in FIG. 6, the compression unit 500 has a function of supplying a gas-removed container through the loading unit 300 through the gas removing unit 400 and pressing the container.

The compressed part 500 is disposed on the falling line of the gas-removed container.

The compression unit 500 includes two fixed presses 510 and a movement press 520 for compressing the container by the fifth actuator 521.

At this time, the compression unit 500 is configured such that the inlet plate 530 is fixed to the upper part of the two fixed presses 510, and the discharge plate 540 is fixed to the lower part.

The inflow plate 530 has a radially cut-away incision 531 formed thereon to prevent the drop impact of the container and to allow the container to enter into the movement press 520 in an upright state .

Further, the discharge plate 540 has a configuration in which the opening 541 is formed so that only the pressed container can be dropped into the container storage part 600.

The container storage unit 600 may include a take-out introductory pad 610 to store a container pressed through the pressing unit 500 and take it out to the outside.

Meanwhile, the gas removing unit 400 and the pressing unit 500 are configured to be horizontally moved by the LM motor LM provided on the frame 700 for maintenance and position setting.

Hereinafter, the operation of the apparatus for removing residual gasses and the apparatus for recycling containers according to the present invention will be described.

FIGS. 7 and 8 are operation diagrams of a transfer part according to the present invention, FIG. 9 is an operation diagram of a loading part according to the present invention, and FIGS. 10 to 13 are operation diagrams of a gas removing part according to the present invention.

Prior to describing the operation of the present invention in detail, the present invention is characterized in that: (1) a feeding part (container feeding) -> (2) a feeding part (a container is lifted up to a loading part) ④ Gas removal (gas is removed after punching by fixing the container) -> ⑤ Pressed part (press the container from which the gas is extracted) -> ⑥ It goes through a series of processes from the container storage part (temporarily storing the pressed container).

1, when the container is inserted into the inlet 110, the container falls down in a zigzag manner along the guide roller 120 and the guide plate 130, and the dropped container protrudes on the surface of the tray 140 The stopper projection 151 stops the falling movement.

At this time, when the stopper protrusion 151 enters the inside of the cutout portion 41 by the rotation bar 150, the container stopped on the surface of the tray 140 is moved and seated on the roller 211 formed on the conveyance portion 200.

8, when the container is placed on the roller 211, the first actuator 220 lifts the lift plate 210 to transport the container to the loading unit 300.

As shown in FIG. 9, when the container is raised, the second actuator 320 of the loading unit 300 is operated to cause the plate 350 to seat the container on the slide bar 461 of the gas removing unit 400.

10, when the container is placed on the slide bar 461, the second moving plate 450 and the moving block 460 are brought into close contact with each other by the first moving plate 440, The block 470 is raised together with the container mounted on the slide bar 461 so that the container is also fixed to the groove 432 of the fastening plate 431 formed on the bottom surface of the second fastening plate 430.

At this time, the bottom surface of the container is sealed by the seal ring R provided in the attachment block 470.

Then, the inner space portion 473 formed in the close-contact block 470 is evacuated through the air removal line 472.

In this state, as shown in FIG. 12, the second moving plate 450 is raised by the fourth actuator 451 alone.

Then, the drilling unit 480 mounted on the second moving plate 450 is operated to rotate the drill 481, and the drill 481 drills the bottom surface of the container.

When the bottom surface of the container is punctured, the second moving plate 450, the moving block 460, and the adhesion block 470 descend as shown in FIG.

Then, the residual gas in the container flows out to the inner space portion 473 of the adhered block 470 in a vacuum state, and the gas flowing out to the inner space portion 473 is discharged through the gas removing line 471.

The first moving plate 440 is lowered by the third actuator 441 and the moving block 460 and the closing block 470 are lowered together with the lowering of the first moving plate 440, 461 is released.

When the restraint of the container is released, the loading unit 300 is operated, and the container, from which the gas is removed by the container that is newly loaded through the loading unit 300, is dropped onto the press unit 500.

(5) When the container is dropped by the pressing part 500, it enters between the moving press 520 and the stationary press 510 through the opening 531. (See FIG. 6)

Then, the moving press 520 presses the container by the fifth actuator 521, and the pressed container is dropped into the container storage part 600 through the opening part 541.

(6) The container stored in the container storage unit 600 is finally unloaded through the unloading entry 610.

Finally, the residual gas can be collected in a separate gas tank (not shown) and recycled together with the container.

It should be noted that the embodiments described in the present specification and the configurations shown in the drawings are only the most preferred embodiments of the present invention and are not intended to represent all of the technical ideas of the present invention so that various equivalents And variations are possible.

100: input portion 110: input port 120: guide roller
130: guide plate 140: tray
141: incision section 150:
151: Stopper projection
200: conveying unit 210: lifting plate 211: roller
212: Position sensor 220: First actuator
300: loading section 310: transferring rail 320: second actuator
330: Feed screw 340: Slider
350: Plate
400: gas removing unit 410: base plate 411: first guide rod
442: third guide rod 420: first fixing plate
421: second guide rod 430: second fixing plate
431: close plate 432: groove
440: first moving plate 441: third actuator
450: second moving plate 451: fourth actuator
460: Moving block 461: Slide rod
462: cylinder 463: guide hole
470: Adhesion block 471: Gas removal line
472: air removal line 473: inner space part
474: Gas detection sensor 480: Perforation means
481: Drill
500: pressing part 510: stationary press 520: moving press
521: fifth actuator
530: inlet plate 531: opening section
540: Exhaust plate 541:
600: container storage part 610: introduction drawing
700: frame 710: case 711: wheel
720: Internal panel
R: Sealing LM: LM motor

Claims (13)

A charging unit 100 into which a plurality of containers are charged;
A transfer unit 200 for transferring the supplied containers to the transfer unit 200;
A loading unit 300 for loading the container transferred through the transfer unit 200 and simultaneously discharging the container from which residual gas has been removed;
A gas removing unit 400 for temporarily fixing the loaded container through the loading unit 300 to remove gas;
A pressing part 500 for receiving the gas-removed container through the gas removing part 400 through the loading part 300 and compressing the container;
And a container storage part (600) for storing a container pressed through the compression part (500) and taking it out to the outside,
The gas removing unit 400 includes an adhering block 470 for sealing the lower portion of the container and sealing the container, and a perforating unit 480 for perforating the container,
Wherein the adherent block (470) further comprises a gas removal line (471) for removing residual gas exiting through the perforated container.
The method according to claim 1,
The input unit 100 includes a plurality of input ports 110 formed in a case 710 coupled to the frame 700,
A plurality of guide rollers 120 fixed to the inner panel 720 coupled to the frame 700 to prevent the passage of the container introduced through the inlet 110,
A guide plate 130 fixed to the inner panel 720 and guiding the container guided through the guide roller 120 in a zigzag direction,
And a tray 140 which is fixed to the inner panel 720 and sequentially supplies the container dropped through the guide plate 130 to the transfer unit 200,
Wherein the tray includes a cutout portion formed on a surface of the tray and the cutout portion includes a rotation bar that exposes the stopper protrusion. And container recycling device.
The method according to claim 1,
The transfer unit 200 includes a lift plate 210 fixed to a lower portion of the loading unit 100 and having a plurality of rollers 211 fixed to the container 200 to facilitate loading of the container,
And a first actuator (220) for raising and lowering the lifting plate (210).
The method according to claim 1,
The loading unit 300 includes a conveying rail 310,
A second actuator 320 fixed to the conveying rail 310,
A transfer screw 330 rotated by the second actuator 320,
A mover 340 screwed to the conveying screw 330 and moved along the conveying rail 310,
And a plate (350) downwardly coupled to the mover (340) to load and unload the container transferred from the transfer unit (200) with the gas removing unit (400).
The method according to claim 1,
The gas removing unit 400 includes a base plate 410,
A first fixing plate 420 which is vertically coaxially connected through the base plate 410 and the first guide rod 411,
A second fixing plate 430 which is vertically coaxially connected through the first fixing plate 420 and the second guide rod 421,
A first moving plate 440 and a second moving plate 450 sequentially connected in a vertical direction through a first guide rod 411 between the base plate 410 and the first fixing plate 420,
A moving block 460 connected to the upper end of the third guide bar 442 fixed to the first moving plate 440 and disposed across the center of the second fixing plate 430,
An adhesion block 470 fixed to the upper portion of the movable block 460,
And a slide bar 461 disposed at an upper outer periphery of the moving block 460 to seat the container loaded through the loading part 300,
Characterized in that the slide bar (461) is resiliently mounted to the moving block (460) via a cylinder (462) or resilient means so that the contact block (470) can press the bottom surface of the container. Container recycling device.
6. The method of claim 5,
A tightening plate 431 having a groove 432 is formed on the bottom surface of the second fixing plate 430 so as to be in close contact with the upper portion of the container mounted on the slide bar 461, Wherein the container is connected to the container.
6. The method of claim 5,
A drilling unit 480 equipped with a drill 481 is fixed to the upper center of the second moving plate 450,
The drill 481 of the drilling means 480 includes a first fixing plate 420,
Is disposed across the moving block (460) and the adherent block (470).
6. The method of claim 5,
The second moving plate 450 and the moving block 460 and the adhering block 470 are connected to the first moving plate 440 which is moved up and down by the third actuator 441 fixed to the base plate 410, And the remaining gas removal and container recycling apparatus.
8. The method of claim 7,
Wherein the second moving plate (450) and the punching means (480) are individually lifted and lowered by a fourth actuator (451) fixed to the first moving plate (440).
The method according to claim 1,
A seal ring R for sealing the close contact portion with the container is coupled to the upper portion of the close contact block 470 and a gas detection sensor 474 is installed to detect the gas discharged from the container, 471 are formed in the inner space portion 473,
Wherein the inner space portion (473) is further connected with an air removing line (472) to maintain a vacuum state before discharging residual gas.
8. The method of claim 7,
The moving block 460 includes a guide hole 463 for preventing the residual gas from flowing out of the container while guiding the drill 481 up and down and a seal ring R built in the guide hole 463 Wherein the container is provided with a container for removing residual gas and recycling the container.
The method according to claim 1,
The pressing part 500 is disposed on the dropping line of the container from which the gas has been removed and includes two fixed presses 510 and a moving part 522 for pressing the container by the fifth actuator 521 between the fixed presses 510, An inflow plate 530 fixed on the two stationary presses 510 and having an incision 531 cut radially so as to prevent the drop impact of the container and two stationary presses 510, And a discharge plate (540) formed with an opening (541) so that only the container that is coupled to the lower portion and dropped to the container storage unit (600) can be dropped.
The method according to claim 1,
The apparatus for removing residual gases and recycling the container of the present invention includes a case 710 coupled to four sides of a frame 700 and a roller 211 coupled to the bottom of the case 710 Wherein the container is provided with a container for removing residual gas and recycling the container.

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