KR20230072323A - Vacuum nozzle filler - Google Patents

Abstract

A vacuum type nozzle filling machine is provided. The vacuum type nozzle filling machine comprises: a support part including a support rod; a container support part that is movably coupled to a lower end of the support rod and supports a container; a nozzle hanging part that is movably coupled to an upper end of the support rod and guides installation of a filling nozzle; and a filling nozzle that is coupled to the nozzle hanging part and seals the container seated on the container support part, and then discharges oil into the container. The oil stored in a storage container is discharged through the filling nozzle and filled into the container due to the pressure difference generated when the air inside the container is sucked in by operation of a vacuum generator.

Description

Vacuum nozzle filler {Vacuum nozzle filler}

The present invention relates to a vacuum type nozzle filler, and more particularly, to a vacuum type nozzle filler that discharges oil from a storage container into a container and fills the container by a suction force that sucks air inside the container by a vacuum generator.

In general, oil refined in a refinery after being milked in a milking machine is commercialized by filling a certain amount in a container.

However, there is a problem in that the inlet part (eg, the spout part) of the container is narrow, so that it is difficult to smoothly supply oil, and a lot of filling time is required.

Although a funnel is used to solve the above problems, it is also difficult to fill a certain amount of oil in the container, and there is a problem in that oil is wasted due to oil flowing down the inlet of the container.

Republic of Korea Patent Registration No. 10-1180576

The problem to be solved by the present invention is to provide a vacuum nozzle filler for supplying a certain amount of oil stored in a storage container to the container.

In addition, it is to provide a vacuum type nozzle filling machine that discharges and fills oil in a storage container into a container by suction power of sucking air inside the container by a vacuum generator.

In addition, it is to provide a vacuum type nozzle filler in which the filling nozzle is coupled to the inside of the inlet of the container.

In addition, the tasks of the present invention are not limited to the tasks mentioned above, and other technical tasks not mentioned will be clearly understood by those skilled in the art from the description below.

Vacuum type nozzle filler according to an embodiment for solving the above problems, a support portion including a support rod, a container supporting portion movably coupled to the lower end of the support rod and supporting the container, and lifting the upper end of the support rod A nozzle hook that is possibly coupled and guides the installation of the filling nozzle, and a nozzle that is coupled to the nozzle hook and seals the container seated on the container support, and then discharges oil into the container. Oil stored in the storage container is discharged through a filling nozzle and filled in the container by a pressure difference generated while sucking air inside the container by the operation of the vacuum generator.

The container supporting part includes a supporting member, a container supporting member installed on the upper surface of the supporting member and supporting the container, and a first installation guide member seated on the upper surface of the supporting member and fixed by fastening the supporting member and bolts can do.

The first installation guide member includes a first installation guide body, a first through hole passing through the inside of the first installation guide body perpendicularly (in the Z-axis direction), and a direction perpendicular to the first through hole inside the first installation guide body. It may include a first fastening hole formed in (X-axis direction or / and Y-axis direction), and a first fixing member that is fastened to the first fastening hole and fixes the first installation guide body to the support bar.

The nozzle hanger is installed on a second installation guide member coupled to the support rod, a connection member installed on the second installation guide member, a connection bracket installed at an inner edge of the connection member, and the connection bracket, and is installed on the filling nozzle. It may include a nozzle hanging member for guiding installation, and a shaft connecting the nozzle hanging member and the connection bracket.

The second installation guide member, a second installation guide body, a second through-hole penetrating vertically (Z-axis direction) inside the second installation guide body, a direction orthogonal to the second through-hole inside the second installation guide body It may include a second fastening hole formed in (X-axis direction or / and Y-axis direction), and a second fixing member that is fastened to the second fastening hole and fixes the second installation guide body to the support bar.

It may further include an installation guide surface chamfered on the front (in the opposite direction of the Y-axis) of the second installation guide body.

The connecting member is a first vertical surface in close contact with the second installation guide member, a first upper horizontal surface bent in the Y-axis opposite direction at the upper end of the first vertical surface, and bent in the Y-axis opposite direction at the lower end of the first vertical surface It may include a first lower horizontal surface.

A second coupling hole passing through the first vertical surface and a first coupling hole passing through the first upper horizontal surface may be further included.

The connecting bracket includes a pair of connecting bodies having shaft holes penetrated therein, a first engaging protrusion protruding in the Z-axis direction from an upper surface of the connecting body, and a second engaging protrusion protruding in the Y-axis direction from the rear surface of the connecting body. May contain bumps.

The nozzle hanging member is a second vertical surface, a second upper horizontal surface bent in the direction opposite to the Y-axis at the upper end of the second vertical surface, and bent downward (in the opposite direction to the Z-axis) from the second upper horizontal surface, and has a shaft hole therein. It may include a perforated second finish surface.

The filling nozzle includes an inner tube portion connected to the storage tank in which the oil is stored, an outer portion coupled to the inner tube portion and connected to a vacuum generator, and a sealing guide member coupled to the outer portion and sealing the inlet of the container. can include

According to the vacuum type nozzle filling machine according to an embodiment of the present invention, a certain amount of oil stored in the storage container can be supplied and stored in the container.

In addition, the oil in the storage container can be discharged into the container by the suction force of sucking the air inside the container by the vacuum generator so that the container can be stably filled.

In addition, the filling nozzle is coupled to the inside of the inlet of the container to seal the inside of the container and prevent the flow of oil.

1 is a configuration diagram of a vacuum type nozzle filling machine according to an embodiment of the present invention.
Figure 2 is an exploded perspective view showing the support of the vacuum type nozzle filler according to an embodiment of the present invention.
Figure 3 is an exploded perspective view of the container support portion of the vacuum type nozzle filler according to an embodiment of the present invention.
4 and 5 are cross-sectional views of FIG. 3 .
6 is an exploded perspective view showing a nozzle hanging part of a vacuum type nozzle filling machine according to an embodiment of the present invention.
Figure 7 is a cross-sectional view of Figure 6;
8 is an exploded perspective view showing a filling nozzle of a vacuum type nozzle filling machine according to an embodiment of the present invention.
9 is a cross-sectional view of FIG. 8 .
10 to 14 are views showing the state of use of the vacuum type nozzle filling machine according to an embodiment of the present invention.

Advantages and features of the present invention, and methods of achieving them, will become clear with reference to the detailed description of the following embodiments taken in conjunction with the accompanying drawings. However, the present invention is not limited to the embodiments disclosed below, but will be implemented in various different forms, only these embodiments make the disclosure of the present invention complete, and common knowledge in the art to which the present invention belongs. It is provided to fully inform the holder of the scope of the invention, and the present invention is only defined by the scope of the claims.

Hereinafter, specific embodiments will be described with reference to the accompanying drawings.

1 is a configuration diagram of a vacuum nozzle filler according to an embodiment of the present invention, Figure 2 is an exploded perspective view showing a support portion of the vacuum nozzle filler according to an embodiment of the present invention, Figure 3 is an exploded perspective view of the present invention An exploded perspective view of the container support of the vacuum nozzle filler according to an embodiment of the, Figures 4 and 5 are cross-sectional views of Figure 3, Figure 6 is a nozzle hanger of the vacuum nozzle filler according to an embodiment of the present invention 7 is a cross-sectional view of FIG. 6, FIG. 8 is an exploded perspective view showing a filling nozzle of a vacuum nozzle filler according to an embodiment of the present invention, and FIG. 9 is a cross-sectional view of FIG.

Referring to FIG. 1, the vacuum nozzle filler 10 according to an embodiment maintains the inside of the container (C) in a vacuum state and uses the suction force to suck the air inside the container (C) stored in the storage container. Oil is discharged and filled into the container (C), and may include a support part 100, a container support part 200, a nozzle hook part 300, and a filling nozzle 400.

Referring to FIG. 2 , the support part 100 may support and support the vacuum type nozzle filler 10 . The support 100 may include a support 110 and a support bar 120 . The support 110 may be formed in a plate shape. In some embodiments, it may be preferable that the support 110 is formed in a rectangular plate shape. The support rod 120 is a pillar on which the container support 200 and the nozzle hook 300 are installed, and may be seated on the upper surface of the support 110 and fixed by fastening bolts. In some embodiments, the support bar 120 may be formed in a polygonal shape, but may be preferably formed in a cylindrical shape. A flange 130 may protrude from the lower end of the support rod 120 (in the opposite direction of the Z axis). The flange 130 is seated on the upper surface of the support 110, and the flange 130 and the support 110 may be fixed by bolting. The bolt may be coupled from the bottom of the support 110 to the top (Z-axis direction) and fastened to the flange 130.

Referring to FIGS. 3 to 5 , the container supporting part 200 is movably coupled to the lower end of the support rod 120 and supports the container C. The container supporting part 200 may include a supporting member 210 , a container supporting member 220 , and a first installation guide member 230 .

The support member 210 is formed in a plate shape, and an installation guide hole 211 may penetrate therein. In some embodiments, the support member 210 may be formed by bending a square-shaped support top plate and a support side plate downward (in the opposite direction to the Z-axis) at each side of the support top plate, and welding a vertical side of the support side plate.

The container supporting member 220 is formed in a plate shape and is installed on the upper surface of the supporting member 210 to support the container. The container support member 220 may have long holes 221 passing through in the Y-axis direction on both sides in the X-axis direction. The container supporting member 220 and the supporting member 210 are coupled by fastening bolts/nuts through the long hole 221, and within the length of the long hole 221 in a state in which the fastening force of the bolt/nut is relieved, 220) can adjust the length protruding from the support member 210, and can be fixed by fastening bolts/nuts. In some embodiments, the container supporting member 220 may be formed with a guide member 222 inclined downward at an end (in the opposite direction of the Y axis). Since the guide member 222 is formed to be inclined, it is possible to smoothly guide the movement of the container (C).

In some embodiments, a load sensor may be further installed under the container supporting member 220 . The load sensor detects the container (C) and the weight of the oil stored in the container (C), and transmits the detected result to the control unit, and the control unit controls the operation of the vacuum generator to fill the container (C) can adjust

The first installation guide member 230 is coupled to the support bar 120 and can move up and down along the support bar 120 . The first installation guide member 230 may be seated on the upper surface of the support member 210 and fixed by fastening the support member 210 and bolts. The first installation guide member 230 may include a first installation guide body 231, a first through hole 232, a first fastening hole 233, and a first fixing member 234.

The first installation guide body 231 may be formed in a cylindrical shape. In some embodiments, the first installation guide body 231 may be formed as a polygonal pillar.

The first through hole 232 may pass through the inside of the first installation guide body 231 vertically (Z-axis direction). The first through hole 232 may be formed in the same shape as the outer surface of the support rod 120 and coupled to the support rod 120 .

The first fastening hole 233 is formed on the first installation guide body 231 in a direction (X-axis direction or/and Y-axis direction) perpendicular to the first through hole 232 inside the first installation guide body 231. It can be. In some embodiments, the first fastening hole 233 is inclined upward, and the first fixing member 234 fastened to the first fastening hole 233 can easily press the support bar 120 .

The first fixing member 234 may be a bolt fastened to the first fastening hole 233 . The first fixing member 234 presses the support rod 120 to which the first through hole 232 is coupled while being fastened with the first fastening hole 233 to firmly secure the first installation guide member 230 to the support rod 120. can be fixed

In some embodiments, the installation guide protrusion 235 protrudes from the bottom surface of the first installation guide body 231, and the installation guide projection 235 may be coupled to the installation guide hole 211 of the supporting member 210. In some embodiments, the container support part 200 may be moved in the Z-axis direction or the opposite direction of the Z-axis from the support rod 120 according to the size of the container (C) to adjust the installation position.

Referring to FIGS. 6 and 7 , the nozzle hanger 300 is movably coupled to the upper end (Z-axis direction) of the support bar 120 and guides the installation of the filling nozzle 400 . The nozzle hanger 300 may include a second installation guide member 310, a connecting member 320, a connecting bracket 330, a nozzle hanging member 340, and a shaft 350.

The second installation guide member 310 is coupled to the support bar 120 and can move up and down along the support bar 120 . The second installation guide member 310 may include a second installation guide body 311, a second through hole 312, a second fastening hole 313, and a second fixing member 314.

The second installation guide body 311 may be formed in a cylindrical shape. In some embodiments, the second installation guide body 311 may be formed as a polygonal pillar.

The second through hole 312 may pass through the inside of the second installation guide body 311 vertically (Z-axis direction). The second through hole 312 may be formed in the same shape as the outer surface of the support rod 120 and coupled to the support rod 120 .

The second fastening hole 313 may be formed inside the second installation guide body 311 in a direction perpendicular to the first through hole 232 (X-axis direction or/and Y-axis direction). In some embodiments, the second fastening hole 313 is inclined upward, and the second fixing member 314 fastened to the second fastening hole 313 can easily press the support bar 120 .

The second fixing member 314 may be a bolt fastened to the second fastening hole 313 . The second fixing member 314 is fastened with the second fastening hole 313 and presses the support bar 120 to which the second through hole 312 is coupled, thereby firmly fixing the second installation guide member 310 to the support bar 120. can be fixed.

In some embodiments, the second installation guide member 310 may have a chamfered installation guide surface 315 formed on the front surface (Y-axis opposite direction) of the second installation guide body 311 . The installation guide surface 315 is chamfered to guide easy installation of the connecting member 320 .

The connection member 320 may be installed on the second installation guide member 310 . In some embodiments, the connecting member 320 may be in close contact with the installation guide surface 315 of the second installation guide member 310 and fixed to the second installation guide body 311 by fastening bolts. The connection member 320 has a first vertical surface 321 in close contact with the second installation guide body 311, that is, the installation guide surface 315, and the first vertical surface 321 in the opposite direction of the Y axis from the upper end (Z axis direction). It may include a bent first upper horizontal surface 322 and a first lower horizontal surface 323 bent in a direction opposite to the Y-axis at a lower end (opposite to the Z-axis) of the first vertical surface 321 . In some embodiments, a first closing piece 324 connecting and closing the first upper horizontal surface 322, the first vertical surface 321, and the first lower horizontal surface 323 may be further included. In some embodiments, the first vertical surface 321 may be formed at the same height as the second installation guide body 311 . Also, in some embodiments, the first coupling hole 322a may pass through the first upper horizontal surface 322 and the second coupling hole 321a may pass through the first vertical surface 321 . In some embodiments, the connection member 320 may be formed in a length in which one or more connection brackets 330 and one or more nozzle hanging members 340 are installed in the X-axis direction.

The connection bracket 330 may be installed at inner corners of the connection member 320 in the Z-axis direction and the Y-axis direction. The connection bracket 330 includes a pair of connection bodies 331 having shaft holes penetrated therein, a first coupling protrusion 332 protruding in the Z-axis direction from an upper surface of the connection body 331, and a connection body 331. It may include a second coupling protrusion 333 protruding in the Y-axis direction on the rear side of the. In some embodiments, the first and second coupling protrusions 332 and 333 are coupled to the first and second coupling holes 322a and 321a so that the connecting bracket 330 is fixed to the inner edge of the connecting member 320. can

The nozzle hanging member 340 may be installed on the connection bracket 330 and the filling nozzle 400 may be installed. The nozzle hanging member 340 includes a second vertical surface 341, a second upper horizontal surface 342 bent in the direction opposite to the Y axis at the upper end of the second vertical surface 341 (Z-axis direction), and a second upper horizontal surface ( 342) and may include a second finish surface 343 bent downward (in the opposite direction of the Z-axis) and having a shaft hole therethrough. In some embodiments, the second upper horizontal surface 342 has first and second installation holes 342a and 342b penetrating in the Z-axis direction, and the second installation hole 342b is a long hole 221 in the Y-axis direction. ) can be formed.

In some embodiments, the second vertical surface 341 may be coupled to the connection member 320 and the second installation guide member 310 by installation guide bolts. Since the nuts fastened to the installation guide bolts are in close contact with both sides (Y-axis direction and Y-axis opposite direction) of the second vertical surface 341 that maintains verticality to prevent flow, the second upper horizontal surface 342 is in the Z-axis direction and Z-axis direction. It can have elasticity in the opposite axis direction.

In some embodiments, a second lower horizontal surface 344 bent in a direction opposite to the Y-axis at a lower end (opposite to the Z-axis) of the second vertical surface 341 may be further included. In some embodiments, the nozzle hanger 300 may be moved in the Z-axis direction or the opposite direction of the Z-axis from the support rod 120 according to the size of the container (C) to adjust the installation position.

The shaft 350 may be a shaft connecting the connecting bracket 330 and the nozzle hanging member 340 . The shaft 350 may be coupled with an shaft hole passing through the second finishing surface 343 of the nozzle hanging member 340 and an shaft hole passing through the connection body 331 of the connection bracket 330 .

8 and 9, the filling nozzle 400 is coupled to the nozzle hanger 300, seals the container C seated on the container support 200, and then oils the container C. It can be filled by dispensing. The filling nozzle 400 may include an inner tube part 410, an outer part 420, and a sealing guide member 430.

The inner tube 410 may be connected to a storage tank in which oil is stored. The inner tube portion 410 includes an inner tube connecting hose 411 connected to the storage tank, an inner tube body 412 connected to the inner tube connecting hose 411, and an inner tube pipe connected to the lower end (in the opposite direction of the Z axis) of the inner tube body 412. (413). Since the lower end of the inner pipe 413 is curved inwardly, it is possible to easily prevent oil from falling when the supply of oil is stopped. In some embodiments, the inner tube connecting hose 411 and the inner tube body 412 may be connected by an inner tube nipple.

The exterior part 420 may be coupled to the inner tube part 410 and connected to a vacuum generator. The exterior part 420 includes an exterior connection hose 421 connected to the vacuum generator, an exterior body 422 connected to the exterior connection hose 421 and coupled to the lower end of the inner tube body 412 of the inner tube portion 410, An exterior pipe 423 connected to the lower end of the body 422 may be included. In some embodiments, the exterior body 422 may further include a packing installation groove formed on the upper surface and coupled to the packing installation groove.

The outer pipe 423 may be accommodated in the inner pipe 413 so that a space for discharging air inside the container C may be formed between the outer pipe 423 and the inner pipe 413 . In some embodiments, an installation hole communicating with the exterior pipe 423 and the exterior body 422 may be penetrated, and the exterior connection hose 421 is connected to the installation hole, or the exterior connection hose 421 is connected to the exterior cone. may be The external teeth can adjust the installation position within the second installation hole 342b penetrating the second upper horizontal surface 342 of the nozzle hanging member 340 .

The sealing guide member 430 is coupled to the outer pipe 423 of the outer part 420, and can seal the inlet of the container (C). The sealing guide member 430 may include a sealing guide body 431 coupled to the exterior portion 420 and a sealing guide surface 432 inclined at a lower end of the sealing guide body 431 . In some embodiments, the sealing guide member 430 may improve sealing force by being formed of silicone or rubber having excellent elasticity.

Next, the operation process of the vacuum dual nozzle filling machine 10 configured as described above will be described.

First, referring to FIGS. 10 and 12, the container (C) is tilted at a predetermined angle, and the container (C) is moved from the bottom to the top (Z-axis direction) so that the inlet of the container (C) is the appearance of the filling nozzle 400. may be coupled to unit 420 . In this state, when the container C is moved from the bottom to the top again, the filling nozzle 400 and the nozzle holding member 340 to which the filling nozzle 400 is coupled are moved along the shaft 350 according to the pressurization of the container C. It can be rotated at a predetermined angle upward (Z-axis direction) around the center. At this time, since the nut fastened to the installation guide bolt is in close contact with the second vertical surface 341 of the nozzle hanging member 340, the second upper horizontal surface 342 bent at the upper end of the second vertical surface 341 and the second upper horizontal surface The second finishing surface 343 bent downward at 342 may rotate upward. In this state, after the container (C) is made to be vertical, the container (C) can be moved downward (Z-axis opposite direction) to be seated on the container support member 220.

In addition, referring to FIGS. 13 and 14, the second vertical surface 341 of the filling nozzle 400 and the nozzle holding member 340 rotated upward while the container C is seated on the container support member 220 and The second finishing surface 343 may rotate downward (in the opposite direction of the Z axis) about the axis 350 by the elasticity of the second vertical surface 341 . At this time, the sealing guide member 430 of the filling nozzle 400 is in close contact with the inlet of the container C, and the sealing guide surface 432 of the sealing guide member 430 seals the inlet of the container C to seal the container C ) can maintain a vacuum inside. In this state, when the vacuum generator is operated under the control of the controller, the air inside the container (C) is blown into the space between the outer pipe 423 and the inner pipe 413 and the outer connecting hose 421 by the suction force of the vacuum generator. ) to the vacuum generator, and the air moved to the vacuum generator may be supplied to the storage tank.

In addition, when the pressure inside the container (C) increases as the air inside the container (C) moves to the vacuum generator, the oil stored in the storage tank passes through the inner pipe connecting hose 411 and the inner pipe 413 to the container. (C) It is discharged to the inside, and the discharged oil can be filled in the container (C). The amount of oil filled in the container (C) can be determined by the difference between the vacuum state inside the container (C) and the pressure level at which the vacuum generator converts to a predetermined pressure. In some embodiments, the filling time may vary depending on the concentration of the oil.

When a certain amount of oil is filled in the container (C) by the above process, the suction force of the vacuum generator is stopped while the supply of oil is stopped. By separating the container (C) from the container support portion 200, it is possible to fill a plurality of containers (C) with oil stored in the storage tank while repeating the process.

When the container (C) is separated from the filling nozzle 400, the oil stored in the inner pipe 413 is not discharged by the pressure of the vacuum generator, and the lower end of the inner pipe 413 is bent inward, thereby forming one Drops of oil can be prevented from dripping.

At least one of the connecting bracket 330 of the filling nozzle 400 and the nozzle hanging part 300 and the nozzle hanging member 340 may be installed on the connecting member 320 and used in plurality.

Although the embodiments of the present invention have been described with reference to the accompanying drawings, those skilled in the art to which the present invention pertains can be implemented in other specific forms without changing the technical spirit or essential features of the present invention. you will be able to understand Therefore, the embodiments described above should be understood as illustrative in all respects and not limiting.

10: nozzle filler
100: support
110: support
120: support bar
130: flange
200: container support
210: support member
211: installation guide
220: container support member
221: long hole
222: guide member
230: first installation guide member
231: first installation guide body
232 first through hole
233: first fastening hole
234: first fixing member
235: installation guide protrusion
300: nozzle hook
310: second installation guide member
311: second installation guide body
315: installation guide surface
312: second through hole
313: second fastening hole
314: second fixing member
320: connecting member
321 first vertical plane
321a: second coupling hole
322: first upper horizontal plane
322a: first coupling hole
323: first lower horizontal plane
324: first finishing surface
330: connection bracket
331: connection body
332: first coupling protrusion
333: second coupling protrusion
340: nozzle hanging member
341: second vertical surface installation guide bolt / nut
342 second upper horizontal surface
342a: first installation hole
342b: second installation hole
343: second finishing surface
344: second lower horizontal plane
350: axis
400: filling nozzle
410: inner tube
411: inner pipe connection hose
412: inner tube body
413 inner pipe
420: exterior part
421: exterior connection hose
422: exterior body
423: facade pipe
430: sealing guide member
431: sealing guide body
432: sealing guide surface

Claims (11)

a support unit including a support bar;
A container support portion that is movably coupled to the lower end of the support rod and supports a container;
A nozzle hooking unit that is movably coupled to the upper end of the support bar and guides the installation of the filling nozzle; and
A filling nozzle coupled to the nozzle holder and discharging oil to the container after sealing the container seated on the container support;
A vacuum type nozzle filler in which the oil stored in the storage container is discharged to the filling nozzle and filled in the container by the pressure difference generated while sucking the air inside the container by the operation of the vacuum generator.
The method of claim 1, wherein the container support part,
support member;
a container supporting member installed on an upper surface of the supporting member and supporting a container; and
A vacuum type nozzle filler including a first installation guide member seated on an upper surface of the support member and fixed to the support member by bolt fastening.
The method of claim 2, wherein the first installation guide member,
A first installation guide body;
A first through hole vertically (Z-axis direction) through the inside of the first installation guide body;
a first fastening hole formed inside the first installation guide body in a direction perpendicular to the first through hole (X-axis direction or/and Y-axis direction); and
A vacuum type nozzle filler comprising a first fixing member fastened to the first fastening hole to fix the first installation guide body to the support bar.
The method of claim 1, wherein the nozzle hanger,
A second installation guide member coupled to the support bar;
a connecting member installed on the second installation guide member;
a connecting bracket installed at an inner corner of the connecting member;
a nozzle holder installed on the connection bracket and guiding the installation of the filling nozzle; and
A vacuum type nozzle filling machine comprising a shaft connecting the nozzle holding member and the connecting bracket.
The method of claim 4, wherein the second installation guide member,
A second installation guide body;
a second through-hole passing through the inside of the second installation guide body in a vertical direction (Z-axis direction);
a second fastening hole formed inside the second installation guide body in a direction perpendicular to the second through hole (X-axis direction or/and Y-axis direction); and
A vacuum type nozzle filler including a second fixing member fastened to the second fastening hole to fix the second installation guide body to the support bar.
The vacuum nozzle filler according to claim 5, further comprising an installation guide surface chamfered on the front surface (in the opposite direction of the Y axis) of the second installation guide body.
The method of claim 4, wherein the connecting member,
A first vertical surface in close contact with the second installation guide member;
a first upper horizontal surface bent in a direction opposite to the Y-axis at an upper end of the first vertical surface; and
A vacuum type nozzle filler including a first lower horizontal surface bent in a direction opposite to the Y-axis at the lower end of the first vertical surface.
The vacuum nozzle filler according to claim 7, further comprising a second coupling hole passing through the first vertical surface and a first coupling hole passing through the first upper horizontal surface.
The method of claim 4, wherein the connection bracket,
A pair of connecting bodies having shaft holes penetrated therein;
A first coupling protrusion protruding in the Z-axis direction on the upper surface of the connection body; and
A vacuum type nozzle filler including a second coupling protrusion protruding in the Y-axis direction on the rear surface of the connection body.
The method of claim 4, wherein the nozzle hanging member,
a second vertical plane;
a second upper horizontal surface bent in a direction opposite to the Y-axis at an upper end of the second vertical surface; and
A vacuum type nozzle filler including a second finish surface bent downward (in the opposite direction of the Z-axis) from the second upper horizontal surface and having a shaft hole penetrated therein.
The method of claim 1, wherein the filling nozzle,
An inner pipe portion connected to the storage tank in which the oil is stored;
an exterior part coupled to the inner tube part and connected to the vacuum generator; and
A vacuum type nozzle filler coupled to the exterior part and including a sealing guide member for sealing the inlet of the container.

Images