KR20200001995U - Punching apparatus - Google Patents

Abstract

The present design relates to a burial device, and it is possible to protect the safety of workers and improve workability by allowing the buried material such as anchor bolts to be buried after conveniently drilling an object to be buried in a high place such as the ceiling from the ground. The purpose is to be able to.
The embedding device according to the present invention includes a body portion including a plurality of moving means that are clouded along the ground, and a mounting portion on which an embedding device for embedding the buried object in the object to be buried is mounted. It includes an elevating unit, and an elevating drive unit for raising or lowering the elevating unit with respect to the object to be buried.

Description

Landfill device{PUNCHING APPARATUS}

The present invention relates to an embedding apparatus, and more particularly, to an embedding apparatus capable of embedding a buried object such as an anchor bolt after easily perforating an object to be buried located at a high place such as a ceiling from the ground.

In general, for various reasons, such as space utilization, aesthetic reasons, transfer to fix the tray to the ceiling, reasons for installing bolts, etc., a perforated ceiling is made on the ceiling of the room consisting of tex or integral panels. Install the product in the hole.

In addition, various devices including circular speakers, electric heating lamps, and sprinklers are installed on the ceiling on which the tex is installed during construction or repair of buildings, and these devices are fixed by transfers or bolts installed through the ceiling. .

For this, in the prior art, an automatic lifting device or a ladder was necessarily required.

In the case of the automatic lifting device, there is an advantage of being able to easily raise the worker to the ceiling, but there is a problem that a falling accident occurs because the worker rises to a high place.

In addition, there is also an inconvenient problem in that a worker has to directly drill a ceiling with an electric drill while holding a head and hands.

In addition, since the operator who operates the automatic lifting device must accurately adjust the distance between the operator and the ceiling, there is a problem that it takes a long time for the perforation work.

In other words, in operating the automatic lifting device, if the electric drill held in the operator's hand does not touch the ceiling, the hassle of raising the operator more occurs, and if the operator is excessively elevated, the operator collides with the ceiling. There is a problem of stability that occurs.

On the other hand, in the case of a ladder, the worker can climb up the ladder to a position suitable for their height and drill the ceiling, but the worker has to climb the ladder with difficulty, and after that, lift the head and arms while leaning on the ladder uneasy to lift the ceiling. There is a problem that needs to be drilled.

And, there is a problem that a fall accident occurs even when a ladder is used.

In addition, when the drilling work for one area is completed, there is a problem that the drilling work for the ceiling is not easy because the operator must directly move the ladder and the electric drill to another area.

Korean Patent Registration No. 10-1884198

The present invention was created to improve the problems of the prior art as described above, and it is possible to embed a buried material such as an anchor bolt after conveniently perforating the object to be buried located at a high place such as the ceiling from the ground, so that the safety of the worker. Its purpose is to provide an embedding device that can protect and improve workability.

The embedding apparatus according to the present invention for achieving the above object includes a main body including a plurality of moving means that are clouded along the ground, and is coupled to the main body so as to be elevating, and embedding the object to be buried. And an elevating unit including a mounting portion on which the machine is mounted, and an elevating drive unit for raising or lowering the elevating unit with respect to the object to be buried.

And, the main frame, the main frame, the base plate on which the main frame is seated and the moving means are installed at regular intervals along the bottom edge, the hinge-coupled so as to be seated or stood on the upper surface of the main frame, and the elevating driver is coupled It includes a fixed bar, and a pocket portion accommodated when the fixed bar is standing.

In addition, a first cylinder installed on the main frame and contacting the ground by raising and lowering the moving means, respectively, and a second cylinder installed on the base plate and rotating in an up and down direction by pushing or pulling the fixing bar.

In addition, the elevating unit may be elevated along the main elevating bar and the main elevating bar that are elevated by the elevating driver, and the main elevating bar so that the sub elevating bar and the sub elevating bar are interlocked with the main elevating bar to elevate and descend. It includes a connecting portion connecting the sub lift bar.

In addition, the connection part, one side is fixed to the main body, the other side is a connection member fixed to the lower side of the sub lift bar in the inner space of the main lift bar, the outer surface of the main lift bar is rotatably installed in place to the It includes a support member for supporting the connecting member.

In addition, the mounting portion is a pneumatic cylinder having a first moving piston for moving the buried machine in a horizontal direction and a second moving piston for horizontally moving a perforated hole forming a buried hole for burying the buried object in the object to be buried. Is formed by

In addition, it further includes a first additional lifting driving unit installed on the upper surface of the first moving piston and for lifting the embedding machine so that the embedding machine or the perforated machine can alternately contact the object to be buried.

And, further comprising a supply unit for supplying the buried material to the buried, the supply unit is disposed on the upper surface of the first movable piston, the upper surface is opened, and a case in which an accommodation space for accommodating a plurality of buried objects is formed therein, the A push unit including a spring fixed to one side wall of the receiving space of the case and a push plate that pushes the buried material accommodated in the receiving space to the other side wall of the case by the elastic force of the spring, and a rotation driving unit that is elevated by the second additional lift drive unit , A second additional lifting drive part disposed between the push part and the embedding machine and fixed to the upper surface of the first moving piston, and moved to the upper side of the case or the upper side of the embedding machine by the rotation drive part, and the second additional hoistway It includes a pick-up unit including a suction plate that is raised and lowered from the case or the landfill by the eastern part, picks up the landfill in the case through air suction, and supplies the picked landfill to the landfill by air discharge.

In addition, the embedding machine includes a first pocket portion in which a first internal space is formed, a second pocket portion formed on one side of the first pocket portion and formed so that a second internal space in which the buried material is accommodated is connected to the first internal space, It is mounted on an air gun that supplies air required for the burial of the buried material, and a closing film that closes the outlet side of the first pocket is integrally formed, and is collectively accommodated in the first inner space and the second inner space, and air in the air gun. A striking part that can be moved during injection and strikes the buried material located in the second inner space, is disposed between the closing membrane and the inner wall surface of the first pocket part, and returns to its original position through expansion when the striking part moves Includes a spring to let.

According to the embedding apparatus according to the present invention, it is possible to conveniently perforate an object to be buried located at a high place such as a ceiling from the ground, and then to bury an object such as an anchor, thereby protecting the safety of a worker.

In addition, a ladder or a lifting device is not required, and there is an effect of improving workability.

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

1 is a perspective view showing a buried device according to an embodiment of the present invention.
Figure 2 is an enlarged perspective view of a state in which the main frame and the fixing bar applied to the embedding device according to an embodiment of the present invention are combined.
3 is an enlarged perspective view of a base plate, a moving means, and a cylinder applied to the embedding device according to an embodiment of the present invention.
Figure 4 is a perspective view showing a state in which the elevation applied to the embedding device according to an embodiment of the present invention is elevated.
5 and 6 are cross-sectional views showing the operation of the lifting unit applied to the embedding device according to an embodiment of the present invention.
7 to 10 are perspective views showing the operation of the rotation drive in stages.
11 is a front view showing the operation of the supply unit applied to the embedding device according to an embodiment of the present invention.
12 is a perspective view showing a combined state of an air gun and an embedding apparatus applied to an embedding apparatus according to an embodiment of the present invention.
13 is a cross-sectional view showing a combined state of an air gun and an embedding apparatus applied to an embedding apparatus according to an embodiment of the present invention.
14 is a perspective view showing a state in which the second cylinder applied to the perforation device of FIG. 5 rotates the fixing bar and the elevating driver.

Advantages and features of the present invention, and a method of achieving them will become apparent with reference to the embodiments described below in detail together with the accompanying drawings.

However, the present invention is not limited to the embodiments disclosed below, but may be implemented in a variety of different forms, only the present embodiments are intended to complete the disclosure of the present invention, and common knowledge in the technical field to which the present invention belongs. It is provided to completely inform the scope of the invention to those who have, and the invention is only defined by the scope of the claims. The same reference numerals refer to the same components throughout the specification.

Hereinafter, the present invention will be described with reference to the drawings for explaining the embedding apparatus 1 according to embodiments of the present invention.

1 is a perspective view showing an embedding device according to an embodiment of the present invention, and FIG. 2 is an enlarged perspective view of a combined state of a main frame and a fixing bar applied to an embedding apparatus according to an embodiment of the present invention, and FIG. 5 And FIG. 6 is a cross-sectional view showing the operation of the embedding device according to an embodiment of the present invention, and FIGS. 7 to 10 are perspective views showing the operation of the rotation drive unit in stages, and FIG. 11 is It is a front view showing the operation of the supply unit applied to the embedding device according to an embodiment, Figure 12 is a perspective view showing the combined state of the embedding device and the air gun applied to the embedding device according to an embodiment of the present invention, Figure 13 is the present invention Is a cross-sectional view showing a state in which the embedding apparatus and the air gun are coupled to the embedding apparatus according to an embodiment of

The embedding device 1 according to an exemplary embodiment of the present invention is a product capable of easily embedding the embedding material 90 in the embedding object located at a high place even without a ladder or a lift device.

In this case, the object to be buried may be an object such as a ceiling object provided inside the building.

Specifically, the embedding device 1 according to an embodiment of the present invention may include a body portion 10, an elevating portion 20, and an elevating driving portion 30.

The main body 10 is a configuration in which the lifting part 20 and the lifting drive part 30 are mounted.

To this end, the body portion 10 may include a main frame 11, a base plate 12, a fixing bar 13, and a pocket portion 14.

The main frame 11 may include a square frame 111 and a connection bar 112 that is coupled to one side of the square frame 111 and the bottom of the other side in an erect form.

In the square frame 111, a first control button (not shown) for controlling the operation of the embedding machine 70 and the perforated machine described later, and a second control button (not shown) for controlling the operation of the lift drive unit 30 to be described later. ) Can be installed respectively.

The base plate 12 may be formed in a polygonal plate shape, and the bottom surface of the connection bar 112 is fixed to the upper surface thereof.

Moving means 121 are disposed at each corner of the bottom of the base plate 12.

The moving means 121 may be formed of a wheel that is rolled along the ground.

The moving means 121 is rotatably coupled to the square frame 111 positioned at the lower side so that the direction of the main body 10 can be changed.

A cylinder 40 is installed at each corner of the base plate 12 to maintain the horizontality of the main body 10 by lifting the moving means 121 respectively.

A through hole through which the piston of the cylinder 40 passes is formed in each corner of the base plate 12.

The cylinder 40 is fixed to the upper surface of the base plate 12 so that the piston faces downward.

The piston of the cylinder 40 is coupled to the upper surface of the fixing piece 1211 provided in the moving means 121, respectively.

The fixing piece 1211 is formed in an approximately'C' cross-sectional shape, and the moving means 121 is axially fixed in the inner space of the fixing piece 1211.

Further, a hydraulic supply tank (not shown) is installed on the base plate 12 to supply hydraulic pressure to the cylinders 40, respectively.

That is, when four cylinders 40 are applied, four hydraulic supply tanks are also applied, and the hydraulic supply tank individually supplies hydraulic pressure to the cylinder 40.

Although not shown in the drawing, four control buttons (not shown) for controlling each hydraulic supply tank may be installed on the main frame 11.

Therefore, when the ground on which the buried device 1 according to the present invention is located is inclined, the main body 10 can be maintained horizontally through the cylinder 40.

For example, if the ground on which the embedding device 1 is located is inclined downward from left to right, when the piston is lowered by supplying hydraulic pressure to only two cylinders 40 located on the right, the right side of the base plate 12 is It is raised, thereby making the base plate 12 horizontal.

The elevating drive unit 30 is fixed to the outer surface of the fixing bar 13.

The fixing bar 13 may be hinged (H) to one side of the square frame 111 positioned on the upper side and rotated at an angle of about 90 degrees in the up and down directions.

Additionally, a second cylinder 100 is further installed on the upper surface of the base plate 12 by pushing or pulling the fixing bar 13 and rotating in the up and down directions.

That is, as the piston of the second cylinder 100 moves forward or backward, the lower side of the fixing bar 13 is pushed or pulled, so that the fixing bar 13 is rotated in the up and down directions.

Therefore, the piston of the second cylinder 100 can be moved forward or backward step by step to adjust the inclination of the fixing bar 13, the perforator, and the embedding machine 90, and thus, the perforated hole is drilled in the oblique shape of the workpiece. After that, the buried material 90 may be embedded in the perforated hole.

Further, the fixing bar 13 is seated on the upper surface of the square frame 111 when it is rotated in a downward direction, and maintains an erect state when it is rotated in an upward direction.

Therefore, when the embedding device 1 according to an embodiment of the present invention is loaded in a vehicle, an elevator, etc., or when moving between floors, the fixing bar 13 and the elevating drive unit 30 may be rotated downward and folded. When performing the work of embedding the buried material 90 in water, the fixing bar 13 and the elevating driver 30 may be rotated upward to stand up.

In addition, the fixing bar 13 has an upper surface open and a lifting hole 13a formed therein to guide the lifting of the lifting part 20 to be described later.

The pocket portion 14 is accommodated when the fixing bar 13 is standing, and may be formed by fixing two vertical bars between the square frames 111.

In this case, the pocket portions 14 are spaced apart at intervals in which the fixing bars 13 can be accommodated in a force-fitting manner.

In this case, in the process of embedding the buried object 90 in the object to be buried while the fixing bar 13 is standing upright, it can be prevented from being overturned by its own weight.

It is possible to embed the buried material 90 in the object to be buried while easily moving the perforator and the embedding machine 70 to the required position through the body portion 10 including the configuration as described above.

The elevating portion 20 is coupled to the fixed bar 13 to be elevating and descending, and includes an embedding machine 70 and a mounting portion 23 on which a perforation machine is mounted.

Specifically, the lifting unit 20 may include a main lifting bar 21, a sub lifting bar 22, and a connection part 24.

The main lift bar 21 may be lifted by the lift drive unit 30 in a state accommodated in the lift hole 13a of the fixed bar 13.

At this time, a portion of the main lifting bar 21 protrudes upward from the fixed bar 13.

The main lifting bar 21 is formed in a pipe shape with an upper surface open and a lifting hole 21a formed therein to guide the lifting of the sub lifting bar 22 to be described later.

The sub lift bar 22 is accommodated in the lift hole 21a of the main lift bar 21, and a portion of the upper side protrudes upward of the main lift bar 21.

In addition, a mounting portion 23 on which an embedding machine 70 and a punching machine are mounted is installed on the upper surface of the sub lift bar 22.

The mounting portion 23 may be formed of a rodless cylinder or a linear cylinder.

The mounting unit 23 may include a first moving piston 231 for moving the buried machine 70 in the horizontal direction and a second moving piston 232 for moving the perforated hole in the horizontal direction.

Therefore, it is only necessary to move the perforated machine to the position to be perforated through the second movable piston 232 to perforate the object to be buried to form perforated holes. After that, the embedding machine 70 is passed through the first movable piston 231. By moving to the perforated hole, the buried material 90 may be embedded in the perforated hole.

At this time, the perforator may be a product capable of perforating the object to be buried, such as a drill.

Further, the perforator is mounted on the second movable piston 232 so that the drill bit (not shown) mounted at the tip faces the ceiling.

On the other hand, the first movable piston 231 is provided with a supply unit 60 for sequentially supplying a plurality of buried materials 90 to the buried machine 70.

The supply unit 60 may include a case 61, a push unit 62, a rotation drive unit 63, a second additional lift drive unit 64, and a pickup unit 65.

The case 61 includes a support 611 fixed to the upper surface of the first moving piston 231 on the bottom surface.

The case 61 may be formed in the shape of a square box with an upper surface open and an accommodation space in which a plurality of buried objects 90 are accommodated.

The push part 62 is in close contact with the other side wall of the case 61 located at the end by pushing the buried material 90 with the elastic force of the spring 621 and the spring 621 fixed to one wall of the receiving space of the case 61 It may include a push plate (622).

The spring 621 gradually expands each time the pickup unit 65 pulls out the buried material 90 one by one, and is gradually expanded from the point of time, that is, the buried material 90 located at the far right of the case 61 to the end point, that is, the case ( The most located buried material 90 of 61) is sequentially brought into close contact with the other side wall of the case 61.

The rotation drive unit 63 is coupled to the piston of the second additional lift drive unit 64 and may be raised or lowered.

The rotation drive unit 63 is based on a housing 631 coupled to the piston of the second additional lift drive unit 64, a shaft 632 accommodated in the inner space of the housing 631 and fixed to the bottom surface of the housing 631 It can be rotated in place, and is fixed to the center of the upper surface of the rotating body 633 and the rotating body 633 formed in a circular shape, and a part protrudes to the upper side of the housing 631, and is formed in a'A' cross-sectional shape. The bracket 634 may include an operation part 635 rotating the rotating body 633 at an angle of 180 degrees.

First and second vertical grooves are formed on the right and left surfaces of the rotating body 633, and first and second diagonal grooves are formed on the front and rear surfaces.

The upper side of the first vertical groove 633a is connected to the upper side of the first diagonal groove 633c, and the lower side of the first vertical groove 633a is connected to the lower side of the second diagonal groove 633d.

In addition, the upper side of the second vertical groove 633b is connected to the upper side of the second diagonal groove 633d, and the lower side of the second vertical groove 633b is connected to the lower side of the first diagonal groove 633c.

The operation part 635 is accommodated in the inner space of the housing 631, the side is open and an empty space is formed inside, and the hollow space of the square block 6351 and the square block 6351 formed on the bottom surface And it is formed on one side of the elevating bar 6352 and the elevating bar 6352 that are elevating along the hollow, and elevating with the elevating bar 6352 in a state in contact with the outer surface of the square block 6352, and the first and second vertically on one surface. The elevating block (6353) in which the elevating pieces (6354) elevating along the groove and the first and second diagonal grooves are formed, and the upper and lower sides are fixed to the bottom of the elevating block (6353) and the bottom of the square block (6351). (6355) may be included.

In addition, a cylinder (not shown) for lowering the lifting bar 6352 may be installed in the inner space of the housing 631.

The elevating bar 6352, the elevating block 653, and the elevating piece 6354 are lowered uniformly by the operation of the cylinder, and the spring 6355 is compressed when the elevating block 6355 is lowered, and expanded when the elevating block 6355 is raised. 6352 and the lifting block 6355 are prevented from being separated from the square block 6351.

And, the lifting piece 6354 descends along the first diagonal groove 633c when descending, and then rises along the second vertical groove 633b.

When the lifting piece 634 descends from the top to the bottom of the first diagonal groove 633c, the rotating body 633 and the bracket 634 are rotated only by 180 degrees.

In addition, the elevating piece 634 is raised along the second vertical groove 633b from the lower side of the first diagonal groove 633c, and then along the second diagonal groove 633d from the upper side of the second vertical groove 633b. Descends.

When the lifting piece 634 descends from the top to the bottom of the second oblique groove 633d, the rotating body 633 and the bracket 634 are further rotated by 180 degrees.

The second additional lift drive unit 64 is disposed between the push unit 62 and the embedding machine 70 and is fixed to the upper surface of the first moving piston 231.

The second additional elevation driving unit 64 is formed of a hydraulic cylinder to uniformly raise or lower the rotation driving unit 63 and the pickup unit 65.

The pickup portion 65 is configured to pick up the buried material 90 in the case 61 into the second pocket portion 72 of the buried machine 70 one by one.

To this end, the pickup unit 65 includes an air inhaler 652 including an adsorption plate 651 having a body part 6511 fixed to the bracket 634 and a suction hose 6251 installed through the adsorption plate 651 can do.

The suction plate 651 is moved to the upper side of the case 61 or to the upper side of the second pocket part 72 by the rotation driving part 63, and the case 61 or the second pocket part 72 by the second additional lifting part. ) Can be elevated.

The air inhaler 652 may be formed of a pump or a known product having an air suction function.

The second additional lift driving unit 64 descends when the suction plate 651 is moved to the upper side of the case 61 to contact the upper surface of the landfill 90 located at the end point, and the air inhaler 652 performs an air suction operation. Through this, the embedded material 90 is fixed to the suction plate 651.

In addition, the second additional lift drive unit 64 raises the suction plate 651 again when the suction plate 651 fixes the buried material 90 so that the buried material 90 is pulled out to the upper side of the case 61.

In addition, the second additional lifting drive unit 64 moves the suction plate 651 and the landfill 90 to the upper side of the second pocket part 72 by simultaneously lowering the suction plate 651 and the landfill 90 The buried material 90 is accommodated in the pocket part 72, and the air inhaler 652 is stopped so that the suction plate 651 does not fix the buried material 90.

In addition, the second additional lift drive unit 64 raises the suction plate 651 so that the buried material 90 is supplied to the second pocket unit 72.

The embedding machine 70 is configured to receive the buried material 90 from the supply unit 60 described above and fill it in the buried material.

At this time, the buried material 90 may be formed of anchor bolts.

Specifically, the anchor bolt includes a hollow, and a spiral hole is formed in the inner periphery of one side, and a plurality of incision pieces 911 are formed along the circumferential direction on the other side of the buried body 91 and the buried body 91 It may include a pin 92 accommodated in the inside, a portion of which is wrapped around the cut pieces 911.

In addition, the embedding machine 70 strikes the buried body 91 to open the cut pieces 911 so that the first internal space 71a is formed so that the incision pieces 911 can be buried in the object to be buried. The second pocket portion 72 formed on one side of the pocket portion 71 and formed so that the second inner space 72a in which the buried material 90 is accommodated is connected to the first inner space 71a, the air gun 80 ), and is integrally formed with a closing film 731 that closes the outlet side at the outer periphery of the first pocket portion 71, and is jointly accommodated in the first inner space 71a and the second inner space 72a When air is injected into the air gun 80, it is advanced to strike the landfill 90 located in the second inner space 72a, a striking part 73, a closing membrane 731, and a first pocket part 71 It is disposed between the inner wall surface of the, and when the striking part 73 is compressed when advancing and air is not injected into the air gun 80, it may include a spring 74 that returns to its original position through an expansion action.

A plurality of through-holes 71b vertically penetrating along the circumferential direction are formed on the upper surface of the first pocket part 71, and a fastening hole 731a at a position corresponding to the through-hole 71b in the closing film 731 ) Are formed respectively.

Then, the bolts (B) pass through the through holes (71b) and are respectively fastened to the fastening holes (731a).

Therefore, the striking part 73 may rise or fall with respect to the object to be buried without being separated from the first pocket part 71.

Then, the air gun 80 is connected to a known air injector (not shown).

The air injector supplies air to the passage 82 formed inside the air gun 80 to raise the striking part 73.

As shown in FIG. 13, the striking part 73 may include a spiral mounting means 732 mounted on a spiral mounting hole 81 provided on the outer periphery of the air gun 80.

The spiral mounting means 732 may be formed in a cylindrical shape with an open bottom and an upper surface, or may be formed as a coil spring, and may have a structure in which a spiral fastened to the spiral mounting hole 81 is formed at the lower inner periphery.

Further, a first stopper 7321 and a second stopper 7322 for limiting the lifting distance of the striking portion 73 are integrally formed on the upper side of the spiral mounting means 732.

The first stopper 7321 is in contact with the bottom of the locking piece 733 formed on the lower side of the striking part 73, and the second stopper 7322 is in contact with the upper side of the locking piece 733 or is spaced a predetermined interval. .

The first stopper 7321 and the second stopper 7322 are formed of a material having elasticity, such as metal, so that when air is injected into the passage 82 of the air gun 80, the hitting part 73 is raised to a certain level. When the air injection into the passage 82 of the air gun 80 is stopped, the engaging piece 733 is pulled to return the hitting part 73 to its original position.

The striking part 73 is partially accommodated in the spiral mounting means 732, and the corresponding part faces the air gun 80.

The outer periphery of the striking part 73 is formed with a disk-shaped locking protrusion 733 in contact with the ceiling surface of the spiral mounting means 732. Therefore, the striking part 73 can be raised or lowered with respect to the object to be buried without being separated from the spiral mounting means 732.

The striking part 73 strikes the landfill 90 accommodated in the second pocket part 72 in the upward direction when rising, thereby embedding it in the landfill.

Additionally, the embedding apparatus 1 according to the present invention may further include a first additional elevation driving unit 50 for allowing the embedding machine 70 or the perforated air to contact the object to be buried alternately with each other.

The first additional elevation driving unit 50 may be formed of a hydraulic cylinder.

The first additional lift drive unit 50 is installed on the upper surface of the first moving piston 231.

The piston of the first additional lifting drive unit 50 is coupled to the embedding machine 70.

Accordingly, the embedding machine 70 is raised or lowered by the operation of the first additional driving unit.

When the embedding machine 70 is raised, the upper part may be positioned higher than the perforated machine to contact the object to be buried.

In addition, when the embedding machine 70 is lowered, the upper part of the perforated machine may be positioned higher than the embedding machine 70 to contact the object to be buried.

Accordingly, after drilling the object to be buried with a perforator through the first lifting unit 20, the buried object 90 can be buried in the perforated hole with the embedding machine 70.

The connection part 24 connects the main lifting bar 21 and the sub lifting bar 22 so that the sub lifting bar 22 moves up and down in association with the main lifting bar 21.

To this end, the connection part 24 may include a connection member 241 and a support member 242.

The connecting member 241 has a lower side fixed to an upper outer surface of the fixing bar 13, and an upper side is fixed to a lower side or a bottom surface of the sub lift bar 22 through an upper opening of the main lift bar 21.

The support member 242 is configured to guide the movement of the connection member 241 while supporting the connection member 241.

The support member 242 is axially fixed to the upper outer surface of the main lifting bar 21.

Accordingly, the support member 242 is supported while rotating in place when the connecting member 241 is moved.

In this case, the connecting member 241 may be formed of a chain, and the support member 242 may be formed of a sprocket or a drum corresponding to the connecting member 241.

The elevating drive unit 30 raises or lowers the elevating unit 20 with respect to the workpiece, and may be formed as a hydraulic cylinder or a pneumatic cylinder, and hereinafter, the elevating drive unit 30 will be described for example formed of a hydraulic cylinder. .

The elevating driver 30 is fixed to the side of the fixing bar 13, and the piston is coupled to the bracket 211 formed on the upper side of the main elevating bar 21.

In addition, a hydraulic supply tank 31 for supplying or recovering hydraulic pressure to the hydraulic cylinder may be installed on the base plate 12.

The main lifting bar 21 is accommodated in the lifting hole 13a of the fixed bar 13, and the sub lifting bar 22 is accommodated in the lifting hole 21a of the main lifting bar 21, so that the lifting drive unit 30 Elevates the main lifting bar 21 and the sub lifting bar 22 in a telescopic manner.

Next, an example of use of the buried device according to the present invention and unique effects will be described with reference to FIGS. 5, 6 and 11.

First, a structure such as a tray is installed on the ceiling of a building, and for this purpose, a plurality of holes for installing transfers, pipes, bolts, etc. in which the tray is supported and installed on the ceiling must be drilled.

Therefore, the embedding device 1 according to the present invention is moved to a position in which the hole is to be drilled in the ceiling surface of the building.

At this time, it is sufficient to move the perforated machine to the position to be perforated on the ceiling surface through the first moving piston 231.

Thereafter, the piston is raised through the second control button.

When the piston 31 is raised in a lowered state as shown in FIG. 5, the main lifting bar 21 is raised along the lifting hole 13a of the fixed bar 13, and at the same time, the connecting member 241 and The support member 242 raises the perforated air mounted on the sub lift bar 22 and the mounting portion 23 by a pulley principle by interaction.

Thereafter, when the perforated hole is operated through the first control button when the perforated hole is close to the ceiling surface, the drill bit perforates the ceiling surface.

Thereafter, the embedding machine 70 is moved through the first moving piston 231 so that the second pocket portion 72 is positioned under the perforated hole formed on the ceiling surface.

At this time, the suction plate 651 maintains a state positioned above the case 61 by the rotation driving part 63.

Therefore, when the second additional lift drive unit 64 is lowered by manipulating the control button (not shown) for the second supplementary lift drive unit 64 provided on the main body 10, the suction plate 651 is located at the end point F. It is in contact with the upper surface of the landfill 90.

Thereafter, by operating a control button (not shown) for the air inhaler 652 provided in the main body 10 so that the suction hose 6251 sucks the air on the suction plate 651, the buried material 90 in the suction plate 651 After fixing is carried out, the suction plate 651 is raised through the second additional lift drive unit 64 to draw the buried material 90 to the upper side of the case 61.

Thereafter, by operating a control button (not shown) for the rotation driving unit 63 provided on the main body 10 to rotate the bracket 634 and the pickup unit 65 at an angle of 180 degrees, the suction plate 651 and the embedded material ( 90) is positioned above the second pocket portion 72.

Thereafter, the suction plate 651 is lowered through the second additional lifting drive unit 64 to place the buried material 90 inside the second pocket unit 72, and then the operation of the air inhaler 652 is stopped. After releasing the fixation of the adsorption plate 651 to the buried material 90, only the pick-up unit 65 is raised through the second additional lift drive unit 64.

Thereafter, the bracket 634 and the pickup unit 65 are rotated at an angle of 180 degrees through the rotation driving unit 63 so that the pickup unit 65 is positioned above the case 61.

After that, by operating the control button (not shown) for the first lift drive unit 30 provided on the main body 10 to raise the embedding machine 70, the buried material 90 of the second pocket unit 72 is perforated. After placing it in the hole, the blower 73 is embedded by repeatedly injecting and stopping air into the air gun 80 through the air injector through a control button (not shown) for the air injector provided in the main body 10 The main body 91 is repeatedly hit.

At this time, the air injector injects air into the air gun 80 at intervals of 1 to 3 seconds.

And, when air is supplied to the inside of the air gun 80, the striking part 73 rises and strikes the buried body 91. At this time, the spring 74 is compressed between the closing membrane 731 and the ceiling surface of the first pocket part 71, and the bolt B also rises so that a part of the spring 74 protrudes outward from the upper side of the first pocket part 71 do.

In addition, when air is not supplied to the inside of the air gun 80, the spring 74 expands and pushes the closing membrane 731 to lower the striking portion 73.

In addition, the buried body 91 is gradually raised along the perforated hole whenever it is hit by the striking portion 73, and the cut pieces 911 elastically surround the outer surface of the pin 92, so the pin 92 is also Rise together.

Further, the pin 92 is formed in a shape whose diameter gradually widens from the lower side to the upper side. In addition, the upper portion of the pin 92 protrudes upward of the buried body 91.

Accordingly, the buried body 91 is gradually raised even along the pin 92, and the cut pieces 911 are also gradually opened in response thereto. The open incision pieces 911 are hung on the ceiling surface. Accordingly, the embedded material 90 is fixed to the ceiling surface.

And, when the perforation work for one part and the embedding work of the buried material 90 are completed, the piston is lowered through the second control button, and then the embedding device 1 is sequentially moved to the next perforation and burial position. After drilling a hole in the ceiling surface in the above-described manner, the buried material 90 may be buried.

As described above, in the case of using the embedding device 1 according to the present invention, there is no troublesome and inconvenient situation in which the operator has to move the ladder to each position where the perforation of the ceiling surface and the landfill 90 is to be embedded, and the operator There is no hassle and dangerous situation to go up and down, and it is possible to provide an advantage of allowing an operator to safely perforate the ceiling while moving the buried device 1 easily from the ground.

Those of ordinary skill in the art to which the present invention belongs will be able to understand that the present invention can be implemented in other specific forms without changing the technical idea or essential features. Therefore, it should be understood that the embodiments described above are illustrative in all respects and not limiting. The scope of the present invention is indicated by the scope of the claims to be described later rather than the detailed description, and all changes or modified forms derived from the meaning and scope of the scope of the claims and their equivalent concepts are included in the scope of the present invention. It must be interpreted.

1: embedding device 10: main body
11: main frame 111: square frame
112: connecting bar 12: base plate
121: moving means 1211: fixed piece
13: fixing bar 13a, 21a: lifting hole
14: pocket portion 20: elevating portion
21: main lifting bar 211,634: bracket
22: sub lift bar 23: mounting portion
231: first moving piston 232: second moving piston
24: connection part 241: connection member
242: support member 30: elevating drive unit
31: hydraulic supply tank 40: cylinder
50: the first additional lifting drive unit 60: supply unit
61: case 611: support
62: push part 621,6355,74: spring
622: push plate 63: rotation drive unit
631: housing 632: shaft
633: rotating body 633a: first vertical groove
633b: second vertical groove 633c: first diagonal groove
633d: second diagonal groove 635: operating part
6351: square block 6352: lifting bar
6353: elevating block 6354: elevating flight
64: second additional lifting drive unit 65: pickup unit
651: suction plate 6511: body
652: air inhaler 6521: suction hose
70: embedding machine 71: first pocket portion
71a: first internal space 72: second pocket portion
72a: second internal space 73: hitting part
731: closing membrane 732: spiral mounting means
733: locking step 80: air gun
81: spiral mounting hole 90: landfill
91: landfill body 911: incision
92: pin

Claims (9)

A body portion including a plurality of moving means that are cloud-moved along the ground,
An elevating portion coupled to the main body so as to be elevating and including a mounting portion on which an embedding machine for embedding the buried object in the buried object is mounted;
An embedding apparatus comprising an elevating driver for raising or lowering the elevating portion with respect to the object to be buried.
The method of claim 1,
The body part,
Mainframe,
A base plate on which the main frame is seated and the moving means are installed at regular intervals along the bottom edge,
A fixed bar hinged to seat or stand on the upper surface of the main frame, and to which the elevating driver is coupled,
A buried device including a pocket portion accommodated when the fixing bar is standing up.
The method of claim 2,
A first cylinder installed on the main frame and for raising and lowering each of the moving means to contact the ground,
An embedding device further comprising a second cylinder installed on the base plate and rotating in an up and down direction by pushing or pulling the fixing bar.

The method of claim 2,
The elevating part, a main elevating bar that is elevated by the elevating driver,
A sub lift bar that can be lifted along the main lift bar and the mounting unit is installed,
An embedding device comprising a connection part connecting the main lifting bar and the sub lifting bar so that the sub lifting bar moves up and down in association with the main lifting bar.
The method of claim 4,
The connection part,
One side is fixed to the main body, the other side is a connection member fixed to the lower side of the sub lift bar in the inner space of the main lift bar,
A buried device including a support member that is rotatably installed on an outer surface of the main lifting bar to support the connection member.
The method of claim 1,
The mounting part is formed of a pneumatic cylinder having a first movable piston for moving the burying machine in a horizontal direction and a second movable piston for horizontally moving a perforated hole forming a burying hole for burying the burying in the object Landfill device.
The method of claim 6,
An embedding apparatus further comprising a first additional lifting drive installed on the upper surface of the first moving piston and for lifting the embedding machine so that the embedding machine or the perforated machine can alternately contact the object to be buried.
The method of claim 6,
Further comprising a supply unit for supplying a buried material to the embedding unit, the supply unit,
A case disposed on the top of the first movable piston, the upper surface is open, and a receiving space for accommodating a plurality of buried objects is formed therein,
A push unit including a spring fixed to one side wall of the receiving space of the case and a push plate for pushing the buried material accommodated in the receiving space to the other side wall of the case by an elastic force of the spring,
A rotation drive unit that is elevated by the second additional lift drive unit,
A second additional elevation driving unit disposed between the push unit and the embedding machine and fixed to the upper surface of the first moving piston,
It is moved to the upper side of the case or to the upper side of the embedding machine by the rotation driving unit, and the second part is raised and lowered to the case or the embedding machine by the elevation driving unit, and picks the buried material in the case through air intake, and picks it by air discharge. An embedding apparatus comprising a pick-up unit including an adsorption plate for supplying a buried material to the embedding machine.
The method of claim 1,
The landfill machine
A first pocket portion in which a first internal space is formed,
A second pocket portion formed on one side of the first pocket portion and formed such that a second inner space in which a buried material is accommodated is connected to the first inner space,
It is mounted on an air gun that supplies air required for the burial of the buried material, and a closing film that closes the outlet side of the first pocket is integrally formed, and is collectively accommodated in the first inner space and the second inner space, and air in the air gun. A striking part that can be moved during injection and strikes the landfill located in the second internal space,
An embedding device comprising a spring disposed between the closing membrane and the inner wall surface of the first pocket portion and returning to an original position through an expansion action when the striking portion moves.

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