KR101891991B1 - Materials load box with improved materials load and unload function - Google Patents

Abstract

An object of the present invention is to provide a material stacking bed improved in stacking function. In the present invention, a stacking space is provided inside, and the stacking space has a three- A frame 10; A plurality of stacking support frames (12) vertically arranged in the stacking frame (10); A plurality of sector loading space portions (14) formed by the loading support frame (12) so that the loading space portion of the loading frame (10) is divided; (20) arranged to be close to the side portion of the stacking frame (10), and the inverter (20) comprises a sector loading space A base inverting frame 22 disposed adjacent to a lower portion of the portion 14; A reverse inversion frame 24 extending upward from the base reverse frame 22; An inversion movable frame (26) coupled to the direct current inversion frame (24) by a hinge portion so as to be vertically rotated with respect to the direct current inversion frame (24); And a rotation locking means for holding the reversing movable frame 26 in a state of being horizontally rotated in the direction opposite to the hinge portion.

Description

Materials loading box with improved loading and unload function

More particularly, the present invention relates to a method for loading a plurality of sheets of metal sheets, which is convenient when the sheet is taken out one by one, The elevation feature is about a material stack that improves on the new improved loading function compared to the existing one.

In general, many products are manufactured using metal plates. There are many products such as metal boxes, switchboard boxes, LCDs and LEDs, and frame boxes for large information signs installed at airports.

On the other hand, during the process of processing a metal plate in a processing factory, there is a process of cutting a metal plate using a laser, and there are many other processes for processing a metal plate.

In this case, a plurality of metal plates are stacked, except when a metal plate is cut by a laser, and then a metal plate is machined (for example, the above-described laser cutting process) . In other words, a rack-shaped stacking table having a plurality of metal plates vertically stacked in a space is installed in the field, and a plurality of metal sheets are stacked on the stacking space of the stacking table by a pallet. In this case, considering that it is difficult to transfer the metal plate too much at a later time, a predetermined number of metal plates are mounted on the pallet, a pallet is placed on the metal plate again, and a plurality of metal plates are stacked on the pallet again . That is, a pallet and a plurality of metal plates are stacked on at least two layers in a rack-shaped mounting table having a loading space portion in the horizontal direction. When a metal plate working operation (such as a laser cutting operation as described above) is required, a forklift is brought to the forklift to take the pallet and the metal plate to a position close to the processing apparatus (laser cutter or the like) The pallet and the metal plate are placed next to the processing apparatus, and the metal plate is placed on the processing apparatus (laser cutter) one by one to perform laser cutting of the metal plate.

Conventionally, when a plurality of metal plates are horizontally stacked on the pallet as described above, the operator is forced to take the metal plate to the machining apparatus. At least two workers have to move large metal plates together, which makes the worker very stressful. In many cases, a metal sheet is painted with a thin oil film so as not to rust it. In this case, when a plurality of metal sheets are stacked, air does not enter and the metal sheets adhere to each other. When a metal sheet is stacked by a plurality of sheets, As more metal plates are pressed, it becomes very difficult for the operator to remove a piece of metal plate. In addition, there is a possibility that a safety accident such as a worker's injury may occur during the movement of a large metal plate by an operator.

On the other hand, when a pallet and a plurality of sheets of metal plates are stacked on a rack-shaped pallet in a stacked manner and the pallet and a plurality of stacked metal plates are moved to the side of the processing apparatus, If you want to lift the pallet and the metal plate under the pallet and the metal plate, remove the upper pallet and the metal plate first, lift the pallet and the metal plates below, and then remove the pallet and metal plates There is a problem in that it takes a lot of work time and inconvenience to work because the loading space portion of the loading stand must be inserted again. In other words, in the conventional art, there is a problem that a forklift is required to carry a large number of metal plates to a machining apparatus, a metal plate necessary for machining is required, and a moving distance is increased due to a forklift. In other words, it is very inconvenient and inconvenient to remove the metal plate to be loaded in the past, and there are many problems to be solved, such as a risk of a safety accident depending on the case.

Korean Patent Publication No. 1995-0006177 (published on Mar. 20, 1995) Domestic Public Utility Model No. 20-2014-0004055 (Published on July 02, 2014)

SUMMARY OF THE INVENTION The present invention has been developed in order to solve the problems as described above, and it is a main object of the present invention to provide a new structure in which a plurality of metal plates are stacked horizontally rather than horizontally, It is convenient to take out one piece of metal plate and it is convenient to use it. It also prevents the time consuming to take out when using the metal plate, and the function to increase the convenience of loading and unloading of metal plate has a new improved loading function And to provide an improved material stack.

According to an aspect of the present invention, there is provided an image forming apparatus comprising: a loading frame having a loading space inside; a loading frame communicating with an opening formed in a side of the loading space; A plurality of vertically stacked support frames arranged vertically in the stack frame; A plurality of sector loading space portions formed by dividing the loading space portion of the loading frame by the upper and lower loading support frames; And a reversing frame disposed adjacent to the side portion of the stacking frame, wherein the reversing unit comprises: a base reversing frame disposed adjacent to a lower portion of a sector loading space formed inside the loading frame; A reverse inversion frame extending upward from the base inversion frame; An inversion movable frame coupled to the direct inversion frame by a hinge portion so as to be pivotable in a vertical direction with reference to the direct inversion frame; And a rotation locking means for holding the reversing movable frame in a state of being horizontally rotated in the direction of the reversing frame with respect to the hinge portion.

In addition, according to the present invention, there is also provided a three-dimensional loading table frame having a loading space inside and communicating with an opening formed in a side portion of the loading space; A plurality of vertically stacked support frames arranged vertically in the stack frame; A plurality of sector loading space portions formed by dividing the loading space portion of the loading frame by the upper and lower loading support frames; And a loading supporter provided in the sector loading space portion of the loading frame, wherein the loading base is provided with an improved loading function.

The loading supporter includes: a fixed loading supporter provided on a bottom surface of the sector loading space of the loading frame; And a detachable loading supporter detachably coupled to a bottom surface of the sector mounting space at a side of the fixed loading supporter, wherein the fixed loading supporter and the removable loading supporter are installed on a lower portion of the loading space, Is mounted on the loading frame so as to be disposed at a position deviated from the loading frame.

Since the material stacking table of the present invention improves the stacking function of the present invention, a plurality of metal sheets are laid down and stored, and unlike the conventional method, materials such as metal plates are stacked up and stored. Therefore, it is very convenient to take out and use the metal sheets one by one. Since there is no need to move the metal plate from the stand to the machining apparatus, the effect of solving the problem that the worker becomes very difficult at the time of carrying the metal plate and the effect of preventing the safety accident such as the operator being injured during the transportation of the metal plate .

The present invention has various effects other than the above-mentioned effects, and the above-mentioned effects are the main effects of the present invention.

Fig. 1 is a front view of a loading frame, which is a main part of a material loading station improved in the loading function according to the present invention.
Fig. 2 is a rear view of Fig. 1
Figure 3 is a plan view of Figure 1
Figure 4 is a perspective view of another major part of the material stack, which improves the loading function of the present invention,
Fig. 5 is a side view of Fig.
Fig. 6 is a front view of Fig. 4
Fig. 7 is a perspective view showing a state in which the reversing movable frame is horizontally rotated in a state that the material is loaded on the reversing movable frame,
8 is a perspective view showing a state in which the safety rotation shown in Fig. 7 is rotated to the outside of the reversing movable frame; Fig.
9 is a plan view showing a state in which a reversing device is disposed adjacent to a front side portion of a loading frame,
FIGS. 10 and 11 are side views showing the structure and use state of another important part of the present invention,

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings. The objects, features and advantages of the present invention will be more readily understood by reference to the accompanying drawings and the following detailed description. The same reference numerals are used for the same parts in the drawings. In the following description of the present invention, a detailed description of known functions and configurations incorporated herein will be omitted when it may make the subject matter of the present invention rather unclear.

In describing the components of the present invention, terms such as first, second, A, B, (a), and (b) may be used. These terms are intended to distinguish the constituent elements from other constituent elements, and the terms do not limit the nature, order or order of the constituent elements. When a component is described as being "connected", "coupled", or "connected" to another component, the component may be directly connected or connected to the other component, Quot; may be "connected," "coupled," or "connected. &Quot;

Referring to the drawings, a material stack having improved stacking functions of the present invention includes a stacking frame 10, a plurality of stacking support frames 12 and a stacking space 14.

The loading frame 10 is a three-dimensional frame structure in which a loading space portion is provided inside and a loading space portion is communicated with an opening portion formed in the side portion. The stacking frame 10 includes a rectangular frame-shaped lower stacking frame portion, an upper stacking frame portion formed in a rectangular shape and spaced above the lower stacking frame portion, a plurality of upper and lower stacking frame portions connected to the lower stacking frame portion and the upper stacking frame portion Left side loading frame portion and right side loading frame portion. Therefore, the loading frame 10 is formed in a shape of a three-dimensional hexahedron frame having a front side portion, a rear side portion, right and left side portions, and an upper portion and a lower portion, 10 so that the sector mounting space portion 14 communicates with the front side portion and the rear side portion of the stacking frame 10 and the stacking frame portion 10 of the stacking frame 10 is spaced apart at regular intervals along the left and right side portions of the stacking frame 10, So that the material (2) enters the sector loading space (14) at the front side portion and is stacked in a standing state. On the other hand, the loading frame 10 includes a plurality of left and right upper bars (upper bars arranged in the horizontal direction), front and rear upper and lower bars and right and left lower bars (lower bars arranged in the horizontal direction) .

The loading support frame 12 is vertically arranged on the loading frame 10. A plurality of stacking support frames 12 are disposed in an inner space portion of the stacking frame 10. A plurality of stacking support frames 12 are arranged at regular intervals along the left and right side portions of the stacking frame 10. The stacking support frame 12 preferably has a bar shape with a square cross section. And a plurality of sector loading space portions 14 formed by dividing the loading space portion of the loading frame 10 by the loading support frame 12.

At least one guide roller 16 is provided in a lower portion of the sector mounting space 14 partitioned by the stacking support frame 12 along the front side portion and the rear side portion of the loading frame 10, And the lower end of the metal plate mounted on the sector mounting space portion 14 is brought into contact with the outer circumferential surface of the guide roller 16. In the present invention, about three guide rollers 16 are provided along the front side portion and the rear side portion of the loading frame 10. Each of the stacking support frames 12 includes a lower stacking support frame bar, an upright support frame bar having a lower end connected to the lower stacking support frame bar, and an upper stacking support frame bar connected to an upper end of the upright support frame bar. The guide rollers 16 are rotatably coupled to a lower stacking support frame bar constituting the stacking support frame 12. [ The rollers of the guide rollers 16 are respectively connected to two lower stacking support frame bars of two stacking support frames 12 which are parallel to each other so that the guide rollers 16 are stacked in the stacking direction And may be provided in a state in which they are horizontally laid down in the space portion 14, respectively.

In the present invention, the term "material 2" refers to a metal plate mainly having a rectangular thickness, and it is known in advance that the material 2 may be referred to as a metal plate if necessary.

The guide roller 16 is rolled while the lower end of the metal plate is in contact with the outer circumferential surface of the guide roller 16 to draw the metal plate toward the front side portion of the stacking frame 10, So that it can be smoothly drawn out from the front side portion of the frame.

At this time, the stacking frame 10 is provided with a plurality of lower bars at its lower portion, the stacking support frame 12 is disposed upwardly of the lower bar, and the guide rollers 16 are rotatable Lt; / RTI > The guide rollers 16 may be provided on the lower stacking support frame bar of the stacking support frame 12. The roller axes of the guide rollers 16 may be coupled to the respective lower stacking support frame bars of the two parallel stacking support frames 12.

The guide roller 16 is provided with a tapered portion 16T on its outer peripheral surface. The tapered portion 16T is formed to be inclined downward toward the loading support frame 12 when viewed from the front side portion or the rear side portion of the loading frame 10. That is, the guide roller 16 includes a full length roller portion and a tapered portion 16T, and when viewed from the front side portion or the rear side portion of the stacking frame 10, a part of the outer diameter of the guide roller 16 And gradually decreases toward the loading support frame 12 to form the tapered portion 16T.

The present invention further includes an inverter (20) arranged to be close to the side portion of the stack frame (10). In the present invention, the material 2 pulled out from the sector loading space portion 14 of the loading frame 10 is placed in close proximity to the front side portion (or rear side portion) of the loading frame 10, , And an inverter (20) for rotating the erected material (2) horizontally when the material (2) is used. In the present invention, the inverter 20 is arranged so as to be close to the front side portion of the frame 10 mainly. At this time, the inverter 20 includes a base inverting frame 22, a reverse inverting frame 24, and an inverting movable frame 26.

The base reversing frame 22 has two front and rear horizontal base bars and a cross base bar arranged on the same line as the center between both ends of the horizontal base bar and having front and rear ends connected to the two horizontal base bars. In addition, the base inversion frame 22 includes an auxiliary cross base bar in parallel with the cross base bar. The front and rear ends of the auxiliary cross base bar are connected to two front and rear horizontal base bars. In addition, the cross base bar and the auxiliary cross base bar are connected to a reinforcing base bar arranged in parallel with the horizontal base bar. The base reversing frame 22 is provided with a plurality of conveying guide rolls 23. A roll bracket is provided on one side of the cross base bar of the base reversing frame 22 and the roll axis of the conveying guide roll 23 is connected to one side of the roll bracket and the cross base bar, In a horizontal direction. The roll bracket has two front and rear bracket pieces and a bridge bracket piece connected to the front end portions of the front and rear bracket pieces when viewed from above the base reverse frame 22. The base ends of the two front and rear bracket pieces are connected to the cross base And both ends of the roll shaft are connected to the bridge bracket piece of the roll bracket and the cross base bar in a state where a part of the transport guide roll is accommodated in the roll bracket. At this time, a plurality of conveying guide rolls are provided along the front and rear direction of the base reversing frame 22.

The base inversion frame 22 is provided with a caster. Casters are provided on the front, rear, left, and right corners of the base reverse frame 22, respectively. At least four corners of the base reversing frame 22 are provided with a caster on the bottom surface of the corner portion.

In addition, the base reverse frame 22 is provided with a horizontal roll. The horizontal roll is provided in the peripheral portion facing the side portion of the stacking frame 10. The front side edge portion of the base reverse frame 22 faces the front side portion of the stack frame 10 and the horizontal roll 22RL is provided at the front edge portion of the base reverse frame 22. [ A plurality of horizontal rolls are provided along the front and rear direction of the base reverse frame 22.

The base inversion frame 22 is further provided with an inversion support 122. The inverting support 122 includes a bottom support bracket 122A and an inverting support bar 122B. Preferably, the inverting support 122 further comprises a buffer member and a reinforcing support bracket.

The bottom support bracket 122A is formed in a rectangular plate shape. The bottom support bracket 122A is provided with a bolt insertion hole. The bolt insertion hole communicates from the upper surface of the bottom support bracket 122A to the bottom surface.

And the lower end of the inverted support bar 122B is fixed to the bottom support bracket 122A. And the inverted support bar 122B is vertically erected.

The buffer member is provided at the upper end of the reversing support bar 122B. And the lower end of the buffer member is fixed to the upper end of the inverted support bar 122B. The cushioning member may be made of a material having a cushion capable of absorbing impact such as rubber.

The reinforcing support bracket is formed in a triangular plate shape when viewed from the side. The horizontal end and the vertical end of the reinforcing support bracket are connected to the bottom support bracket 122A and the reversing support bar 122B, respectively. And the inclined end portion of the reinforcing support bracket is connected to the bottom support bracket 122A and the inverting support bar 122B.

The inverting support 122 is detachably fixed to the base reverse frame 22 by fasteners such as bolts. A fastener such as a bolt passing through the bolt insertion hole of the bottom support bracket 122A is fastened to the reinforcing base bar in a state where the bottom support bracket 122A is placed on the reinforcing base bar of the base reverse frame 22, 122 can be detachably coupled to the base reverse frame 22. [ And the inverting supporter 122 is disposed at the center between the front and rear ends of the base inverting frame 22. [

The direct inversion frame 24 includes two parallel direct connection frame bars and a direct support frame bar.

The lower end of the direct connection frame bar is connected to the base reverse frame 22. And is connected to two parallel front and rear horizontal base bars of the base reverse frame 22. And the electromagnetically connecting frame bar is erected perpendicularly to the base reverse frame 22. [ Two direct connection frame bars stand vertically in the base reverse frame 22. Two direct connection frame bars are arranged side by side. At this time, the direct connection frame bar has a cross-sectional channel shape. That is, the electret connection frame bar includes a width direction opacity and two side opacities connected to both ends of the width direction bar and disposed side by side. The width direction opacity extends in the front and rear direction of the base reversing frame 22, and the two side opacities are arranged in a direction orthogonal to the width direction opacity. Accordingly, the direct connection frame bar is configured in a cross-sectional channel shape by the width direction opponent and the two side opacities. The two pairs of direct connection frame bars are fixed to the base reverse frame 22 so as to face each other in the width direction opposed to each other.

A fixed disk 32 is provided in the direct inversion frame 24 and a locking pin 36 is provided in the fixed disk 32.

The fixed disk 32 is provided with a disk connection bracket extending downward and the disk connection bracket is fixed to a disconnected connection frame bar constituted by the reverse inversion frame 24 by fasteners such as bolts. And the fixed disk 32 is provided on each of the front and rear two-port connection frame bars of the reverse inversion frame 24. That is, the two front and rear fixed disks 32 are supported by the reverse inversion frame 24 and are disposed at positions facing each other. Also, the fixed disk 32 is provided with a locking reference groove LG. The locking reference groove (LG) is provided at a position opposite to the disc connecting bracket. That is, the disk connection bracket extends to the lower side of the fixed disk 32, and the locking reference groove LG has a groove structure that is concave downward from the outer peripheral surface of the upper side of the fixed disk 32. In other words, the disk connection bracket is provided on the lower side of the fixed disk 32 and the locking reference groove LG is provided on the upper side outer peripheral surface of the fixed disk 32.

The locking pin 36 is connected to the fixed disk 32 via a hinge. A locking pin 36 is connected to the outer surface of the fixed disk 32 via a hinge. The locking pin 36 is aligned with the locking reference groove LG formed on the outer peripheral surface of the upper end side of the fixed disk 32. When the locking pin 36 is rotated downward to be erected with reference to the hinge portion and the locking pin 36 is rotated upward with respect to the hinge portion, the locking pin 36 can be inserted into the locking reference groove LG. When the lock king pin 36 is erected in the vertical direction with respect to the hinge portion, the lock king pin 36 is disengaged from the locking reference groove LG of the fixed disk 32 and the lock king pin 36 is moved in the horizontal direction The locking pin 36 is inserted into the locking reference groove LG of the fixed disk 32. As a result,

The direct support frame bar is connected to two direct connection frame bars. The reflector frame bars are arranged in the front and rear direction of the base reverse frame 22. The reflector frame bar also has a cross-sectional channel shape. That is, the direct-support frame bar includes two vertically-directed support bars opposed to each other, and two horizontal support bars opposed to each other and connected to the upper and lower ends of the direct-support bar. The direct support bar opponent extends in the vertical direction, and the two horizontal direct support bar opponents extend in the horizontal direction orthogonal to the direct support bar opponent. Therefore, the direct-support frame bar is configured in a cross-sectional channel shape by the vertically oriented direct-support bar opponent and the two horizontal horizontal direct-support bar opponents.

On the other hand, the buffer reversing frame 22 is provided with a buffer member. A cushioning member is provided on the cross base bar, which is a constituent of the base reverse frame (22). The buffer member may be made of a buffer material such as rubber that absorbs the impact.

The inversion movable frame 26 is composed of a longitudinal inverted frame bar extending in the front-rear direction of the base inverting frame 22 and a vertical inverted frame bar extending in the left-right direction of the base inverting frame 22 and connected in a direction orthogonal to the longitudinal inverted frame bar And a transverse reversing frame bar. A plurality of longitudinal reverse frame bars and a plurality of transverse reverse frame bars are connected to each other to constitute the reverse movable frame 26. The reversing movable frame 26 is formed in a rectangular frame shape.

The reversing movable frame (26) is provided with an inversion movable disk (34). The reversing movable disk 34 is provided on the front and rear two longitudinal reversing frame bars constituting the reversing movable frame 26. [ The reversing movable disc 34 is fixed to the longitudinal reversing frame bar so that it is disposed at both ends of the intermediate reversing frame bar of the reversing movable frame 26. [ That is, the reversing movable disk 34 provided at the proximal end of the reversing movable frame 26 is disposed so as to face the fixed disk 32 provided at the base end of the reverse reversing frame 24. The diameter of the fixed disk 32 and the diameter of the inverting movable disk 34 are the same.

The hinge shaft is rotatably coupled to the hinge hole of the fixed disk 32 provided on the reverse inversion frame 24, A hinge portion on the base end side is formed between the reversing movable frame (26) and the negative reversing frame (24) by a hinge hole. The front end of the reverse movable frame 26 and the front end side of the reverse inversion frame 24 are connected to each other through the hinge portion on the front end side of the bar of the reverse inversion frame 24. And the inverted movable frame 26 is coupled to the inverted inverted frame 24 through the hinge part. The reversing movable frame 26 can be pivoted in the up-and-down direction in the direct inversion frame 24 on the basis of the hinge portion.

The reversing movable disk 34 is provided with an inverting variable groove RG. The plurality of reversing variable grooves RG are provided along the circumferential direction of the reversing movable disk 34. [ At this time, the reversing variable groove (RG) may also be provided in the longitudinal reversing frame bar on which the reversing movable disk 34 is fixed. A locking reference groove LG may be provided on any one of the fixed disk 32 and the reverse movable disk 34 and a plurality of inverted variable grooves RG may be provided on the other disk. A locking reference groove LG is provided in the fixed disk 32 and an inverted variable groove RG is provided in the inversion movable disk 34. [

The reversing movable frame 26 rotates together with the reversing movable disk 34 on the basis of the hinge portion and any reversing variable groove RG among the plurality of reversing variable grooves RG of the reversing movable disk 34 And can be aligned with the locking reference groove LG of the fixed disk 32 provided in the reverse inversion frame 24. When the reversing movable frame 26 is rotated in the up-and-down direction in the inversion frame 24 with respect to the hinge portion, any one of the plurality of reversing variable grooves RG of the reversing movable disk 34, ) Can be aligned with the locking reference groove (LG) of the fixed disk (32) provided in the reverse inversion frame (24).

When the reversing movable frame 26 is rotated by the hinge portion on the basis of the reverse inversion frame 24 so that the locking reference groove LG and the reversing variable groove RG are aligned to meet with each other, LG) and the lock varying groove (RG) are fitted into the locking pin 36 simultaneously. The locking pin 36 is inserted between the reversing variable groove RG of the reversing movable disk 34 provided on the reversing movable frame 26 and the locking reference groove LG of the fixed disk 32 provided on the reversing frame 24 , The angle at which the reversing movable frame 26 is rotated with respect to the reverse inversion frame 24 can be maintained.

The fixed disk 32 provided in the direct inversion frame 24, the inversion movable disk 34 provided in the inversion movable frame 26, and one of the fixed disk 32 and the inverse movable disk 34 A plurality of reversing variable grooves RG provided on the other one of the fixed disk 32 and the inverted movable disk 34 and a plurality of inversion movable grooves RG provided on the other disk, When the locking reference groove LG and the reversing variable groove RG are aligned so as to be brought into contact with each other by the hinge portion being pivoted on the basis of the negative inversion frame 24, the locking reference groove LG and the reversing variable groove RG The lock pin 36 constituting the rotation locking means of the present invention.

On the other hand, as described above, the inversion movable frame 26 is coupled to the inversion frame 24 by the hinge portion so as to be pivotable in the up-and-down direction with reference to the inversion frame 24. The intermediate portions of the front and rear transverse reversing frame bars of the reversing movable frame 26 are connected to the two front and rear transaxle frame bars constituting the reversing frame 24 via the hinge portion.

When the reversing movable frame 26 is rotated upward with reference to the hinge part connected to the reverse inversion frame 24, the upper part of the reverse inversion frame 24 is brought into contact with the lower part of the relay support frame bar and the lower support frame, When the reversing movable frame 26 is rotated in the horizontal direction with respect to the hinge portion connected to the red reversing frame 24, the bottom surface of the reversing movable frame 26 Is brought into contact with the inverting supporter 122 provided in the base inverting frame 22 and the inverting movable frame 26 is held in a state rotated in the horizontal direction. In a state in which the reversing movable frame 26 is rotated in the horizontal direction with reference to the hinge portion connected to the electrifying frame 24, any one of the plurality of transverse reversing frame bars constituting the reversing movable frame 26, The bottom surface of the bar is supported at the upper end of the reversing support bar 122B which is the constitution of the reversing support 122 provided in the base reversing frame 22. [ At this time, the reverse frame bar bottom face of the reversing movable frame 26 is brought into contact with the cushioning member provided at the upper end of the reversing support bar 122B so that the reversing support bar 122B of the reverse support frame 122 contacts the reversing frame 26 The inverted movable frame 26 can be maintained in the state of being rotated in the horizontal direction with respect to the hinge portion in the direct inversion frame 24. [

At this time, a shock absorber is connected between the reversing movable frame 26 and the inverting supporter 122. The reversing support bar 122 includes a reversing support bar 122B provided on the reversing support bar 122B. The reversing support bar 122 has a bottom surface of the reversing frame bar which is in contact with the bottom of the reversing support bar 122B. A shock absorber is connected to each bracket via a hinge. Therefore, a structure in which a shock absorber is connected between the inverting movable frame 26 and the inverting supporter 122 can be adopted. At this time, since the shock absorber is a typical shock absorber, detailed description thereof will be omitted. It is meaningful in the present invention that a shock absorber is connected between the reversing movable frame 26 and the inverting support 122 of the base reversing frame 22. [

On the other hand, the reversing movable frame 26 is provided with a handle. A handle is provided on the front and rear transverse reverse frame bars, which constitute the reversing movable frame (26). At least, a handle is provided on the trailing transverse reversing frame bar. That is, the worker is working in front of the inverter 20, and the handle is provided on the transverse reverse frame bar of the front end closer to the worker's standing position.

The present invention further includes a safety rotation shaft (42) coupled to the upper end of the reversing movable frame (26) through a hinge portion.

Specifically, a hinge boss is provided at an upper end of the reversing movable frame 26. The hinge boss is fixed to the upper end of the reversing movable frame 26 by fastening means such as a bracket and a bolt. The hinge boss is disposed standing up and down in the reverse movable frame 26.

A hinge shaft provided at the distal end of the safety rotation shaft 42 is rotatably engaged with the hinge boss. A hinge shaft is provided in a direction orthogonal to the safety pivot 42 and the hinge shaft is rotatably coupled to a hinge boss provided at the upper end of the reverse movable frame 26. [

The hinge boss of the safety rotating frame 42 and the hinge boss of the reversing movable frame 26 are hinge portions for allowing the safety rotating shaft 42 to rotate in the reversing movable frame 26. [ The reversing movable frame 26 is pivotally rotated (raised and raised in the vertical direction) so as to be erected on the reverse inversion frame 24 with reference to the hinge portion connecting the reversing movable frame 26 and the neutral frame 24 The reversing frame can be pivoted downward of the reversing frame with respect to the hinge portion formed between the upper end of the reversing movable frame 26. [

Further, the present invention further includes an inter-rotation operation lever 46 connected to the safety rotation interspace 42 via the rotation operation connection body 44. [ As described above, the hinge unit that rotatably connects the safety rotation shaft 42 to the reversing movable frame 26 has a hinge shaft connected to the base end of the safety rotation shaft 42 and a hinge shaft connected to the upper end of the reversing movable frame 26 The hinge boss includes a hinge shaft rotatably coupled to the hinge shaft. The hinge boss includes a pinion gear (44A) coaxially coupled to a hinge shaft of the safety rotation shaft (42) And a rack gear 44B provided on the operation lever 46 and engaged with the pinion. At least two or more safety rotation openings 42 are connected to the upper end of the reversing movable frame 26 via a hinge portion and a long bar-shaped rotation opening is provided so as to be spaced from the upper end of the reversing operation frame 26 by a predetermined distance The hinge shaft provided in the safety rotation shaft 42 is connected to the rotation operation lever 46 by another hinge portion and the pinion gear 44A is connected to the respective safety And a rack gear 44B which is coaxially coupled to the hinge axis between the pivots and engaged with the pinion gear 44A is provided inside the pivoted operation lever 46. [

Therefore, when the inter-rotation operation lever 46 is pulled or pushed in the front-rear direction of the reversing movable frame 26, the safety intervening lid 42 is held by the rack gear 44B and the pinion gear 44A, The movable frame 26 may be pivoted on the basis of the hinge portion so as to enter the inner region of the movable frame 26 or out of the inner region of the movable movable frame 26. The operation lever 46 is arranged in a direction parallel to the back and forth direction of the reversing movable frame 26 so that the operator can grasp the interlocking operation lever 46 by hand and push it in the direction of the proximal end of the reversing movable frame 26 (Or pulling in the direction of the front end of the reverse movable frame 26), the safety rotary shaft 42 is pivoted on the basis of the hinge portion so as to come into the reverse movable frame 26, It can be turned outward of. In the present invention, if the inter-rotation operation lever 46 is pulled, the safety intervention space 42 can be configured to be pivoted out of the inversion movable frame 26 by the rack gear and the pinion gear 44A.

A loading supporter (50) is provided in the sector loading space (14) of the loading frame (10). The fixed loading supporter 52 includes a fixed loading supporter 52 and a removable loading supporter 54.

The fixed loading supporter 52 is provided on the bottom of the sector mounting space 14 of the loading frame 10. A fixed loading supporter 52 may be provided on the upper surface of the lower loading frame portion in which the loading frame 10 is configured.

The removable loading supporter 54 is detachably coupled to the bottom of the sector loading space 14 on the side of the fixed loading supporter 52. The removable loading supporter 54 is inserted into the engaging groove of the removable loading supporter 54 provided in the lower loading frame portion of the loading frame 10 so that the removable loading supporter 54 is provided beside the fixed loading supporter 52 . ≪ / RTI >

At this time, the fixed loading supporter 52 and the removable loading supporter 54 are disposed at a position deviating from the guide roller 16 provided at the lower portion of the loading frame 10. A plurality of guide rollers 16 are provided on the lower stacking support frame bar of the stacking support frame 12 coupled to the stacking frame 10, and the fixed loading supporter 52 and the removable loading / (14) formed in the inside of the loading frame (10) so as to be disposed in front of the loading frame (16). That is, the fixed loading supporter 52 and the removable loading supporter 54 are disposed closer to the front side portion of the loading frame 10 than the guide roller 16. The height of the upper end of the fixed loading supporter 52 and the removable loading support is higher than the outer circumferential surface of the guide roller 16. That is, the height of the fixed loading supporter 52 and the height of the removable loading support is slightly higher than the height of the guide roller 16. Further, a space for transferring the material 2 can be secured between the removable loading supporter 54 and one of the stacking support frames 12.

The present invention further includes a jockey (60) arranged to be close to the side portion of the loading frame (10). The jockey 60 is disposed close to the main front side portion of the stack frame 10 such that the jockey 60 includes a jockey body 62 and a lifting movable roll 64 and a lifting support member 66 .

The jacquie body 62 is formed in a hexahedral block shape. The jacquie body 62 includes a rear jockey body 62 and a side jockey body 62 provided in a direction orthogonal to both ends of the rear body body. The jockey lever (61) protrudes behind the jockey (60). The front end portion of the jacquard lever 61 is fixed to the rear jockey body 62 side. At this time, the jockey lever 61 is arranged to be tilted upward when viewed from the side of the jockey body 62.

The lifting movable roll 64 is provided at the upper end of the jacquie body 62 and is brought into contact with the lower end portion of the material 2 protruding forward from the front opening portion provided in the side portion of the loading frame 10. The lifting movable roll 64 is brought into contact with the lower end portion of the material 2 when a part of the material 2 protrudes from the front opening portion formed in the front side portion of the loading frame 10.

A lifting support member (66) is provided at the lower end of the jacquie body (62). The lifting support member 66 is constituted by a member having suitable resilience such as rubber. The lifting support member 66 can be coupled to the lower end of the jacquie body 62 by fastening means such as bolts.

Further, the base end of the jacquie body 62 is further provided with a lifting auxiliary roll 68 so as to be disposed in front of the lifting support member 66. The lifting movable roll 64 is provided at the upper end of the jacquie body 62 and the lifting auxiliary roll 68 is provided at the lower end of the jockey body 62 and the lifting support member 66 are provided on the back side of the lifting auxiliary rolls 68.

The loading frame 10 is formed in a hexahedron frame shape having a front side portion, a rear side portion, a left side portion and a right side portion, and the inside of the loading frame 10 includes a plurality of parallel loading support frames 12 (2) is divided into a plurality of sector stacking spaces (14) by the stacking space (14) and the material (2) And a stopper 18 is provided at a rear side portion of the loading frame 10. The stopper 18 is provided on the lower stacking frame 10, which is a constitution of the stacking frame 10.

At this time, the stopper 18 is disposed between a pair of adjacent stacking support frames 12, and one of the pair of stacking support frames 12 adjacent to each other is provided on the front end of the stopper 18 A loading guide inclined surface 18GF inclined from the support frame 12 toward the other mounting support frame 12 is provided. A loading guide inclined surface 18GF is formed so as to be inclined from one loading support frame 12 toward the other loading support frame 12 when viewed from the top of the loading frame 10. When the two loading support frames 12 are viewed from the top of the loading frame 10 as the left loading support frame 12 and the right loading support frame 12, the loading guide slanting surface 18GF of the stopper 18 And a sloped surface from the right stacking support frame 12 toward the left stacking support frame 12. In other words, as the width between the base ends of the stopper 18 becomes smaller from the right to the left when viewed from above the loading frame 10, the loading guide slanting surface 18GF is displaced from one loading support frame 12 to the other And the inclined surface is inclined toward the loading support frame 12 on the side.

According to the present invention having the above-described configuration, the metal plate comes in a standing state at the front side portion of the loading frame 10, and a metal plate is mounted on the sector loading space portion 14, 2). At this time, in the present invention, the metal plate can be transferred to the loading frame 10 by using the inverter 20, and the metal plate can be loaded on the loading frame 10, The metal plate can be transported to a machining apparatus that performs the operation on the metal plate. Hereinafter, a description will be made of a process in which the metal plate is mounted on the loading frame 10 and loaded and the metal plate is taken out from the loading frame 10 according to the present invention.

1. Loading the metal plate on the loading frame (10)

The reversing movable frame 26 of the inverter 20 keeps the inverted inverted frame 24 lying horizontally with respect to the frame. At this time, in a state in which the reversing movable frame 26 is rotated in the horizontal direction, the reversing support 122 provided on the base reversing frame 22 supports the reversing movable frame 26 from below. The cushioning member provided at the upper end of the inverting support bar 122B of the inverting support base 122 supports the inverted moving frame 26 which is rotated in the horizontal direction from below. At this time, the reversing variable groove RG (which may be referred to as a horizontal retention variable groove RG) provided in the reversing movable disk 34 of the reversing movable frame 26 is fixed to the fixed disk And the lock moving pin 26 is aligned in the horizontal direction by engaging the locking pin 36 at the same time to the reversing variable groove RG and the locking reference groove LG. It can be maintained in a rotated state.

A metal plate is placed on the reversing movable frame 26 which is rotated in the horizontal direction as described above. Only one sheet of the metal sheet may be placed on the reversing movable frame 26 in the horizontal direction or a plurality of sheets of metal sheet may be placed on the reversing frame in the horizontal direction.

Next, the inversion movable frame 26 of the inverter 20 is switched to a state erected based on the reverse inversion frame 24. At this time, when the reverse movable frame 26 is standing up, the reverse inverse frame 24 maintains the inverted movable frame 26 standing up. And supports the bottom surface of the reversing movable frame 26 on which the reflector frame bar, which is the constitution of the electret reversing frame 24, stands. The reverse movable frame 26 is held upright and the metal plate mounted on the reverse movable frame 26 is raised and the lower end of the metal plate is placed under the reverse movable frame 26 in a state in which the metal plate is raised And is placed on the outer peripheral surface of the conveying guide roll. On the other hand, the lower end side bottom surface of the erected movable frame 26 is brought into contact with the cushioning member provided on the base reversing frame 22.

On the other hand, when the reversing movable frame 26 and the metal plate are erected with reference to the inversion frame 24, the safety cone 42 provided at the upper end of the inversion movable frame 26 is biased by its own weight And the upper portion of the metal plate is caught in the safety rotation gap 42. This prevents the metal plate from falling forward in a state in which the reverse movable frame 26 and the metal plate are erected.

The inverter 20 is moved to the front side portion of the loading frame 10 in a state in which the reversing movable frame 26 of the inverter 20 and the metal plate are erected. The caster is provided in the base reversing frame 22 of the inverter 20 so that the inverter 20 and the metal plate can be easily transferred to the loading frame 10 by the caster. At this time, a horizontal caster is provided on the front side (front end portion) of the base reverse frame 22 of the inverter 20 so that the horizontal caster is moved to the front side portion of the base reverse frame 22, It is possible to maintain an appropriate distance between the stacking frame 10 and the inverter 20 by bringing the horizontal casters into contact with the lower stacking frame portion of the stacking frame 10. [

The metal plate standing on the inverter 20 is pushed into each sector loading space 14 of the loading frame 10. The metal plate is pushed into the sector loading space portion 14 through the front opening portion of each sector loading space portion 14 communicated with the front side portion of the loading frame 10. At this time, since the lower end of the metal plate is in contact with the transport guide roll of the inverter 20, when the metal plate is pushed into each sector mounting space 14 of the stacking frame 10, And pushed into each sector loading space portion 14 of the frame 10.

At this time, the lower end of the metal plate is fixed to the sector loading space 14 through the loading movement space between the loading supporter 50 provided below the sector loading space 14 of the loading frame 10 and the one loading support frame 12, (14). Specifically, the metal plate is inserted into the sector mounting space 14 through the loading / moving space between the removable loading supporter 54 and the one support support frame 12.

The jockey 60 is used to stack the lower end of the metal plate on the loading supporter 50 in the loading movement space between the loading supporter 50 and the one support support frame 12 so as to be stacked.

The jockey 60 is brought to the front side portion of the loading frame 10. At this time, a lifting auxiliary roll 68 is provided at the lower end of the jockey 60 so that the jockey 60 can be easily brought to the loading frame 10 side by rolling the lifting auxiliary roll 68 in contact with the ground .

The lifting movable roll 64 provided at the upper end of the jockey 60 is fitted under the lower end of the metal plate and the lifting support member 66 provided at the lower end of the jockey 60 is brought into contact with the ground. That is, when the jockey body 62 is disposed between the lower end of the metal plate and the paper surface in a state of being inclined at a predetermined angle backward from the vertical direction, the lifting movable roll 64 of the jockey 60, the lifting support member 66, Intervene.

Next, when the jockey lever 61 is pushed downward while the jockey lever 61 extending upward to the back of the jockey 60 is held by hand, When the jockey body 62 is raised in the vertical direction and the outer peripheral surface of the lifting movable roll 64 is in contact with the lower end of the lifting movable roll 64, The lower end of the metal plate is lifted up to a position higher than the upper end of the loading supporter 50.

Subsequently, when the metal plate is pushed toward the other loading support frame 12 in the loading movement space between the removable loading supporter 54 and the one loading support frame 12, the lower end of the metal plate is placed on the loading supporter 50 A metal plate can be erected and loaded on each sector loading space 14 of the loading frame 10.

The stopper 18 provided at the front end of each sector loading space 14 of the loading frame 10, that is, the rear side portion of the loading frame 10, There is provided a loading guide inclined surface 18GF which is tilted from one loading support frame 12 toward the other loading support frame 12 out of the loading support frames 12 of the loading plate 12. That is, (The end portion adjacent to the rear side portion of the frame 10) is automatically pushed toward the other loading support frame 12 by the loading guide inclined surface 18GF of the stopper 18. [ The metal plate is pushed into the rear opening portion from the front opening portion of each sector loading space portion 14 of the loading frame 10 so that the leading end portion of the metal plate is in contact with the loading guide inclined surface 18GF of the stopper 18, The leading end portion of the metal plate is automatically pushed along the loading guide inclined surface 18GF of the stopper 18 from one loading support frame 12 toward the other loading support frame 12. It is possible to stack the metal plates one by one in this manner in the sector mounting space portion 14 of each row of the stacking frame 10.

At this time, instead of stacking only one sheet of metal plate in the sector mounting space portion 14 of each row, a plurality of sheet metal plates are stacked up and stacked. The leading ends of the plurality of sheet metal plates are inclined with respect to the loading guide inclined surface 18GF provided at the front end portion of the stopper 18 And automatically stacked on the other support support frame 12 from one support support frame 12 along the other. A plurality of metal plates can be erected and loaded in the sector mounting space portion 14 of each column in this manner.

When the inverters 20 are moved in the lateral direction (i.e., left and right) of the stacking frame 10, the horizontal casters provided in the base inverting frame 22 of the inverter 20 are moved in the stacking direction 10 so that the inverters 20 can be moved smoothly in the left and right direction of the loading frame 10 in a state in which they are spaced apart from each other in the loading frame 10.

2. Take out the metal plate from the stacking frame (10)

The inverter 20 is moved to the front side portion of the stacking frame 10 while the inverting movable frame 26 of the inverter 20 is standing on the basis of the reverse inversion frame 24. At this time, the reversing variable groove RG (which may be referred to as a vertical retracting maintenance inversion variable groove RG) provided in the reversing movable disk 34 of the reversing movable frame 26 is fixed to the fixed disk The reversing movable frame 26 is aligned with the locking reference groove LG provided in the inverting movable groove RG and the locking reference groove LG at the same time, As shown in Fig. The horizontal casters of the inverters 20 are brought into contact with the lower stacking frame portions of the stacking frame 10 so that an appropriate distance can be maintained between the stacking frame 10 and the inverters 20.

Next, the metal plate standing in the sector mounting space 14 of the loading frame 10 is moved to the side of the loading supporter 50. Then, the lower end of the metal plate is raised on the outer circumferential surface of the guide roller 16 at the lower portion of the sector mounting space 14. In this state, the metal plate is inserted into the sector mounting space 14 of the loading frame 10 When the guide roller 16 is rotated by pulling it out of the front opening portion of the front side portion, the metal plate can be pulled toward the inverter 20 side. At this time, since a plurality of conveying guide rolls are provided in the base reversing frame 22 in the inverting unit 20, the lower end of the metal plate is mounted on the outer peripheral surface of the conveying guide roll, The metal plate can be drawn to a desired position of the inverter 20 by the rotation of the feed guide roll. On the other hand, since the safety rotation shaft 42 is brought into the reverse movable frame 26 with its own weight by the weight of the hinge, the upper portion of the metal plate can be caught from the inside of the safety rotation shaft 42, The movable frame 26 does not fall sideways.

3. Move the metal plate to the machining device in the inverter (20)

The inverter 20 is moved by the caster upwards with the machining device. The inverter 20 is supported by a caster in a machining apparatus, for example, a laser cutting machine (not shown), in a state in which the metal plate is held sideways by the reversing movable frame 26 and the base reversing frame 22 of the inverter 20, Move to the side.

When the metal plate is moved to the processing apparatus such as a laser cutter in the inverter 20, the inverter movable frame 26 of the inverter 20 is rotated in the horizontal direction with respect to the reverse inversion frame 24. At this time, in a state in which the reversing movable frame 26 is rotated in the horizontal direction, the reversing support 122 provided on the base reversing frame 22 supports the reversing movable frame 26 from below. The cushioning member provided at the upper end of the inverting support bar 122B of the inverting support base 122 supports the inverted moving frame 26 which is rotated in the horizontal direction from below. As described above, in the state in which the reversing movable frame 26 is laid in the horizontal direction, the reversing variable groove RG (that is, the horizontal retention reversing variable) provided in the reversing movable disk 34 of the reversing movable frame 26 The groove RG is aligned with the locking reference groove LG provided in the fixed disk 32 of the reverse inversion frame 24 and the locking reference groove LG is simultaneously inserted into the inversion variable groove RG and the locking reference groove LG. The reversing movable frame 26 can be held in a horizontally rotated state by engaging the reversing movable frame 26. [

Next, the inter-rotation operation lever 46 is pulled in a state in which the safety intervention space 42 is in the inside of the reversing movable frame 26, and the safety intervention space 42 is inverted by the rack gear and the pinion gear 44A. To be pivoted out of the movable frame (26). The safety rotation lid 42 is rotated to the outer area of the metal plate so that the safety rotation lid 42 does not catch the metal plate when the metal plate is lifted up.

Then, the metal plate placed on the reversing movable frame 26 is moved to a machining apparatus by a vacuum adsorber or the like, so that the metal plate can be machined. For example, the metal plate laid in the horizontal direction can be picked up by the reversing movable frame 26, put on a die of a laser cutting machine, and can perform laser cutting or the like.

The effect of the material stack having improved loading function according to the present invention is as follows.

1. A plurality of metal sheets can be stacked on the loading frame 10 more easily and quickly. When the metal plate is pushed up and inserted into each sector loading space 14 of the loading frame 10, the lower end of the metal plate is supported by the guide rollers 16, and at the same time, the guide rollers 16 are rotated, The front side is automatically piled up by the loading inclined guide surface of the stopper 18 provided in the rear opening portion of each sector mounting space portion 14 so that the rear side of each metal plate, The plurality of metal plates can be mounted on the stacking frame 10 more easily and quickly since each of the metal plates need not be pushed toward the stacking support frame 12 one by one.

2. The lower end of the metal plate is lifted by the push button in a state where the metal plate is inserted into each sector loading space 14 of the loading frame 10 and then the metal plate is pushed toward the loading support frame 12 and the lower end of the metal plate is loaded The lower end portion of the metal plate is held in contact with the loading supporter 50, so that the loading frame 50 can be easily mounted on the loading frame 10, It is prevented that the metal plate comes out from each sector mounting space portion 14 of the metal plate 10 in the forward direction. The metal plate is more stably held by the loading supporter 50 in the stacking space portion 14 of the stacking frame 10 in a stacked state.

3. When the metal plate is pulled out from the sector mounting space portion 14 of the loading frame 10, the metal plate can be pulled out by the guide roller 16 after pushing the metal plate to the side of the loading support, It is also convenient to use.

4. The loading supporter 50 provided in the loading frame 10 is configured to include a fixed loading supporter 52 and a removable loading supporter 54. When the removable loading supporter 54 is lifted, The movement space secured between the support frame 12 and the fixed supporter is widened so that the metal plate is inserted into the sector mounting space portion 14 of the loading frame 10 or taken out from the sector mounting space portion 14 It is easier than this. It is characterized in that it can further increase the space used for loading and unloading metal plates.

5. In a state in which the reversing movable frame 26 is erected on the basis of the reversing frame 24 in the inverter 20, the reversing variable groove RG of the reversing movable disk 34 and the locking reference of the fixed disk 32 If the lock pin 36 is fitted to the groove LG at the same time, the reverse movable frame 26 and the metal plate are held in a state of being held securely, so that it is more stable when the metal plate is moved up and moved.

6. In a state in which the reversing movable frame 26 is rotated in the inverter 20 so as to be laid horizontally with respect to the reversing frame 24, the inverted variable groove RG of the reversing movable disk 34 and the fixed disk Since the reverse movable frame 26 and the metal plate are held in a state in which they are horizontally laid by simultaneously fitting the locking pins 36 to the locking reference grooves LG of the metal plate 32, More stable.

7. The reversing movable disk 34 of the reversing movable frame 26 is provided with at least three reversing variable grooves RG so that the inversion movable frame 26 is in the fully erected state and in the horizontally laid- The inverted movable frame 26 and the metal plate can be moved or stacked at desired angles.

8. When the reversing movable frame 26 is laid horizontally, the cushioning member provided on the reversing support 122 of the base reversing frame 22 contacts the bottom surface of the reversing movable frame 26, It is possible to prevent the reverse movable support frame 122 from being struck with an excessively large impact on the inverted support frame 122 when the movable frame 26 is rotated in the horizontal direction. Therefore, when the reverse movable frame 26 is laid horizontally, And to prevent burn-out of the inverter 20.

9. Even when the reversing movable frame 26 stands upright, the cushioning member provided on the base reversing frame 22 is brought into contact with the bottom surface of the reversing movable frame 26, so that the reversing movable frame 26 is raised It is possible to prevent the reverse support frame 122 from being struck with excessive excessive impact on the direct support frame bar of the reverse inversion frame 24 at the time of rotation, 20). ≪ / RTI >

10. A shock absorber is connected between the reversing movable frame 26 and the inverting supporter 122 of the base reversing frame 22 so that the reversing movable frame 26 is shifted relative to the hinge part connected to the reversing frame 24 It is possible to prevent the case from being rapidly raised or horizontally rotated, which is safer than the operation of the inverter 20.

The specific embodiments of the present invention have been described above. It is to be understood, however, that the scope and spirit of the present invention is not limited to these specific embodiments, and that various modifications and changes may be made without departing from the spirit of the present invention. If you have, you will understand.

Therefore, it should be understood that the above-described embodiments are provided so that those skilled in the art can fully understand the scope of the present invention. Therefore, it should be understood that the embodiments are to be considered in all respects as illustrative and not restrictive, The invention is only defined by the scope of the claims.

2. Material 10. Stacking frame
12. Stacking support frame 14. Sector loading space
16. Guide roller 18. Stopper
20. Reversing 22. Base Inversion Frame
24. Select reverse frame 26. Reverse reverse frame
32. Fixed disk 34. Reversing movable disk
36. Locking Pin 42. Safety Meeting
44. Rotating operation connector 46. Rotating operation lever
50. Loading supporter 52. Fixed loading supporter
54. Removable loading supporter 60. Jockey
62. jockey body 64. lifting movable roll
66. lifting support member 68. lifting auxiliary roll

Claims (12)

A stacking frame (10) having a loading space inside and a communicating with an opening formed in a side of the loading space;
A plurality of stacking support frames (12) vertically arranged in the stacking frame (10);
A plurality of sector loading space portions (14) formed by the loading support frame (12) so that the loading space portion of the loading frame (10) is divided;
And an inverter (20) arranged to be close to the side portion of the stacking frame (10)
The inverter (20)
A base reversing frame 22 disposed adjacent to the sector mounting space portion 14 formed inside the loading frame 10;
A reverse inversion frame 24 extending upward from the base reverse frame 22;
And a reversing movable frame (26) coupled to the inversion frame (24) by a hinge part so as to be pivotable in the vertical direction with respect to the direct inversion frame (24)
And rotation locking means for retaining the angle of the inverted movable frame (26) rotated in the vertical direction on the basis of the hinge portion (24)
Wherein the rotation locking means comprises:
A fixed disk 32 provided in the direct inversion frame 24;
An inversion movable disk (34) connected to the reversing movable frame (26) and arranged to face the fixed disk (32);
A locking reference groove LG provided on any one of the fixed disk 32 and the reversing movable disk 34;
A plurality of reversing variable grooves (RG) provided on the other one of the fixed disk (32) and the reversing movable disk (34);
When the reversing movable frame 26 is rotated by the hinge portion on the basis of the red reversing frame 24 so that the locking reference groove LG and the reversing variable groove RG are aligned with each other, And a locking pin (36) which is inserted into the reference groove (LG) and the reversing variable groove (RG) at the same time.
delete delete The method according to claim 1,
And a safety rotation shaft (42) coupled to an upper end of the reversing movable frame (26) through a hinge portion, wherein the reversing movable frame (26) is erected on the hinge portion And the safety interlocking member (42) is pivoted downward of the reversing frame with respect to the hinge unit when it is pivoted.
5. The method of claim 4,
And an inter-rotation operation lever (46) connected to the safety rotation gap (42) via a rotation operation connection body (44).
The method according to claim 1,
At least one guide roller 16 is provided at a lower portion of the sector mounting space 14 partitioned by the stacking support frame 12 along the front side portion and the rear side portion of the stacking frame 10, The lower end of the plate-like material 2 loaded on the sector mounting space 14 is configured to contact the outer circumferential surface of the guide roller 16, and the guide roller 16 is provided with a tapered portion 16T , And a loading supporter (50) is provided in the sector loading space (14) of the loading frame (10).
The method according to claim 6,
The loading supporter (50)
A fixed loading supporter (52) provided on the bottom of the sector loading space (14) of the loading frame (10);
And a removable loading supporter 54 detachably coupled to a bottom surface of the sector mounting space 14 at a side of the fixed loading supporter 52,
The fixed loading supporter 52 and the removable loading and unloading supporter 54 are mounted on the loading frame 10 so as to be disposed at positions deviating from the guide rollers 16 provided below the loading frame 10 A material stack with improved loading function that features.
The method according to claim 1,
And a jockey (60) arranged close to the side portion of the stacking frame (10)
The jockey (60)
A jacquie body 62 in which the jacquie lever 61 protrudes rearward;
A lifting movable roll (64) provided at a tip end of the jockey body (62) and brought into contact with a lower end portion of a material (2) protruding forward from a front opening portion provided in the side portion of the stacking frame (10);
And a lifting support member (66) provided at a base end of the jacquie body (62).
The method according to claim 1,
The loading frame 10 is formed in a hexahedron frame shape having a front side portion, a rear side portion, a left side portion and a right side portion, and the inside of the loading frame 10 includes a plurality of parallel loading support frames 12 The loading space portion is divided into a plurality of sector loading space portions 14 and the material 2 enters the respective sector loading space portion 14 from the front side portion of the loading frame 10, And a stopper 18 is provided at a rear side portion of the stacking frame 10. The stopper 18 is disposed between a pair of adjacent stacking support frames 12, The front end of the stopper 18 is provided with a loading guide sloped surface inclined from one of the pair of stacking support frames 12 adjacent to each other to the other stacking support frame 12 18GF) is provided on the side of the material stacking table.
A stacking frame (10) having a stacking space portion inside and a communicating portion with an opening portion formed in a side portion of the stacking space portion;
A plurality of stacking support frames (12) vertically arranged in the stacking frame (10);
A plurality of sector loading space portions (14) formed by the loading support frame (12) so that the loading space portion of the loading frame (10) is divided;
And a loading supporter (50) provided in the sector loading space (14) of the loading frame (10)
The loading supporter (50)
A fixed loading supporter (52) provided on the bottom of the sector loading space (14) of the loading frame (10);
And a removable loading supporter 54 detachably coupled to a bottom surface of the sector mounting space 14 at a side of the fixed loading supporter 52,
The fixed loading supporter 52 and the removable loading and unloading supporter 54 are mounted on the loading frame 10 so as to be disposed at positions deviating from the guide rollers 16 provided below the loading frame 10 A material stack with improved loading function that features.
delete 11. The method of claim 10,
A stopper 18 is provided at a rear side portion of the stacking frame 10 and the stopper 18 is disposed between a pair of adjacent stacking support frames 12, Wherein a loading guide slanting surface (18GF) inclined toward one of the other stacking support frames (12) is provided on one of the pair of stacking support frames (12) adjacent to each other Material stack with improved loading capability.

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