KR20180068399A - Apparatus for loading steel plate of coil type - Google Patents

Abstract

Disclosed is an apparatus to load a steel plate coil, capable of loading the steel plate coil in various directions. According to one embodiment of the present invention, the apparatus to load a steel plate coil comprises: a base plate; a first basic support block disposed on the base plate, and including a 1-1 slope inclined in a first direction and a 1-2 slope inclined in a second direction different from the 1-1 direction; a second basic support block disposed on the base plate by being mutually spaced apart from the first basic support block, and including a 2-1 slope inclined in the first direction and a 2-2 slope inclined in the second direction; a third basic support block disposed on the base plate by being mutually spaced apart from the first and second basic support blocks, and including a 3-1 slope inclined in the first direction and a 3-2 slope inclined in the second direction; and a fourth basic support block disposed on the base plate by being mutually spaced apart from the first to third basic support blocks, and including a 4-1 slope inclined in the first direction and a 4-2 slope inclined in the second direction.

Description

[0001] APPARATUS FOR LOADING STEEL PLATE OF COIL TYPE [0002]

Embodiments of the invention relate to coil steel sheet loading techniques.

Generally, a cold rolled steel sheet or a hot rolled steel sheet is stored and transported in a coil shape in order to facilitate movement. Such a coil-shaped steel plate (coil steel plate) is mainly transported by a freight car. In order to prevent the coil steel plate from flowing, the freight car is provided with supports on both sides in the longitudinal direction of the freight. In this case, since the coil steel plates must be stacked and unloaded in one direction, there are problems in loading and unloading, and various types of coil steel sheets can not be transported.

Korean Patent Publication No. 10-2004-0009910 (January 31, 2004)

An embodiment of the present invention is to provide a coil steel sheet stacking apparatus capable of stacking coil steel sheets in various directions.

According to an embodiment of the present invention, there is provided an apparatus for loading a coil steel plate, comprising: a base plate; A first base supporting block provided on the base plate and having a first oblique face inclined along the first direction and a 1-2 first oblique face inclined along a second direction different from the first direction, ; A second-1 sloped surface formed on the base plate so as to be spaced apart from the first basic support block and inclined along the first direction, and a 2-2 sloped surface inclined along the second direction; A second basic support block; A third base slope formed on the base plate so as to be spaced apart from the first base support block and the second base support block and inclined along the first direction, A third basic support block having a third-2 sloped surface; And a fourth inclined surface which is formed on the base plate so as to be spaced apart from the first basic supporting block to the third basic supporting block and which is inclined along the first direction and a fourth inclined surface which is inclined along the second direction And a fourth basic supporting block having a fourth-2 sloped surface.

Wherein the first base support block is provided at a left upper corner area of the base plate and the second base support block is provided at a right upper corner area of the base plate, And the fourth base support block may be provided in the lower left corner area of the base plate.

Wherein the coil steel plate is stacked on the base plate in the longitudinal direction or the width direction of the base plate and when the coil steel plate is stacked in the longitudinal direction of the base plate, 4-1 inclined surfaces and the lower rear end of the coil steel plate is seated on the 2-1 sloping surface and the 3-1 sloping surface and is supported in the width direction of the base plate, And a lower rear end of the coiled steel plate may be seated and supported on the third -2 sloped surface and the fourth 4-2 sloped surface, and the lower front end of the coiled steel plate may be supported on the first 1-2 sloped surface and the 2nd -2 sloped surface, .

The coil steel plate stacking apparatus may further include a rotation support block rotatably coupled to at least one of the first basic support block and the fourth basic support block.

Wherein the rotation support block includes a first rotation support block rotatably coupled to the first basic support block and adapted to be seated on the first 1-1 slope or the 1-2 slope according to the rotation; A second rotation support block rotatably coupled to the second base support block and adapted to be seated on the second-1 slope surface or the second -2 slope surface in accordance with the rotation; A third rotary support block rotatably coupled to the third basic support block and adapted to be seated on the 3rd-1st incline surface or the 3rd-2nd incline surface according to the rotation; And a fourth rotary support block rotatably coupled to the fourth basic support block and adapted to be seated on the 4-1 sloped surface or the 4-2 sloped surface according to the rotation.

Wherein the first rotation support block is rotatably coupled to the first basic support block with a first intersecting line area where the first 1-1 slope and the 1-2 slope meet, Wherein the block is rotatably coupled to the second basic support block with the second intersecting line area where the 2-1 slope and the 2-2 slope meet as the rotation axis, Wherein the fourth rotation supporting block is rotatably coupled to the third basic supporting block with the third intersecting line area where the 3-1 sloped surface and the 3-2 sloped surface meet as rotation axes, And the fourth basic supporting block may be rotatably coupled to the fourth basic supporting block with the fourth intersecting line area where the fourth-2 slanted surface meets as a rotation axis.

The first rotation support block is rotated to be seated on the 1-1 slope surface and the second rotation support block is rotated so as to be seated on the 2-1 slope surface, And the fourth rotating support block is rotated so as to be seated on the 4-1 sloped surface, and the coil steel plate is stacked on the base plate in the longitudinal direction of the base plate, And a lower front end portion of the coil steel plate is seated and supported by the first rotation support block and the fourth rotation support block, .

The first rotation support block is rotated to be seated on the first 1-2 slope surface and the second rotation support block is rotated to be seated on the 2-2 slope surface, And the fourth rotating support block is rotated so as to be seated on the fourth-2 slanted surface, and the coil steel plate is mounted on the base plate in the width direction of the base plate, A lower front end portion of the coil steel plate is seated and supported by the first rotation support block and the second rotation support block and a lower rear end portion of the coil steel plate is seated on the third rotation support block and the fourth rotation support block, .

The rotation support block includes: a body; And at least one coupling assembly provided on the body, the coupling assembly being rotatably coupled to the body and the basic support block, wherein the coupling assembly includes: a coupling support portion protruding from the body toward the base support block; An engaging member coupled to the engaging and supporting portion and projecting toward the upper or lower side of the body; And a link portion rotatably coupled to the coupling member and the basic support block, respectively.

Wherein the link portion includes: a coupling member receiving portion in which the coupling member is inserted and rotatably engaged; A link coupling part rotatably coupled with the corresponding base support block in a coupling groove formed in the base support block; And a coupling portion formed along the longitudinal direction of the coupling support portion and having the coupling member receiving portion at one side thereof and the link coupling portion at the other side of the other side to connect the coupling member receiving portion and the link coupling portion.

The coil steel plate stacking apparatus may further include guide rails formed on both side surfaces of the base plate along the longitudinal direction of the base plate and coupling the coil steel plate stacking apparatus to the coil steel plate transporter.

According to another aspect of the present invention, there is provided an apparatus for loading a coil steel plate, comprising: a base plate; At least one basic supporting block provided on the base plate and having a first inclined surface inclined along the width direction of the base plate and a second inclined surface inclined along the longitudinal direction of the base plate; And at least one rotation support block rotatably coupled to the base support block to support the coil steel plate.

Wherein the rotation support block is rotatably coupled to the basic support block with an intersecting line area where the first inclined face and the second inclined face meet as rotation axes and is seated on the first inclined face or the second inclined face .

The rotation support block includes: a body; And at least one coupling assembly provided on the body, the coupling assembly rotatably coupled to the body and the base support block, wherein the coupling assembly includes: a coupling support portion protruding from the body toward the base support block; An engaging member coupled to the engaging and supporting portion and projecting toward the upper or lower side of the body; And a link portion rotatably coupled to the coupling member and the basic support block, respectively.

Wherein the link portion includes: a coupling member receiving portion in which the coupling member is inserted and rotatably engaged; A linking portion rotatably coupled to the base support block in a coupling groove formed in the base support block; And a coupling portion formed along the longitudinal direction of the coupling support portion and having the coupling member receiving portion at one side thereof and the link coupling portion at the other side of the other side to connect the coupling member receiving portion and the link coupling portion.

The coil steel plate loading apparatus may further include a cut-out portion formed at one end of the coupling member receiving portion and having a part of an outer circumferential surface of the coupling member receiving portion cut off; And a stopper protruding from the engaging member and provided in a part of an outer circumferential surface of the engaging member and restricting the rotation of the rotary support block in accordance with the rotation of the rotary support block, have.

According to the embodiment of the present invention, the first rotation support block, the second rotation support block, the third rotation support block, the third rotation support block, the third rotation support block, the third rotation support block, And the fourth rotary support block are rotatably engaged with each other, the coil steel plate can be stacked in the width direction or the longitudinal direction of the base plate, respectively.

1 is a view showing a coil steel sheet stacking apparatus according to an embodiment of the present invention;
Fig. 2 is a view showing a state in which the rotation supporting blocks are omitted in Fig. 1
3 is a plan view showing a state in which the coil steel plate is loaded in the longitudinal direction of the base plate in the coil steel plate stacking apparatus according to the embodiment of the present invention.
4 is a plan view showing a state in which the coil steel plate is loaded in the width direction of the base plate in the coil steel plate stacking apparatus according to the embodiment of the present invention.
5 is a side view showing a first rotary support block according to an embodiment of the present invention;
6 is a view illustrating a state in which a first rotating support block and a first basic support block are coupled according to an embodiment of the present invention;
7 to 9 are views showing a state in which the first rotary support block is coupled to the first basic support block and rotated according to an embodiment of the present invention

Hereinafter, specific embodiments of the present invention will be described with reference to the drawings. The following detailed description is provided to provide a comprehensive understanding of the methods, apparatus, and / or systems described herein. However, this is merely an example and the present invention is not limited thereto.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the accompanying drawings. In the following description, well-known functions or constructions are not described in detail since they would obscure the invention in unnecessary detail. The following terms are defined in consideration of the functions of the present invention, and may be changed according to the intention or custom of the user, the operator, and the like. Therefore, the definition should be based on the contents throughout this specification. The terms used in the detailed description are intended only to describe embodiments of the invention and should in no way be limiting. Unless specifically stated otherwise, the singular form of a term includes plural forms of meaning. In this description, the expressions "comprising" or "comprising" are intended to indicate certain features, numbers, steps, operations, elements, parts or combinations thereof, Should not be construed to preclude the presence or possibility of other features, numbers, steps, operations, elements, portions or combinations thereof.

On the other hand, directional terms such as the top, bottom, one side, the other, and the like are used in connection with the orientation of the disclosed figures. Since the elements of the embodiments of the present invention can be positioned in various orientations, directional terms are used for illustrative purposes and not limitation.

Also, the terms first, second, etc. may be used to describe various components, but the components should not be limited by the terms. The terms may be used for the purpose of distinguishing one component from another. For example, without departing from the scope of the present invention, the first component may be referred to as a second component, and similarly, the second component may also be referred to as a first component.

FIG. 1 is a view showing a coil steel sheet stacking apparatus according to an embodiment of the present invention, and FIG. 2 is a view illustrating a state in which rotary support blocks are omitted in FIG.

1 and 2, the coil steel plate stacking apparatus 100 includes a base plate 102, a first basic support block 104, a second basic support block 106, a third basic support block 108, The first rotation support block 112 may include a fourth basic support block 110, a first rotation support block 112, a second rotation support block 114, a third rotation support block 116 and a fourth rotation support block 118 .

The base plate 102 is a base portion of the coil steel plate loading apparatus 100. In an exemplary embodiment, the base plate 102 may be coupled to a coil steel plate transporter (not shown). On both sides of the base plate 102, guide rails 121 may be provided along the longitudinal direction of the base plate 102. The base plate 102 can be coupled to a coil steel plate transportation car (not shown) through the guide rail 121 to form a bottom portion of a coil steel plate transportation car (not shown). However, the present invention is not limited to this, and the base plate 102 may be integrally formed with a coil steel plate transportation car (not shown) to form a bottom portion of a coil steel plate transportation car (not shown). The base plate 102 may be provided as a rectangular plate, but the shape of the base plate 102 is not limited thereto.

The first base support block 104 is a structure having a predetermined height and is provided on the upper surface of the base plate 102. In an exemplary embodiment, the first base support block 104 may be provided in the upper left corner region of the base plate 102. The first base support block 104 includes a first 1-1 sloped surface 104a formed to be inclined along the width direction of the base plate 102 and a 1-2 first sloped surface 104b formed obliquely along the longitudinal direction of the base plate 102, . ≪ / RTI > The first 1-1 slope 104a and the 1-2 slope 104b can support the first rotation support block 112 according to the rotation of the first rotation support block 112. [ The first protecting member 123 may be formed on the first-first inclined surface 104a and the first-second inclined surface 104b, respectively. The first protection member 123 can protect the first basic support block 104 from an external impact. In addition, the first protection member 123 can prevent the first rotation support block 112 (or the coil steel plate) from slipping. The first protection member 123 may be made of a rubber material or cloth material.

The second base support block 106 is a structure having a predetermined height and is provided on the upper surface of the base plate 102. In the exemplary embodiment, the second base support block 106 may be provided in the upper right corner area of the base plate 102. The second base support block 106 may be spaced apart from the first base support block 104. The second base support block 106 may be provided symmetrically with respect to the first base support block 104 with respect to the center axis in the width direction of the base plate 102. The second base support block 106 includes a second -1 slope 106a inclined along the width direction of the base plate 102 and a 2-2 slope 106b sloped along the longitudinal direction of the base plate 102. [ . ≪ / RTI > The second -2 sloped surface 106b and the first 1-2 sloped surface 104b may be formed facing each other. The 2-1 slant face 106a and the 2-2 slant face 106b can support the second rotation support block 114 in accordance with the rotation of the second rotation support block 114. [ A first protection member 123 may be formed on the 2-1 slope 106a and the 2-2 slope 106b, respectively.

The third base support block 108 is a structure having a predetermined height and is provided on the upper surface of the base plate 102. In the exemplary embodiment, the third base support block 108 may be provided in the lower right corner area of the base plate 102. The third base support block 108 may be spaced apart from the second base support block 106. The third base support block 108 may be provided symmetrically with the second base support block 106 with respect to the longitudinal center axis of the base plate 102. The third base support block 108 includes a 3-1 sloped surface 108a inclined along the width direction of the base plate 102 and a 3-2 sloped surface 108b inclined along the longitudinal direction of the base plate 102, . ≪ / RTI > The 3-1 sloped surface 108a may be formed facing the 2-1 sloped surface 106a. The third-first inclined surface 108a and the third-second inclined surface 108b can support the third rotation supporting block 116 in accordance with the rotation of the third rotation supporting block 116. A first protection member 123 may be formed on the 3-1 sloped surface 108a and the 3-2 sloped surface 108b, respectively.

The fourth base support block 110 is a structure having a predetermined height and is provided on the upper surface of the base plate 102. In an exemplary embodiment, the fourth base support block 110 may be provided in the lower left corner region of the base plate 102. The fourth base support block 110 may be spaced apart from the third base support block 108. The fourth base support block 110 may be provided symmetrically with the third base support block 108 with respect to the center axis in the width direction of the base plate 102. The fourth base support block 110 may be provided symmetrically with respect to the first base support block 104 with respect to the longitudinal center axis of the base plate 102. The fourth base support block 110 includes a 4-1 sloped surface 110a inclined along the width direction of the base plate 102 and a 3-2 sloped surface 110b inclined along the longitudinal direction of the base plate 102, . ≪ / RTI > The 4-1 sloped surface 110a may be formed facing the 1-1 sloped surface 104a. The 4-2-slanted surface 110b may be formed facing the 3-2-slanted surface 108b. The 4-1 slanting surface 110a and the 4-2 slanting surface 110b can support the fourth rotation supporting block 118 in accordance with the rotation of the fourth rotation supporting block 118. [ A first protection member 123 may be formed on the 4-1 slope 110a and the 4-2 slope 110b, respectively.

The first rotation support block 112 is rotatably coupled to the first basic support block 104. [ Specifically, the first rotation support block 112 is disposed along the first intersection line where the first 1-1 slope 104a and the 1-2 slope 104b of the first basic support block 104 meet, May be rotatably coupled to the block 104. The first rotation support block 112 may be seated on the first-first inclined plane 104a or the first-second inclined plane 104b as the first rotation support block 112 rotates about the first intersection line.

In an exemplary embodiment, the first rotatable support block 112 may be provided in the form of a triangular prism. That is, the first rotary support block 112 has a triangular shape including a top surface 112a, a bottom surface 112b, a first side surface 112c, a second side surface 112d, and a third side surface 112e, It can be provided in the form of a column. Here, a line where the first side face 112c and the second side face 112d meet may be formed corresponding to the first crossing line. The first rotation supporting block 112 rotates the first intersection line on the rotation axis so that the first side face 112c is seated on the 1-1 slope face 104a or the second side face 112d contacts the 1-2 slope face 104b As shown in Fig. The third side surface 112e may be provided with a handle for holding and rotating the first rotary support block 112 by the user. However, the shape of the first rotation support block 112 is not limited thereto, and various types of structures having faces that can face the first-first inclined face 104a and the first-second inclined face 104b, respectively, Lt; / RTI >

The second protection member 125 may be formed on the first side surface 112c and the second side surface 112d of the first rotation support block 112, respectively. The second protection member 125 can protect the first rotation support block 112 from an external impact. The second protection member 125 can prevent the coil steel plate from slipping when the coil steel plate is seated on the first rotation support block 112. The second protection member 125 may be made of a rubber material or cloth material.

The second rotary support block 114 is rotatably coupled to the second basic support block 106. Specifically, the second rotation support block 114 is supported by the second basic support block 106 along a second intersection line where the second-1 slope 106a and the second -2 slope 106b of the second basic support block 106 meet, May be rotatably coupled to the block 106. The second rotary support block 114 may be seated on the second-1 slanted surface 106a or the second-2 slanted surface 106b as it rotates about the second intersecting line.

In an exemplary embodiment, the second rotatable support block 114 may be provided in the form of a triangular prism. That is, the second rotary support block 114 is provided in the form of a triangular pillar including upper, lower, first, second, and third sides of a triangular shape like the first rotary support block 112 . In this case, when a line where the first side and the second side of the second rotation support block 114 meet is formed corresponding to the second intersection line, the second rotation support block 114 rotates the second intersection line about the rotation axis The first side may be seated on the second-1 slope 106a or the second side may be seated on the second -2 slope 106b. The third side of the second rotation support block 114 may be provided with a handle for holding and rotating the second rotation support block 114 by the user. However, the shape of the second rotation support block 114 is not limited thereto, and various types of structures having faces that can face the 2-1 sloped surface 106a and the 2-2 sloped surface 1064b, respectively, Lt; / RTI > The second protection member 125 may be formed on the first side surface and the second side surface of the second rotation support block 114, respectively.

The third rotary support block 116 is rotatably coupled to the third basic support block 108. Specifically, the third rotary support block 116 is supported by the third basic support block 108 along a third intersection line where the third -1 slope 108a of the third basic support block 108 meets the 3rd -2 slope 108b, May be rotatably coupled to the block (108). The third rotary support block 116 may be seated on the 3-1 sloped surface 108a or the 3-2 sloped surface 108b as it rotates about the third intersection line as a rotation axis.

In an exemplary embodiment, the third rotatable support block 116 may be provided in the form of a triangular pillar. That is, the third rotary support block 116 is provided in the form of a triangular pillar including a top surface, a bottom surface, a first side surface, a second side surface, and a third side surface, . In this case, when the line where the first side and the second side of the third rotary support block 116 meet is formed corresponding to the third intersection line, the third rotation support block 116 rotates the third intersection line on the rotation axis The first side may be seated on the third -1 slope 108a or the second side may be seated on the 3rd -2 slope 108b. The third side of the third rotation support block 116 may be provided with a handle for holding and rotating the third rotation support block 116 by the user. However, the shape of the third rotating support block 116 is not limited thereto, and various types of structures having faces that can face the 3rd-1st slant face 108a and the 3rd -2 slant face 108b, respectively, Lt; / RTI > The second protection member 125 may be formed on the first side surface and the second side surface of the third rotation support block 116, respectively.

The fourth rotational support block 118 is rotatably coupled to the fourth basic support block 110. Specifically, the fourth rotary support block 118 is disposed along the fourth intersection line where the fourth-first inclined surface 110a and the fourth-second inclined surface 110b of the fourth basic support block 110 meet, May be rotatably coupled to the block 110. The fourth rotary support block 118 may be seated on the 4-1 sloped surface 110a or the 4-2 sloped surface 110b as it rotates about the fourth intersection line as a rotation axis.

In an exemplary embodiment, the fourth rotary support block 118 may be provided in the form of a triangular pillar. That is, the fourth rotary support block 118 is provided in the form of a triangular pillar including a top surface, a bottom surface, a first side surface, a second side surface, and a third side surface, . Here, when a line where the first side and the second side of the fourth rotary support block 118 meet is formed corresponding to the fourth intersection line, the fourth rotation support block 118 rotates the fourth intersection line on the rotation axis The first side may be seated on the 4-1 slope 110a or the second side may be seated on the 4-2 slope 110b. The third side of the fourth rotation support block 118 may be provided with a handle for holding and rotating the fourth rotation support block 118 by the user. However, the shape of the fourth rotation supporting block 118 is not limited to this, and various types of structures having surfaces that can face the 43-1 sloped surface 110a and the 4-2 sloped surface 110b, respectively, Lt; / RTI > The second protection member 125 may be formed on the first side surface and the second side surface of the fourth rotation supporting block 118, respectively.

According to the embodiment of the present invention, the first basic support block 104, the second basic support block 106, the third basic support block 108, The first rotating support block 112, the second rotation support block 114, the third rotation support block 116 and the fourth rotation support block 118 are rotatably engaged with each other so that the coil steel plate is supported in the width direction of the base plate 102 Or in the longitudinal direction, respectively. This will be described with reference to FIG. 3 and FIG.

3 is a plan view showing a state in which the coil steel plate is loaded in the longitudinal direction of the base plate in the coil steel sheet stacking apparatus according to the embodiment of the present invention.

3, the first rotary support block 112 is rotated so that the first side of the first rotary support block 112 is seated on the 1-1 slope 104a of the first basic support block 104 . The second rotary support block 114 may be rotated so that the first side surface of the second rotary support block 114 is seated on the second-1 slanted surface 106a of the second basic support block 106. [ The third rotary support block 116 may be rotated so that the first side of the third rotary support block 116 is seated on the third -1 slant face 108a of the third basic support block 108. [ The fourth rotary support block 118 may be rotated so that the first side of the fourth rotary support block 118 is seated on the 4-1 slant face 110a of the fourth basic support block 110. [

In this state, the coil steel plate 50 can be loaded in the longitudinal direction of the base plate 102. The lower front end portion of the coil steel plate 50 is supported by being supported on the second side surfaces of the first rotation support block 112 and the fourth rotation support block 118 respectively and the lower rear end portion of the coil steel plate 50 is supported by the second And is supported on the second side surfaces of the rotation support block 114 and the third rotation support block 116, respectively. At this time, the second side surfaces of the first rotation support block 112 and the fourth rotation support block 118 are inclined toward the front end side of the coil steel plate 50, and the second rotation support block 114 and the third rotation support block 118 Since the second side face of the coil steel plate 116 is inclined toward the rear end side of the coil steel plate 50, the coil steel plate 50 can be stably supported therebetween.

4 is a plan view showing a state in which a coil steel plate is loaded in a width direction of a base plate in a coil steel plate loading apparatus according to an embodiment of the present invention.

4, the first rotation support block 112 is rotated so that the second side of the first rotation support block 112 is seated on the first 1-2 slope 104b of the first basic support block 104 . The second rotary support block 114 may be rotated so that the second side of the second rotary support block 114 is seated on the second-2 inclined face 106b of the second basic support block 106. [ The third rotary support block 116 may be rotated so that the second side surface of the third rotary support block 116 is seated on the third-2 inclined surface 108b of the third basic support block 108. [ The fourth rotary support block 118 may be rotated so that the second side surface of the fourth rotary support block 118 is seated on the fourth-2 inclined surface 110b of the fourth basic support block 110. [

In this state, the coil steel plate 50 can be loaded in the width direction of the base plate 102. [ Here, the lower front end portion of the coil steel plate 50 is supported by being respectively mounted on the first side surfaces of the first rotation support block 112 and the second rotation support block 114, and the lower rear end portion of the coil steel plate 50 is supported by the third And is supported on the first side surfaces of the rotation support block 116 and the fourth rotation support block 118, respectively. At this time, the first side faces of the first rotation support block 112 and the second rotation support block 114 are inclined toward the front end side of the coil steel plate 50, and the third rotation support block 116 and the fourth rotation support block 114 Since the first side surface of the coiled plate 118 is inclined toward the rear end side of the coiled steel plate 50, the coiled steel plate 50 can be stably supported therebetween.

The coil steel plate 50 is supported on the base plate 102 by the first to fourth basic support blocks 104 to 110 without the first to fourth rotation support blocks 112 to 118. [ In the longitudinal direction and the width direction, respectively. 2, when the coil steel plate 50 is stacked in the longitudinal direction of the base plate 102, the lower front end portion of the coil steel plate 50 is connected to the first 1-1 slope 104a of the first basic support block 104 And the 4-1 slanting surface 110a of the fourth basic support block 110, as shown in FIG. The lower rear end portion of the coil steel plate 50 is seated on the 2-1 sloped surface 106a of the second basic support block 106 and the 3-1 sloped surface 108a of the third basic support block 108, .

When the coil steel plate 50 is mounted in the width direction of the base plate 102, the lower front end portion of the coil steel plate 50 is connected to the first 1-2 slope 104b of the first basic support block 104 and the second And can be seated and supported on the second -2 slanted surface 106b of the basic support block 106. [ The lower rear end portion of the coil steel plate 50 is seated on the third -2 inclined face 108b of the third basic support block 108 and the 4-2 inclined face 110b of the fourth basic support block 110, .

FIG. 5 is a side view showing a first rotary support block according to an embodiment of the present invention, FIG. 6 is a view illustrating a state where a first rotary support block and a first basic support block are coupled according to an embodiment of the present invention to be. Here, the first rotation support block 112 is described for convenience of explanation, and the second rotation support block 114 to the fourth rotation support block 118 have the same or similar structure.

5 and 6, the first rotary support block 112 may include a body 131, a first engagement assembly 133, and a second engagement assembly 135, and a handle 137 have.

The body 131 is a portion forming the outer shape of the first rotation support block 112. The body 131 may be a structure having a first side and a second side facing the first 1-1 slope 104a and the 1-2 slope 104b of the first basic support block 104, respectively. For example, the body 131 may be in the form of a triangular prism, but is not limited thereto.

The first coupling assembly 133 may engage the upper side of the first rotary support block 112 and the upper side of the first basic support block 104. The first coupling assembly 133 may include a first coupling support 141, a first coupling member 143, a first link portion 145, and a first stopper 147.

The first engagement support portion 141 may protrude outward from the upper end of the body 131. The first engaging member 143 can be engaged with the first engaging and supporting portion 141. The first engaging member 143 may be coupled to the first engaging and supporting portion 141 through the first engaging and supporting portion 141.

The first link portion 145 can couple the first engagement member 143 and the first basic support block 104 together. The first link portion 145 includes a first engagement member receiving portion 145a into which the first engagement member 143 is inserted and a first link engagement portion 145b coupled to the first basic support block 104 side, And a first coupling portion 145c connecting the first coupling member receiving portion 145a and the first link coupling portion 145b.

The first engagement member receiving portion 145a has a space in which the first engagement member 143 can be received. The first engaging member 143 can be rotatably engaged in the first engaging member receiving portion 145a. A first cutout 145a-1 may be formed at the lower end of the first coupling member receiving portion 145a. The first incision portion 145a-1 may be formed by cutting a part of the first engagement member receiving portion 145a along the lower outer peripheral surface of the first engagement member receiving portion 145a.

The first coupling portion 145c is connected to the first coupling member receiving portion 145a and the first link coupling portion 145b, respectively. The first engagement member receiving portion 145a may be connected to one side of the lower surface of the first connection portion 145c (i.e., the side facing the first rotation support block 112). The first link coupling portion 145b may be connected to the other side of the upper surface of the first connection portion 145c (i.e., the side facing the first basic support block 104).

The first link coupling portion 145b may protrude upward from the other side of the upper surface of the first connection portion 145c. The first linkage portion 145b may be coupled to the first basic support block 104 above the first crossing line portion of the first basic support block 104. [ Here, the first coupling groove 149 may be formed on the first base support block 104. In addition, the first linkage receiving portion 151 may be formed in the first coupling groove 149 inwardly. The first link engaging portion 145b may be inserted into the first engaging groove 149 and then rotatably engaged in the first link engaging portion receiving portion 151. [

The first stopper 147 may protrude from the lower end of the first engagement member 143 toward the first rotation support block 112. The first stopper 147 may be formed on a part of the outer circumferential surface of the first engaging member 143. The first stopper 147 may have a length smaller than that of the first cutout 145a-1. The first stopper 147 may restrict the rotation of the first rotation support block 112. A detailed description thereof will be described later.

The second coupling assembly 135 may couple the lower side of the first rotary support block 112 and the lower side of the first basic support block 104. The second engagement assembly 135 may include a second engagement support portion 161, a second engagement member 163, a second link portion 165, and a second stopper 167.

The second coupling support portion 161 may protrude outward from the lower end of the body 131. And the second engagement member 163 may be coupled to the second engagement support portion 161. [ The second engagement member 163 may be coupled to the second engagement support portion 161 through the second engagement support portion 161.

The second link portion 165 can couple the second engagement member 163 and the first basic support block 104 together. The second link portion 165 includes a second engagement member receiving portion 165a to which the second engagement member 163 is inserted and coupled and a second link engagement portion 165b coupled to the first basic support block 104 side, And a second coupling portion 165c connecting the second coupling member receiving portion 165a and the second link coupling portion 165b.

The second engagement member receiving portion 165a has a space in which the second engagement member 163 can be received. The second engaging member 163 can be rotatably engaged in the second engaging member receiving portion 165a. A second cutout 165a-1 may be formed at the lower end of the second coupling member receiving portion 165a. The second cutout 165a-1 may be formed by cutting a part of the second coupling member receiving portion 165a along the lower outer peripheral surface of the second coupling member receiving portion 165a.

And the second coupling portion 165c is connected to the second coupling member receiving portion 165a and the second link coupling portion 165b, respectively. The second engagement member receiving portion 165a may be connected to one side of the lower surface of the second connection portion 165c (i.e., the side facing the first rotation support block 112). The second link coupling portion 165b may be connected to the other side of the upper surface of the second connection portion 165c (i.e., the side facing the first basic support block 104).

The second link coupling portion 165b may protrude upward from the other side of the upper surface of the second connection portion 165c. The second link coupling portion 165b may be coupled with the first basic support block 104 below the first intersection line portion of the first basic support block 104. [ Here, the second coupling groove 169 may be formed on the lower side of the first base support block 104. In addition, the second linkage receiving portion 171 may be formed in the second engaging groove 169 in the upper portion. The second link coupling portion 165b may be inserted into the second coupling groove 169 and then rotatably coupled in the second link coupling portion accommodating portion 171. [

The second stopper 167 may protrude from the lower end of the second engaging member 163 toward the first rotation supporting block 112. The second stopper 167 may be formed on a part of the outer circumferential surface of the second engaging member 163. The second stopper 167 may have a length smaller than that of the second cutout 165a-1. The second stopper 167 may restrict the rotation of the first rotation support block 112. A detailed description thereof will be described later.

The handle 137 may be formed on one side of the body 131. In the exemplary embodiment, the handle 137 may be formed on a surface of the body 131 that is formed on the side opposite to the first basic support block 104. [ The handle 137 may serve to hold the first rotary support block 112 by the user.

Although the first rotary support block 112 has been described herein as including the first engagement assembly 133 and the second engagement assembly 135, it may also have one engagement assembly. At this time, one coupling assembly may be formed at an intermediate portion of the first rotation support block 112.

7 to 9 are views showing a state in which the first rotating support block is coupled to the first basic support block and rotated according to an embodiment of the present invention.

First, referring to FIG. 7, the first rotary support block 112 is rotatably coupled along the first crossing line area of the first basic support block 104. Here, the first intersection line may be a line in which the first 1-1 slope 104a and the 1-2 slope 104b meet in the first basic support block 104. [ The first pivot support block 112 may be rotatably coupled to the first intersection line region of the first base support block 104 through the first engagement assembly 133 and the second engagement assembly 133. Here, when the first rotation support block 112 is located at the center between the 1-1 slope 104a and the 1-2 slope 104b, the first stopper 147 (for convenience of explanation, (To be described only with respect to the first cutout portion 147) may be located at the center of the first cutout portion 145a-1.

8, when the first rotation support block 112 is rotated to the right side (right side as viewed in the figure) by holding the handle 137 of the first rotation support block 112, The first side face 112c of the support block 112 is seated on the first-first inclined face 104a while facing the first-first inclined face 104a. Here, the first coupling portion 145c is engaged with the first coupling portion 149a formed at one side of the first coupling groove 149, and the rotation is restricted. The lower end of the first engagement member receiving portion 145a is caught by one side of the first stopper 147 to restrict rotation.

9, when the first rotation support block 112 is rotated to the left side (left side as viewed in the figure) by holding the handle 137 of the first rotation support block 112 in Fig. 7, The second side surface 112d of the first rotation support block 112 is seated on the first and second slanted surfaces 104b while facing the first and second slanted surfaces 104b. Here, the first connection portion 145c is caught by the first and second engagement portions 149b formed on the other side of the first engagement groove 149, so that the rotation is restricted. The lower end of the first engagement member receiving portion 145a is hooked on the other side of the first stopper 147, and rotation is restricted.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed exemplary embodiments, but, on the contrary, . Therefore, the scope of the present invention should not be limited to the above-described embodiments, but should be determined by equivalents to the appended claims, as well as the appended claims.

100: coil steel plate loading device
102: base plate
104: first basic support block
104a: 1-1 slope surface
104b: the 1-2 slope surface
106: second basic supporting block
106a: 2-1 slope surface
106b: 2nd -2 slope
108: third basic supporting block
108a: Slot 3-1
108b: Slope 3-2
110: fourth basic supporting block
110a: Slot 4-1
110b: 4-2 slope surface
112: first rotating support block
112a: upper surface
112b: when
112c: the first side
112d: second side
112e: Third side
114: second rotation supporting block
116: third rotating support block
118: Fourth rotary support block
121: Guide rail
123: first protection member
125: second protection member
131: Body
133: first coupling assembly
135: second coupling assembly
137: Handle portion
141: first coupling support
143: first coupling member
145: first link portion
145a: first engagement member accommodating portion
145a-1: First incision section
145b: the first link coupling portion
145c: first connection portion
147: first stopper
149: first coupling groove
149a:
149b:
151: first link coupling portion accommodating portion
161: second coupling support
163: second coupling member
165: second link portion
165a: a second engagement member accommodating portion
165a-1:
165b: the second link coupling portion
165c: second connection portion
167: Second stopper
169: second engaging groove
171: second link coupling portion accommodating portion

Claims (16)

An apparatus for loading a coil steel plate,
A base plate;
A first base supporting block provided on the base plate and having a first oblique face inclined along the first direction and a 1-2 first oblique face inclined along a second direction different from the first direction, ;
A second-1 sloped surface formed on the base plate so as to be spaced apart from the first basic support block and inclined along the first direction, and a 2-2 sloped surface inclined along the second direction; A second basic support block;
A third base slope formed on the base plate so as to be spaced apart from the first base support block and the second base support block and inclined along the first direction, A third basic support block having a third-2 sloped surface; And
A fourth base support block, a third base support block, and a fourth base support block, the fourth base support block, the third base support block, and the fourth base support block, And a fourth basic support block having a 4-2 sloped surface.
The method according to claim 1,
Wherein the first base support block is provided in a left upper corner area of the base plate,
The second base support block is provided in the upper right corner area of the base plate,
The third base support block is provided in the lower right corner area of the base plate,
And the fourth base support block is provided at the lower left corner area of the base plate.
The method of claim 2,
Wherein the coil steel plate is stacked on the base plate in a longitudinal direction or a width direction of the base plate,
The lower front end portion of the coil steel plate is supported on the first-first inclined surface and the fourth-first inclined surface to be supported, and the lower rear end portion of the coil steel plate is supported on the second- And a second support member supported on the third-third inclined surface,
The lower front end of the coil steel plate is seated and supported on the first 1-2 sloped surface and the 2-2 sloped surface, and the lower rear end of the coil steel plate is supported on the third -2 oblique surface And a fourth steel plate loading device supported on the fourth -2 slope surface.
The method according to claim 1,
The coil steel plate loading apparatus includes:
Further comprising a rotation support block rotatably coupled to at least one of the first basic support block to the fourth basic support block.
The method of claim 4,
The rotation support block includes:
A first rotation support block rotatably coupled to the first base support block and adapted to be seated on the first 1-1 slope or the 1-2 slope according to the rotation;
A second rotation support block rotatably coupled to the second base support block and adapted to be seated on the second-1 slope surface or the second -2 slope surface in accordance with the rotation;
A third rotary support block rotatably coupled to the third basic support block and adapted to be seated on the 3rd-1st incline surface or the 3rd-2nd incline surface according to the rotation; And
And a fourth rotary support block rotatably coupled to the fourth basic support block and adapted to be seated on the 4-1 sloped surface or the 4-2 sloped surface according to the rotation.
The method of claim 5,
Wherein the first rotation support block is rotatably coupled to the first basic support block with a first intersecting line area where the 1-1 slope and the 1-2 slope meet,
The second rotation support block is rotatably coupled to the second basic support block with a second intersecting line area where the 2-1 sloped surface and the 2-2 sloped surface meet as a rotation axis,
The third rotary support block is rotatably coupled to the third basic support block with the third intersecting line area where the 3rd-1st incline plane and the 3rd-2nd incline plane meet as the rotation axis,
And the fourth rotary support block is rotatably coupled to the fourth basic support block with the fourth intersecting line area where the 4-1 sloped surface and the 4-2 sloped surface meet as a rotation axis.
The method of claim 5,
The first rotation support block is rotated so as to be seated on the 1-1 slope surface,
The second rotation support block is rotated so as to be seated on the second-1 slope surface,
The third rotary support block is rotated so as to be seated on the 3rd-1st incline surface,
The fourth rotary support block is rotated so as to be seated on the 4-1-
Wherein the coil steel plate is stacked on the base plate in the longitudinal direction of the base plate,
And a lower front end portion of the coil steel plate is seated and supported by the first rotation support block and the fourth rotation support block, A coil steel plate loading device.
The method of claim 5,
The first rotation support block is rotated so as to be seated on the 1-2 slope surface,
The second rotation supporting block is rotated so as to be seated on the second -2 oblique surface,
The third rotary support block is rotated so as to be seated on the third -2 inclined surface,
The fourth rotary support block is rotated so as to be seated on the fourth-2 inclined surface,
Wherein the coil steel plate is stacked on the base plate in the width direction of the base plate,
A lower front end portion of the coil steel plate is seated and supported by the first rotation support block and the second rotation support block and a lower rear end portion of the coil steel plate is seated on the third rotation support block and the fourth rotation support block, A coil steel plate loading device.
The method of claim 4,
The rotation support block includes:
Body; And
At least one coupling assembly provided on the body and rotatably coupled to the body and the basic support block,
The coupling assembly includes:
An engaging support protruding from the body to the base support block;
An engaging member coupled to the engaging and supporting portion and projecting toward the upper or lower side of the body; And
And a link portion rotatably coupled to the coupling member and the basic support block, respectively.
The method of claim 9,
Wherein,
An engaging member receiving portion into which the engaging member is inserted and rotatably engaged;
A link coupling part rotatably coupled with the corresponding base support block in a coupling groove formed in the base support block; And
And a connecting portion formed along the longitudinal direction of the coupling support portion and provided with the coupling member receiving portion at one side of the one side and the link coupling portion at the other side of the other side to connect the coupling member accommodating portion and the link coupling portion, Device.
The method according to claim 1,
The coil steel plate loading apparatus includes:
Further comprising guide rails formed on both sides of the base plate along the longitudinal direction of the base plate and coupling the coil steel plate stacking apparatus to a coil steel plate transportation lorry.
An apparatus for loading a coil steel plate,
A base plate;
At least one basic supporting block provided on the base plate and having a first inclined surface inclined along the width direction of the base plate and a second inclined surface inclined along the longitudinal direction of the base plate; And
And at least one rotation support block rotatably coupled to the base support block to support the coil steel plate.
The method of claim 12,
The rotation support block includes:
Wherein the first support surface and the second support surface are formed to be rotatably coupled to the basic support block with an intersecting line area where the first inclined surface and the second inclined surface meet, and to be seated on the first inclined surface or the second inclined surface, Loading device.
14. The method of claim 13,
The rotation support block includes:
Body; And
At least one coupling assembly provided on the body and rotatably coupled to the body and the basic support block,
The coupling assembly includes:
A coupling support portion protruding from the body to the base support block;
An engaging member coupled to the engaging and supporting portion and projecting toward the upper or lower side of the body; And
And a link portion rotatably coupled to the coupling member and the basic support block, respectively.
15. The method of claim 14,
Wherein,
An engaging member receiving portion into which the engaging member is inserted and rotatably engaged;
A linking portion rotatably coupled to the base support block in a coupling groove formed in the base support block; And
And a connecting portion formed along the longitudinal direction of the coupling support portion and provided with the coupling member receiving portion at one side of the one side and the link coupling portion at the other side of the other side to connect the coupling member accommodating portion and the link coupling portion, Device.
16. The method of claim 15,
The coil steel plate loading apparatus includes:
A cut-out portion formed at one end of the coupling member receiving portion, the cut-out portion being formed by cutting a part of the outer peripheral surface of the coupling member receiving portion; And
Further comprising a stopper formed to protrude from the engaging member and provided at a part of an outer circumferential surface of the engaging member and located in the region of the incising section to limit the rotation of the rotary support block in accordance with the rotation of the rotary support block, Steel plate loading device.

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