Intelligent break station

Abstract

The present application discloses a kind of intelligent breaking platform, comprising: block moves guiding shell, plane shape is rectangular shape, forms insertion port in length direction both sides, inside hollow;First base block moving component, it includes first moving base part and first base block connecting part, first moving base part end is inserted in one side insertion port of block moves guiding shell, first base block connecting part is exposed to the outside of block moves guiding shell;Second base block moving component, it includes second moving base part and second base block connecting part, second moving base part end is inserted in the insertion port of other side of block moves guiding shell, second base block connecting part is exposed to the outside of block moves guiding shell;Horizontal movement drive unit, it is housed in first moving base part and second moving base part inside;First base block, it is rotatably hinged to the both sides of width direction of first base block connecting part;Second base block, it is rotatably hinged to the both sides of width direction of second base block connecting part.

Description

Technical Field

[0001] This invention relates to a crushing table, and to a crushing table for placing pine boards or the like for crushing.

[0002] More specifically, it relates to an intelligent crushing table that is foldable, easy to carry, can be stacked for storage and make efficient use of storage space, and whose base blocks can be adjusted according to the object being crushed by a simple action of rotating a rotating handle.

[0003] Furthermore, the present invention relates to an intelligent breaking platform having a terminal such as a smartphone, which can not only understand the training level but also select the object to be broken. Background Technology

[0004] Generally speaking, breaking, along with forms and sparring, are considered the three basic structural elements of Taekwondo.

[0005] As described above, breaking refers to the process of testing strength and technique honed through training in various martial arts such as Taekwondo by using an object. It involves demonstrating the ability to break various hard objects such as pine boards, tiles, bricks, and marble during a review or rehearsal.

[0006] In order to break the object as described above, it is necessary to support both ends of the object to be broken, ensure the space for breaking it from below, and then strike the object.

[0007] In the past, in order to ensure the space for breaking, objects such as bricks were stacked on both sides to an appropriate height to ensure the space for breaking, and then the breaking object was placed between the bricks and the breaking object was struck.

[0008] However, with the existing method described above, each time the object is broken, bricks need to be stacked one by one on both sides to a specified width according to the size of the object being broken. Therefore, it is tedious and time-consuming. In addition, when the object is placed between the bricks stacked to a specified height on both sides before breaking, the stacked bricks may collapse or the object may slip off. This not only makes the breaking imperfect, but may also cause various problems such as hand or foot injuries. There is always a risk of such problems occurring.

[0009] In view of the existing problems mentioned above, the applicant developed the multi-crushing table of Korean Patent No. 10-2314757.

[0010] This multi-crushing platform was developed to stably support the material to be crushed, allowing for convenient adjustment of the spacing based on the material and preventing slippage. To this end, the platform has a pair of base blocks of a predetermined height connected to both sides of a fixed base block placed horizontally on the bottom surface. These base blocks are configured to allow adjustment of their left and right width using connecting parts. This allows the base blocks to be expanded or contracted to adjust the width according to the size of various types of materials to be crushed. Furthermore, this constitutes a synchronous width adjustment unit, so that when adjusting the left and right width of the pair of base blocks connected to the fixed base block, the base blocks simultaneously move left and right on both sides of the fixed base block to adjust the width, thus providing a simple and quick adjustment of the left and right width.

[0011] However, such multiple-blowout platforms are bulky, inconvenient to carry, and take up a lot of storage space. Adjusting the width by moving the block itself is cumbersome, complicated, and difficult to fine-tune. Summary of the Invention

[0012] The technical problem that the invention aims to solve

[0013] Therefore, the problem to be solved by the present invention is to provide an intelligent crushing table that can stably place various sizes of striking objects, and whose first and second base blocks on both sides are foldable, thereby reducing the volume while allowing multiple objects to be stably stacked and stored, making it easy to store and make full use of space, and whose volume can be adjusted for easy portability.

[0014] Furthermore, the present invention provides an intelligent punching table that allows for easy adjustment of the spacing via a dial, and further allows for the confirmation and recording of measured values ​​based on the striking intensity via a portable terminal, thereby enabling adjustment of training intensity and displaying data that reveals the level of training.

[0015] Technical methods for solving problems

[0016] According to an embodiment of the present invention, an intelligent crushing platform is characterized by comprising: a block moving guide shell having a rectangular planar shape, with insertion openings formed on both sides in the length direction, and being hollow inside; a first base block moving component comprising a first moving base having a length less than half the overall length of the block moving guide shell and a first base block connecting portion disposed on one side of the first moving base in the length direction, wherein the end of the first moving base on the opposite side of the first base block connecting portion is inserted into the insertion opening on one side of the block moving guide shell, and the first base block connecting portion is exposed on the outside of the block moving guide shell; and a second base block moving component comprising a second moving base having a length less than half the overall length of the block moving guide shell and a second base block connecting portion disposed on one side of the second moving base in the length direction. The end of the second movable base portion on the opposite side of the second base block connecting portion is inserted into the insertion port on the other side of the block moving guide housing, and the second base block connecting portion is exposed on the outside of the block moving guide housing; a horizontal moving drive unit is housed inside the first movable base and the second movable base, so that the first base block moving component and the second base block moving component are horizontally movable and connected to the first base block moving component and the second base block moving component; a first base block is rotatably hinged to both sides of the first base block connecting portion in the width direction, and is stacked or erected on the block moving guide housing by rotation; and a second base block is rotatably hinged to both sides of the second base block connecting portion in the width direction, and is stacked or erected on the block moving guide housing by rotation.

[0017] According to one embodiment, the horizontal movement drive unit may include: a pinion located at the center of the block movement guide housing, rotating between the ends of a first movable base and a second movable base inserted inside the block movement guide housing; a first rack housed inside the first movable base and the first base block connecting portion, meshing with the pinion, having a length extending from the interior of the first base block connecting portion to the exterior of the end of the first movable base; a second rack housed inside the second movable base and the second base block connecting portion, meshing with the pinion, having a length extending from the interior of the second base block connecting portion to the exterior of the end of the second movable base; and a rotating handle exposed on the bottom surface of the block movement guide housing, connected to the center of the pinion, causing the pinion to rotate, wherein the central regions of the ends of the first movable base and the second movable base are open, the end of the first rack exposed outside the end of the first movable base is inserted into the interior of the second movable base, and the end of the second rack exposed outside the end of the second movable base is inserted into the interior of the first movable base.

[0018] According to one embodiment, the first movable base may include a pair of first guide grooves formed parallel to the movement direction of the first movable base portion to guide the horizontal movement of the first base block moving component. The second movable base may include a pair of second guide grooves formed parallel to the movement direction of the second movable base portion to guide the horizontal movement of the second base block moving component. The block moving guide housing may include a plurality of guide rollers inserted into the pair of first guide grooves and the pair of second guide grooves inside the block moving guide housing and rotating to guide the horizontal movement of the first base block moving component and the second base block moving component.

[0019] According to one embodiment, it may further include: a rotation control unit disposed inside the first base block moving component or the second base block moving component, for controlling the rotation of the pinion.

[0020] According to one embodiment, the rotation control unit may include: a rotation control gear located below the pinion and coaxially coupled with the pinion to avoid meshing with the first rack and the second rack; a rotation control component horizontally movably disposed within the first movable base or the second movable base, with a control protrusion at its end that meshes with the teeth of the rotation control gear; and a rotation control button disposed below the rotation control component and exposed to the bottom surface of the block moving guide housing.

[0021] According to one embodiment, it may further include: an impact intensity measuring sensor disposed on each of the first base block and the second base block; a control unit disposed inside any one of the block moving guide housing, the first base block, and the second base block, and electrically connected to the impact intensity measuring sensor, receiving the measured value from the impact intensity measuring sensor, and including an output unit that outputs the measured value; and a display unit that displays the measured value output from the control unit.

[0022] According to one embodiment, the output unit can be a wireless communication module, and the display unit can be a portable terminal.

[0023] The effects of the invention

[0024] The intelligent impact table according to the present invention has the following advantages: it can stably place impact objects of various sizes and can stably achieve multiple stacks; it is easy to store, has a reduced volume and is portable; it is convenient to carry; and it can confirm and record the measured values ​​according to the impact intensity through a portable terminal, thereby providing data for adjusting the training intensity. Attached Figure Description

[0025] Figure 1 A perspective view showing the appearance of an intelligent breaking platform according to an embodiment of the present invention.

[0026] Figure 2 for Figure 1 The bottom three-dimensional view.

[0027] Figure 3 for Figure 1 Top view.

[0028] Figure 4 for Figure 1 The exploded perspective view of the block moving guide shell shown.

[0029] Figure 5 for Figure 3 Cross-sectional view of line A-A' in the middle.

[0030] Figure 6 and Figure 7 This diagram illustrates the horizontal movement drive unit of an intelligent breaking table according to an embodiment of the present invention.

[0031] Figure 8 This is a diagram illustrating the rotation control unit of an intelligent crushing table according to an embodiment of the present invention.

[0032] Figure 9 This is a three-dimensional view of the intelligent crushing platform according to the present invention.

[0033] Figure 10 This is a block diagram of the intelligent breaking platform according to the present invention.

[0034] Figure 11 A diagram illustrating the folding process of the intelligent breaking platform according to the present invention. Detailed Implementation

[0035] The intelligent crushing table according to embodiments of the present invention will now be described in detail with reference to the accompanying drawings. The present invention can be modified in various ways and can have various solutions, and specific embodiments are shown in the accompanying drawings, through which they will be described in detail herein. However, the specific embodiments of the present invention do not limit the specific disclosed solutions, but should be understood to include all modifications, equivalents, or substitutions included within the spirit and scope of the present invention. In describing the various drawings, similar structural elements are used for similar structural elements. For the purposes of ensuring clarity of the invention, the dimensions of the structures are shown enlarged from their actual dimensions in the drawings.

[0036] The terms "first," "second," etc., can be used to describe various structural elements, but the structural elements are not limited by the terms. The terms are used only to distinguish one structural element from another. For example, without departing from the scope of the claims of this invention, a first structural element may be named a second structural element, and similarly, a second structural element may be named a first structural element.

[0037] The terminology used in this application is merely for illustrating specific embodiments and is not intended to limit the scope of the invention. A single representation includes multiple representations unless the context clearly indicates otherwise. In this application, terms such as "comprising" or "having" specify the presence of features, numbers, steps, actions, structural elements, components, or combinations thereof described in the specification, and should be understood not to preclude the presence or additional possibilities of one or more different features or numbers, steps, actions, structural elements, components, or combinations thereof.

[0038] All terms, including technical and scientific terms, shall, without further definition, have the same meaning as commonly understood by those skilled in the art. Similar to predefined terms, conventional terms shall be understood as having the same meaning as expressed in the context of the relevant art, and shall not be construed as having an idealized or overly formalized meaning unless explicitly defined in this application.

[0039] Figure 1 A perspective view showing the appearance of an intelligent crushing table according to an embodiment of the present invention is provided. Figure 2 for Figure 1 The bottom three-dimensional view, Figure 3 for Figure 1 Top view, Figure 4 for Figure 1The exploded perspective view of the block moving guide shell shown. Figure 5 for Figure 3 Cross-sectional view of line A-A' in the middle. Figure 6 and Figure 7 The diagram illustrates the horizontal movement drive unit of the intelligent crushing table according to an embodiment of the present invention. Figure 8 This is a diagram illustrating the rotation control unit of an intelligent crushing table according to an embodiment of the present invention.

[0040] Reference Figures 1 to 5 According to an embodiment of the present invention, an intelligent crushing platform may include a block moving guide housing 100, a first base block moving component 200, a second base block moving component 300, a horizontal moving drive unit 400, a first base block 500, and a second base block 600.

[0041] The block moving guide housing 100 has a rectangular planar shape, with insertion openings 101 formed on both sides in the longitudinal direction, and is hollow inside. For example, the insertion openings 101 on both sides in the longitudinal direction of the block moving guide housing 100 can be formed into a capsule shape, and the block moving guide housing 100 is configured to combine an upper part 110 and a lower part 120 separated by a virtual center line that traverses the capsule shape laterally.

[0042] In addition, a buffer pad 130 made of flexible material may be provided on the top of the block moving guide housing 100. The buffer pad 130 can mitigate impact when the first base block 500 and the second base block 600 (described later) are folded and stacked on top of the block moving guide housing 100.

[0043] The first base block moving component 200 can be configured to move horizontally along the length direction of the block moving guide housing 100.

[0044] That is, the first base block moving component 200 and the second base block moving component 300 can be arranged in a mutually facing configuration between the upper component 110 and the lower component 120 and move horizontally, thereby expanding or shrinking the distance between the first and second base blocks 500 and 600 depending on the size of the object being destroyed.

[0045] On the other hand, both the first base block moving component 200 and the second base block moving component 300 are box-shaped components with an upper and lower part combined, and the upper and lower parts can be connected by the base block connecting part. As another form, the upper part can be integrated by clamping, fusion, or adhesive methods after the horizontal movement drive unit 400 is arranged in the lower part, and the base block connecting part can be assembled.

[0046] The first base block moving component 200 may include: a first moving base 210 having a length less than half the overall length of the block moving guide housing 100 and a first base block connecting portion 220 disposed at the end of the first moving base 210.

[0047] The first movable base 210 is configured in a shape corresponding to the insertion port 101 of the block movable guide housing 100, and can be inserted into the interior of the block movable guide housing 100. The first base block connecting part 220 can be disposed on the outside of the insertion port 101.

[0048] The first base block connecting portion 220 engages with the first movable base bottom portion 210 to form a height difference with a size and shape corresponding to the outer edge of the insertion port 101 of the block movable guide housing 100. This height difference is located at the end portion of the first movable base bottom portion 210. When the first movable base bottom portion 210 is inserted into the interior of the block movable guide housing 100, this height difference aligns with the insertion port 101, serving as a stop to prevent the first movable base bottom portion 210 from further entering the interior of the block movable guide housing 100.

[0049] On the other hand, in this invention, the first base block connecting portion 220 is characterized by having a semi-circular cross-section cut along a direction parallel to the moving direction of the first movable base 210, with hemispherical shapes on both sides in the width direction. Hinge shafts 230 are provided on both sides of the hemispherical first base block connecting portion 220, allowing the first base block 500 to be easily folded onto the buffer pad 130, and vice versa.

[0050] The first base block 500 has a hinge part 503 on its inner side, which clamps the hinge shaft 230 to form a rotation center, and the second base block 600 also has a hinge part 603.

[0051] The second base block moving component 300 can be configured to move horizontally along the length direction of the block moving guide housing 100 on the opposite side of the first base block moving component 200.

[0052] Therefore, the first base block moving component 200 and the second base block moving component 300 can be assembled in a configuration facing each other, moving in opposite directions or horizontally in opposite directions.

[0053] The second base block moving component 300 may include a second moving base 310 and a second base block connecting part 320. The second moving base 310 may be inserted into the insertion port 101 on the other side of the block moving guide housing 100.

[0054] The second movable base 310 is the same as the first movable base 210, and the second base block connecting part 320 is the same as the first base block connecting part 220.

[0055] That is, the second base block connecting part 320 can be formed with a semi-circular cross-section cut along a direction parallel to the moving direction of the second moving base 310, and the two sides in the width direction are hemispherical. The two sides of the hemispherical second base block connecting part 320 are provided with hinge shafts 330. The hinge shafts 330 are inserted into the hinge part 603 of the second base block 600, so that the second base block 600 is folded to the top of the buffer pad 130 with the hinge part 603 as the center, and unfolded when it is broken.

[0056] The horizontal movement drive unit 400 is housed inside the first moving base 210 and the second moving base 310 so that the first base block moving component 200 and the second base block moving component 300 can be horizontally moved and connected to the first base block moving component 200 and the second base block moving component 300.

[0057] Reference Figure 6 and Figure 7 In one embodiment, the horizontal movement drive unit 400 may include a pinion 410, a first rack 420, a second rack 430, and a rotary handle 440 that rotates in a dial manner.

[0058] The pinion 410 is located at the center of the block moving guide housing 100 and rotates between the ends of the first moving base 210 and the second moving base 310 inserted inside the block moving guide housing 100.

[0059] For example, the pinion 410 can be rotated by being connected to the center of the upper part 110 of the block moving guide housing 100 via a shaft. A rotating handle connection part 411 is formed on the bottom surface. The rotating handle connection part 411 protrudes through the center of the lower part 120 of the block moving guide housing 100 and is placed on the lower part 120.

[0060] Alternatively, separate gears can be provided on both the rotary handle connection portion 411 and the rotary handle 440, and connected to the pinion 410. In this case, gears are also provided for fine-tuning and smooth rotation.

[0061] The first rack 420 can be housed inside the first movable base 210 and the first base block connecting portion 220, meshes with the pinion 410, and has a length extending from the inside of the first base block connecting portion 220 to the outside of the end of the first movable base 210.

[0062] The second rack 430 is housed inside the second movable base 310 and the second base block connecting portion 320, meshes with the pinion 410, and has a length extending from the inside of the second base block connecting portion 320 to the outside of the end of the second movable base 310.

[0063] The end of the first rack 420, which is exposed outside the end of the first movable base 210, can be inserted into the interior of the second movable base 310, and the end of the second rack 430, which is exposed outside the end of the second movable base 310, can be inserted into the interior of the first movable base 210. For this purpose, the central region of the side surfaces of each end of the first movable base 210 and the second movable base 310, which correspond to the shape of the insertion port 101, is opened. The ends of the first rack 420 and the second rack 430 are inserted into the interiors of the first movable base 210 and the second movable base 310, while the pinion 410 is located between the ends of the first movable base 210 and the second movable base 310.

[0064] The rotating handle 440 is exposed on the bottom surface of the block moving guide housing 100 and is connected to the center of the pinion 410, causing the pinion 410 to rotate. For example, the center of the lower part 120 of the block moving guide housing 100 may be formed to allow the rotating handle connecting part 411 of the pinion 410 to pass through, and the opening 121 of the rotating handle 440 may be provided.

[0065] For example, the rotary handle 440 is assembled to the rotary handle connecting part 411 exposed by the through opening 121 by clamping, bolting or adhesive. The rotary handle connecting part 411 can be integrally or assembled on the bottom surface of the pinion 410.

[0066] The rotating handle 440 is exposed outside the opening 121 of the lower part 120, and its bottom surface is elliptical to facilitate gripping the handle and rotating it.

[0067] A guide portion 122 is formed adjacent to the opening 121 to guide the movement of the rotary control button 730 of the rotary control unit 700.

[0068] The first base block 500 is rotatably hinged to both sides of the first base block connecting portion 220 in the width direction, and can be stacked or erected on the block moving guide housing 100 by rotation.

[0069] In other words, the first base block 500 and the second base block 600 each have receiving grooves 501 and 601 for receiving block moving guide housing 100 formed on their opposing inner sides, and hinge portions 503 and 603 for clamping the hinge shafts 230 and 330 are arranged at the lower ends of the two side walls of each receiving groove.

[0070] Therefore, when the first base block 500 and the second base block 600 are pushed to fold, each block rotates and folds around the hinge axis and hinge part. At this time, the block moving guide housing 100 is clamped into the receiving groove, thereby reducing the volume. In this state, it can be stacked for storage or transport.

[0071] In addition, the first base block 500 may include: a bottom 510, longer than the width of the first base block moving member 200; a side portion 520, extending upward from the edge of the bottom 510 and gradually decreasing in width; and an upper end portion 530, connected to the upper end of the side portion 520.

[0072] A receiving groove 501 is formed on one side of the side portion 520 in a recessed manner to accommodate the first base block connecting portion 220. A stacking groove 540 with a shape corresponding to the shape of the upper end portion 530 is formed at the bottom 510. A handle groove 550 is formed in the center of the stacking groove 540. A support pad 560 made of plastic or rubber is attached to the upper portion.

[0073] Therefore, even when the first base block 500 is standing upright, it can be safely stored by being clamped into the upper end of another first base block through the stacking slot 540, and easily moved through the handle slot 550.

[0074] The second base block 600 is rotatably hinged to both sides of the second base block connecting portion 320 in the width direction, and can be rotated and folded around this center, so as to be stacked or erected on top of the block moving guide housing 100. The second base block 600 is the same as the first base block 500, so a more detailed description is omitted.

[0075] On the other hand, the first movable base 210 may include a pair of first guide grooves 211, the second movable base 310 may include a pair of second guide grooves 311, and the block movable guide housing 100 may include a plurality of guide rollers 140.

[0076] A pair of first guide grooves 211 can be formed parallel to the moving direction of the first movable base 210 to guide the horizontal movement of the first base block moving component 200.

[0077] For example, a pair of first guide grooves 211 are located in the unopened area on the side of the end of the first movable base 210 and are configured adjacent to the first rack 420.

[0078] A pair of second guide grooves 311 can be formed parallel to the moving direction of the second movable base 310 to guide the horizontal movement of the second base block moving component 300.

[0079] For example, a pair of second guide grooves 311 are located in the unopened area on the side of the end of the second movable base 310 and are configured adjacent to the second rack 430.

[0080] Multiple guide rollers 140 are inserted into a pair of first guide grooves 211 and a pair of second guide grooves 311 inside the block moving guide housing 100 and rotate to guide the horizontal movement of the first base block moving component 200 and the second base block moving component 300.

[0081] For example, multiple guide rollers 140 are rotatably disposed on the lower part 120 of the block moving guide housing 100, and can be configured as two inserted into a pair of first guide grooves 211 and two inserted into a pair of second guide grooves 311, for a total of four, and more guide rollers can be provided as needed.

[0082] On the other hand, an intelligent breaking table according to an embodiment of the present invention may include a rotation control unit 700.

[0083] The rotation control unit 700 can be configured inside the first base block moving part 200 and / or the second base block moving part 300 to control the rotation of the pinion 410.

[0084] Reference Figure 7 and Figure 8 In one embodiment, the rotation control unit 700 may include a rotation control gear 710, a rotation control component 720, and a rotation control button 730.

[0085] The rotary control gear 710 can be integrally or separately machined and fixedly located on the upper part of the rotary handle 440 or the lower part of the pinion 410, and coaxially engaged with the pinion 410 to avoid meshing with the first rack 420 and the second rack 430. For example, the rotary control gear 710 can be housed within the block movement guide housing 100 and coaxially connected with the pinion 410.

[0086] The rotation control component 720 is horizontally movably disposed within the first movable base 210 or the second movable base 310, and its end is provided with a control protrusion 721 that meshes with the teeth of the rotation control gear 710. For example, the rotation control component 720 may be formed in the shape of a square plate and is horizontally movably disposed within the second movable base 310.

[0087] The opposite side of the control protrusion 721 is provided with an elastic part 740. The elastic part elastically pushes the control protrusion 721 to control the rotation of the control gear 710. When the user pulls the rotation control button 730, the control can be released.

[0088] That is, the control protrusion 721 can control the rotation by clamping into the groove between the teeth of the rotating control gear 710. If the user pulls the rotating control button 730 with his finger, the control protrusion 721 will fall out of the groove of the teeth and release the control. In the released state, the rotating handle 440 is rotated to adjust the distance between the first and second base blocks 500 and 600.

[0089] If the pull state of the rotary control button 730 is released after adjusting the spacing, the compressed elastic part 740 will expand, causing the control protrusion to move forward and re-clamp into the gear groove, the control will rotate, the first and second base blocks can be fixed in position, and float up during the impact test.

[0090] On the other hand, the rotary control button 730 can be disposed at the lower part of the rotary control member 720, exposed on the bottom surface of the block movement guide housing 100. For example, the rotary control button 730 can be integrally formed on the bottom surface of the rotary control member 720, protruding from the bottom surface of the second moving base 310, and inserted into the guide portion 122 of the lower member 120 for movement, and can be pulled by the user. A size suitable for the user's finger to insert can be formed on the bottom surface of the rotary control button 730. groove.

[0091] Furthermore, the elastic part 740 can be disposed on the opposite side of the control protrusion 721 and clamped into the guide groove of the second movable base. When the control button is pulled, the elastic part is compressed, and when the pull is released, the elastic part is elastically restored, pushing the control protrusion 721 in the tooth direction, which can prevent the rotation of the control gear and the pinion.

[0092] On the other hand, the intelligent crushing table according to an embodiment of the present invention may further include an impact intensity measuring sensor 810, a control unit 800, and a display unit 820.

[0093] The impact intensity measurement sensor 810 can measure by repulsive force or electrical signal, and is disposed on each or any side of the first base block 500 and the second base block 600. For example, the impact intensity measurement sensor 810 can be disposed on the inner surface of each support pad 560 of the first base block 500 and the second base block 600.

[0094] The control unit 800 is disposed inside any one of the block moving guide housing 100, the first base block 500, and the second base block 600. It receives the signal measured by the impact intensity measuring sensor 810, performs calculations, and outputs the intensity to the display unit 820.

[0095] The display unit 820 can display the measurement values ​​output by the control unit 800. For example, the display unit displays the measurement values ​​in Arabic numerals or in red, yellow, or blue colors.

[0096] As an example, the display unit can be a portable terminal, connected via a wired or wireless communication module.

[0097] On the other hand, the present invention may include a data storage unit 830.

[0098] The control unit can receive the impact intensity measured by the impact intensity measuring sensor 810. The control unit transmits the calculated impact intensity to the data storage unit 830 and the display unit 820. The data storage unit stores the impact intensity. The control unit 800 compares the stored data with the current impact intensity and transmits it to the display unit.

[0099] The following describes the use of an intelligent breaking table according to an embodiment of the present invention.

[0100] According to an embodiment of the present invention, an intelligent breaking table is used to strike an object (a breakable object, such as a pine board or a practice breaking board made of detachable plastic) placed on the first base block 500 and the second base block 600.

[0101] When an object is struck and broken, the impact intensity measurement sensor 810 measures the impact intensity. The measured value is input to the control unit 800, which transmits it to the display unit 830, such as a portable terminal, via an output unit (e.g., a wireless communication module). The measured value is displayed using Arabic numerals or colors. Therefore, the user can recognize their own impact intensity and adjust the training intensity for striking.

[0102] On the other hand, the present invention can adjust the distance between the first base block 500 and the second base block 600 according to the size of the object being destroyed.

[0103] When the distance between the first base block 500 and the second base block 600 is to be increased, the user first pulls the rotary control button 730 from the bottom of the block movement guide housing 100 in a direction away from the rotary control gear 710, so that the control protrusion 721 of the rotary control component 720 is separated from the tooth groove of the rotary control gear 710.

[0104] Next, if the user holds the rotating handle 440 and rotates the rotating handle 440 (for example, clockwise), the pinion 410 and the rotation control gear 710 connected to the rotating handle 440 will rotate, and as the pinion 410 rotates, the first rack 420 and the second rack 430 will move horizontally.

[0105] At the same time, the first moving base 210 of the first base block moving component 200 connected to the first rack 420 and the second moving base 310 of the second base block moving component 300 connected to the second rack 430 can move horizontally to the outside of the block moving guide housing 100, thereby increasing the distance between the first base block 500 and the second base block 600.

[0106] At this time, the horizontal movement of the first movable base 210 can be guided by a pair of first guide grooves 211 and two guide rollers 140 inserted into the pair of first guide grooves 211, and the horizontal movement of the second movable base 310 can be guided by a pair of second guide grooves 311 and two guide rollers 140 inserted into the pair of second guide grooves 311.

[0107] Next, to fix the distance adjustment state between the first base block 500 and the second base block 600, when the user pulls the rotary control button 730 on the bottom surface of the block movement guide housing 100, the elastic part 740 pushes the control protrusion 721 to engage with the teeth of the rotary control gear 710. Therefore, the rotation of the pinion 410 and the rotary handle 440 is restricted, thereby fixing the distance adjustment state between the first base block 500 and the second base block 600.

[0108] Conversely, to reduce the distance between the first base block 500 and the second base block 600, pull the rotary control button 730 to separate the control protrusion 721 of the rotary control component 720 from the teeth of the rotary control gear 710. Then, rotate the handle 440 in the opposite direction (e.g., counterclockwise) to pull the first rack 420 and the second rack 430 towards the pinion 410 for horizontal movement, reducing the distance between the first base block 500 and the second base block 600. Next, push the rotary control button 730 towards the rotary control gear 710 to engage the control protrusion 721 of the rotary control component 720 with the teeth of the rotary control gear 710, thereby fixing the distance adjustment state of the first base block 500 and the second base block 600.

[0109] On the other hand, when carrying the intelligent breaking platform according to an embodiment of the present invention, the first base block 500 and the second base block 600 can be rotated toward the block moving guide housing 100 and stacked on top of the block moving guide housing 100, and then carried by holding the handle slot 550 of the first base block 500 or the second base block 600.

[0110] With the first and second base blocks folded, they can be stacked and stored, allowing multiple breaking platforms to be stored in a narrow space.

[0111] On the other hand, the intelligent crushing table according to an embodiment of the present invention can also be stacked in the unfolded state. For this purpose, the upper surfaces of the first base block 500 and the second base block of the lower intelligent crushing table can be inserted into the stacking grooves 540 formed at the bottoms 510 of the first base block 500 and the second base block 600 of the upper intelligent crushing table for stacking.

[0112] If the intelligent breaking stations are stored in this stacked manner, they can be neatly arranged in the vertical direction, making storage easier.

[0113] The intelligent impact table according to an embodiment of the present invention, as described above, has the following advantages: it can stably place impact objects of various sizes and can stably achieve multiple stacks, making it easy to store; furthermore, the first base block 500 and the second base block 600 can be folded up to reduce their volume and make them portable, making it convenient to carry; it effectively utilizes the space stored according to the stacks; and it can confirm and record the measured values ​​of the impact intensity according to the impact through a portable terminal, thereby providing data for adjusting the training intensity.

[0114] The description of the proposed embodiments is provided to enable those skilled in the art to utilize or implement the invention. Various modifications of such embodiments will be apparent to those skilled in the art, and the general principles defined herein may be applied to other embodiments without departing from the scope of the invention. Therefore, the invention is not limited to the embodiments presented herein, but should be interpreted within the widest scope consistent with the principles and novel features set forth herein.

Claims

1. A smart crushing platform, characterized in that, include: The block moving guide shell has a rectangular shape in planar shape, with insertion openings on both sides along its length, and is hollow inside; The first base block moving component and the second base block moving component are disposed inside the block moving guide housing and are arranged facing each other; A horizontal movement drive unit is disposed inside the first base block moving component and the second base block moving component, which causes the first base block moving component and the second base block moving component to move in opposite directions or to move horizontally in opposite directions. The first base block, which is hinged to the first base block moving component, is folded on top of the block moving guide housing and moves together with the first base block moving component when it moves horizontally; The second base block, which is hinged to the second base block moving component, is folded on top of the block moving guide housing and moves together with the second base block moving component when it moves horizontally; A rotating handle, exposed on the bottom surface of the block moving guide housing, is connected to the horizontal moving drive unit. Rotating the horizontal moving drive unit in a rotatable manner causes the first and second base block moving components and the first and second base blocks to move, thereby adjusting the spacing.

2. The intelligent crushing table according to claim 1, characterized in that, The horizontal movement drive unit includes: A small gear, which is located at the center of the block moving guide housing, rotates; The first rack meshes with the pinion and causes the first base block moving component to move horizontally. The second rack, located on the opposite side of the first rack, meshes with the pinion and causes the second base block moving component to move horizontally.

3. The intelligent crushing table according to claim 1, characterized in that, The first base block moving component comprises a first movable base bottom and a first base block connecting portion that is coupled to the first movable base bottom and has hinge shafts on both sides and is hinged to the first base block. The first movable base bottom includes a pair of first guide grooves, which are formed parallel to the moving direction of the first movable base bottom to guide the horizontal movement of the first base block moving component. The second base block moving component comprises a second movable base bottom and a second base block connecting portion that is coupled to the second movable base bottom and has hinge shafts on both sides and is hinged to the second base block. The second movable base bottom includes a pair of second guide grooves formed parallel to the moving direction of the second movable base bottom, guiding the horizontal movement of the second base block moving component. The block moving guide housing includes a plurality of guide rollers that are inserted into the pair of first guide grooves and the pair of second guide grooves inside the block moving guide housing and rotate to guide the horizontal movement of the first base block moving component and the second base block moving component.

4. The intelligent crushing table according to claim 1, characterized in that, Also includes: An impact intensity measuring sensor is disposed on one or both sides of the first base block and the second base block to measure the impact intensity. The control unit, which is disposed inside any one of the block moving guide housing, the first base block, and the second base block, receives the measurement value of the impact intensity measuring sensor, calculates and sends the measurement value; as well as The display unit shows the measurement values ​​sent from the control unit.

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