Hybrid retinal force removal device and method comprising a multi-channel vertical and horizontal bi-beam impact formation and vibration damping type ascending and descending bi-beam impact rest formation

Abstract

In order to improve upon the problems of the existing technology, a vibrating screen mesh force removal device filed and registered by the applicant, where the surface of the screen mesh is damaged or cracked due to surface contact rather than point contact and a bouncing phenomenon, and where direct impact cannot be applied to the mesh surface, resulting in a significantly reduced soil separation and sorting rate; where the row spacing of the component 4-channel left-right swaying mortar-type weight plate module is wide, creating gaps where no impact occurs; where the low degree of freedom for phase variation makes it difficult to form up-down-left-right moving waves; where the endpoint dispersion is high due to wire elongation, pulley friction, and backlash, causing mismatch in impact timing and some sections to be over-impacted or unimpacted; and where, when soil clogging is concentrated, up-down-left-right movement based on row and column unit selection is difficult, making it impossible to respond to hot spots and causing clogging to recur, the present invention comprises a vibrating screen module (100), a 4-channel worm-type up-down-left-right rubbing impact forming module (200), and a vibrating By configuring the damping type winch motor type rubbing impact rest forming module (300) and the smart control module (400), through the fourth worm-shaped up / down / left / right rubbing impact forming part, an up / down / left / right rubbing rolling and, through the low-friction rotational force of the bearing, a continuous rubbing impact atmosphere can be formed that rubs and strikes up / down / left / right while bending in an S-line along with a bouncing phenomenon in the upward direction, and can disperse impact peaks by receiving vibration force, and by forming a rounded shape with a convex end and multi-point contact of a straight protrusion, allowing rubbing impact to occur up / down / left / right as if kissing a hole in the mesh, the retinal force removal rate can be improved by 80% compared to the existing one, and above all, it can prevent getting stuck in the hole of the mesh and being unable to escape, and by configuring the vibration damping type winch motor type rubbing impact rest forming module, Independent winding by row can variably create local rest spaces, and for mesh sections with high humidity or high adhesiveness, the rest duty (OFF ratio) of the corresponding row is temporarily increased to aid in mesh opening recovery,Conversely, when dry conditions and fluidity are good, reducing the sheath duty (OFF ratio) can lower the mesh damage rate to less than 60% of the conventional rate. By winding the four rows sequentially (left first row → center first row → center second row → right first row) or alternately (left first row & right first row ↔ center first row & center second row), a moving sheath wave atmosphere is formed, extending the mesh lifespan by 1.5 to 2 times compared to the conventional rate. Furthermore, the inclusion of a smart control module allows for automatic winding (sheath state) during dry conditions and automatic unwinding (contact / impact) during wet conditions via button input, thereby reducing over- and under-impact, simultaneously achieving pre-emptive suppression of retinal stress and minimization of mesh damage. Additionally, through a vibration-damping winch motor-type rubbing and impact sheath formation module, the 4-channel worm-shaped upper, lower, left, and right rubbing and impact formation modules are controlled individually, allowing only the rows with frequent clogging to be impacted while the other rows The purpose is to provide a hybrid retardation removal device and method comprising a multi-channel up-down-left-right mixing and striking formation and a vibration damping winch motor-type mixing and striking sheath formation, which can increase the soil sorting processing volume by 1.5 to 2 times compared to the existing method by increasing the sheath duty to maintain overall width uniformity, and can suppress the chronicity of localized partial re-clogging to less than 60% compared to the existing method by forming waves that sweep away clogging as the sheath space moves from left to right (or alternately) using a winding sequence with phase difference per row.

Description

Technology Field

[0001] The present invention relates to a hybrid retardant removal device and method comprising a multi-channel up-down-left-right rubbing and striking formation and a vibration damping type winch motor type rubbing and striking rest formation, which is applied to aggregate, quarry (quarrying), and sand washing plants, construction waste and C&D recycling, coal and mineral pretreatment and washing, and river and marine sand extraction and dredging sand classification. More specifically, the invention involves removing soil or aggregate particles that have blocked the mesh of a vibrating screen by rolling them up, down, left, and right and rubbing and striking them, and then, when in a resting state, pulling them up in the upward direction of the vibrating screen to release contact with the mesh surface of the vibrating screen. Background Technology

[0003] An inclined vibrating screen is equipment that receives aggregates from crushers or grinders and classifies them by particle size.

[0004] In other words, aggregates smaller than the mesh size of the inclined vibrating screen pass through the mesh and fall onto the smaller mesh installed below, while aggregates larger than the mesh size proceed without passing through, so the aggregates are classified by size according to the mesh mesh size.

[0005] However, during the process of crushing aggregates through a watering process to reduce dust generation during crushing or screening, powder generated or soil originally contained therein clumps together with water and acquires a certain degree of viscosity, causing a phenomenon of retardation on the mesh of the inclined vibrating screen.

[0006] To solve these problems, Patent Registration No. 10-2681549 ("Device and method for preventing retinal strain on an inclined vibrating screen using a multi-channel wave-dancing vibrating module") filed and registered by the present applicant, and Patent Application No. 10-2024-0171750 ("Device and method for removing retinal strain on a smart inclined vibrating screen using a 4-channel left-right swaying mortar-shaped weight plate module") filed by the present applicant have been presented.

[0007] However, in the case of existing multi-channel wave-dancing vibrating modules and 4-channel left-right swaying mortar-and-mortar type weight plate modules, the screen mesh surface was damaged or cracked due to excessive bouncing with surface contact rather than point contact with the screen mesh, and the problem of significantly reduced soil separation and sorting rate occurred because direct impact could not be applied to the mesh surface.

[0008] In addition, the row spacing of the 4-channel left-right oscillating mortar-type weight plate module is wide, resulting in no-impact gaps, and the low degree of freedom for phase variation makes it difficult to form up-down-left-right moving waves. Furthermore, due to wire elongation, pulley friction, and backlash, the endpoint dispersion is high, causing mismatch in impact timing and problems such as over-impact and no impact in some sections.

[0009] Furthermore, when soil blockages occurred in concentrated sections, movement up, down, left, and right based on row and column selections was difficult, making it impossible to respond to hotspots and causing the blockages to recur. Prior art literature

[0011] 1. Korean Patent Registration Publication No. 10-2681549 2. Korean Patent Application No. 10-2024-0171750 The problem to be solved

[0012] To solve the above problems, the present invention can form a continuous rubbing and striking atmosphere that rubs and strikes in the up, down, left, and right directions while bending in an S-line, along with an upward bouncing phenomenon, through the fourth worm-shaped up, down, left, and right rubbing and striking forming part, and through the low-friction rotational force of the bearing. Furthermore, by configuring a vibration-damping winch motor-type rubbing and striking rest forming module, local rest spaces can be variably created through independent winding by row. For mesh sections with high humidity or high adhesiveness, the rest duty (OFF ratio) of the corresponding row is temporarily increased to aid in mesh opening recovery, while conversely, the rest duty (OFF ratio) is reduced during dry conditions or when fluidity is good to lower the mesh damage rate. Additionally, by configuring a smart control module, automatic winding (rest state) during dry conditions and automatic during wet conditions can be controlled via button input. The purpose is to provide a hybrid retinal force removal device and method comprising a multi-channel up-down-left-right rubbing strike formation and a vibration damping winch motor type rubbing strike formation, which is driven by unwinding (contact and strike) to reduce excessive and insufficient strikes, thereby simultaneously achieving pre-suppression of retinal force and minimization of mesh damage. means of solving the problem

[0014] To achieve the above objective, the hybrid retinal force removal device according to the present invention, comprising multi-channel up-down-left-right rubbing impact forming and vibration damping type winch motor type rubbing impact forming, is

[0015] This is achieved by configuring the system to remove soil or aggregate particles that have blocked the mesh of the vibrating screen by rolling and rubbing them up, down, left, and right, and then, when in a resting state, to pull them up in the upward direction of the vibrating screen to release contact with the mesh surface of the vibrating screen.

[0017] More specifically, the hybrid retinal force removal device composed of the above-described multi-channel up-down-left-right rubbing impact formation and vibration damping type winch motor type rubbing impact formation,

[0018] A vibrating screen module (100) that, through the force of vibration and an inclined structure, causes a mixture of recycled aggregate and soil or an input made of aggregate to spread out and descend downward, thereby sorting the recycled aggregate by size and particle size on the mesh surface according to the mesh size, and

[0019] A 4-channel centipede-type up-down-left-right mixing and striking forming module (200) that is unwound through a vibration damping type winch motor-type mixing and striking forming module, is formed along the vertical longitudinal row in a 4-channel structure along the mesh surface of a vibrating screen module, receives vibration force from the vibrating screen module, and removes soil or aggregate particles clogging the mesh of the vibrating screen by rolling and mixing and striking them up-down-left-right, and

[0020] A vibration damping winch motor type rubbing strike rest forming module (300) that is positioned on one side of the upper part of a vibrating screen module on the same vertical line as the 4-channel worm-type up-down-left-right rubbing strike forming module, is connected in a vertical upright structure with the 4-channel worm-type up-down-left-right rubbing strike forming module, and through a winding mode, pulls up the 4-channel worm-type up-down-left-right rubbing strike forming module to release contact with the mesh surface of the vibrating screen and forms a resting state, and through an unwinding mode, lowers the 4-channel worm-type up-down-left-right rubbing strike forming module to bring it into contact with the mesh surface of the vibrating screen, and

[0021] The device is characterized by being composed of a smart control module (400) that controls the overall operation of each device by connecting a vibrating screen module, a 4-channel worm-type up / down / left / right mixing and striking forming module, and a vibration damping type winch motor type mixing and striking rest forming module, and then controls the removal of soil or aggregate particles that have blocked the mesh of the vibrating screen by rolling them up, down, left, and right, and when in a rest state, pulls the vibrating screen upward to release contact with the mesh surface of the vibrating screen. Effects of the invention

[0023] As explained above, in the present invention

[0025] First, through the fourth worm-shaped upper, lower, left, and right rubbing strike forming part, and through the upper, lower, left, and right rubbing rolling and the low-friction rotational force of the bearing, a continuous rubbing strike atmosphere can be formed that is bent in an S-line and rubs strikes up, down, left, and right along with a bouncing phenomenon in the upward direction, and the impact peak can be dispersed by receiving the force of vibration. Furthermore, by forming a multi-point contact of a straight protrusion and a rounded shape with a convex end, rubbing strikes can be made up, down, left, and right as if kissing a hole in the mesh, thereby improving the retinal force removal rate by 80% compared to the existing one, and above all, it can prevent getting stuck in the hole of the mesh and being unable to come out.

[0027] Second, by configuring a vibration-damping winch motor-type mixing and striking rest formation module, local rest spaces can be variably created through independent winding by row. For mesh sections with high humidity or high adhesiveness, the rest duty (OFF ratio) of the corresponding row can be temporarily increased to help restore mesh openings. Conversely, when dry and fluidity is good, the rest duty (OFF ratio) can be reduced to lower the mesh damage rate to 60% or less compared to the existing method. Additionally, by winding the four rows sequentially (left first row → center first row → center second row → right first row) or alternately (left first row · right first row ↔ center first row · center second row), a moving rest wave atmosphere is formed, which can extend the mesh life by 1.5 to 2 times compared to the existing method.

[0029] Third, by configuring a smart control module, automatic winding (rest state) during dry operation and automatic unwinding (contact / impact) during wet operation can be driven via button input, thereby reducing over- and under-impact, which can simultaneously achieve pre-emptive suppression of reticular entanglement and minimization of mesh damage. Additionally, by controlling the 4-channel worm-shaped up, down, left, and right rubbing and impact forming modules through a vibration-damping winch motor-type rubbing and impact rest forming module, only the rows with high clogging phenomena are impacted, while the rest duty of other rows is increased to maintain overall width uniformity, thereby increasing the soil sorting processing capacity by 1.5 to 2 times compared to the existing method. Furthermore, with a winding sequence having a phase difference for each row, the rest space can move from left to right (or alternately) to form a wave that sweeps away clogging, thereby suppressing the chronicity of localized partial re-clogging to less than 60% compared to the existing method. Brief explanation of the drawing

[0031] FIG. 1 is a block diagram illustrating the components of a hybrid retinal force removal device (1) formed by a multi-channel up-down-left-right rubbing strike formation and a vibration damping type winch motor type rubbing strike formation according to the present invention; FIG. 2 is a configuration diagram illustrating the components of a hybrid retinal force removal device (1) formed by a multi-channel up-down-left-right rubbing strike formation and a vibration damping type winch motor type rubbing strike formation according to the present invention; FIG. 3 is a block diagram illustrating the components of a vibration generating unit according to the present invention; FIG. 4 is a block diagram illustrating the components of a 4-channel worm-type up-down-left-right rubbing strike formation module according to the present invention; FIG. 5 is a perspective view illustrating the components of a 4-channel worm-type up-down-left-right rubbing strike formation module according to the present invention; FIG. 6 is a block diagram illustrating the components of a first worm-type up-down-left-right rubbing strike formation unit according to the present invention; FIG. 7 is a first worm-type FIG. 8 is a block diagram illustrating the components of an upper / lower / left / right rubbing strike forming part, a second worm-shaped upper / lower / left / right rubbing strike forming part, a third worm-shaped upper / lower / left / right rubbing strike forming part, and a fourth worm-shaped upper / lower / left / right rubbing strike forming part; FIG. 8 is an embodiment diagram illustrating the components of a first chain part for connecting a fixing ring, a second chain part for connecting a fixing ring, a third chain part for connecting a fixing ring, and a fourth chain part for connecting a fixing ring according to the present invention; FIG. 9 is a perspective view illustrating the components of a firsta cylindrical joint part for rubbing strike, a seconda cylindrical joint part for rubbing strike, a thirda cylindrical joint part for rubbing strike, and a fourtha cylindrical joint part for rubbing strike according to the present invention; FIG. 10 is a firstb cylindrical joint part for rubbing strike, a secondb cylindrical joint part for rubbing strike, and a thirdb A perspective view illustrating the components of a cylindrical joint for mixing and striking, and a 4b cylindrical joint for mixing and striking; FIG. 11 is a perspective view illustrating the components of a 1c cylindrical joint for mixing and striking, a 2c cylindrical joint for mixing and striking, a 3c cylindrical joint for mixing and striking, and a 4c cylindrical joint for mixing and striking according to the present invention; FIG. 12 is a perspective view illustrating a 1d cylindrical joint for mixing and striking, a 2d cylindrical joint for mixing and striking, and a 3d cylindrical joint for mixing and striking according to the present invention.FIG. 13 is a perspective view illustrating the components of the 4d cylindrical joint portion for mixing and striking, FIG. 14 is a perspective view illustrating the components of the 1e cylindrical joint portion for mixing and striking, the 2e cylindrical joint portion for mixing and striking, the 3e cylindrical joint portion for mixing and striking, and the 4e cylindrical joint portion for mixing and striking according to the present invention, FIG. 14 is a perspective view illustrating the 1a straight protrusion portion, the 1b straight protrusion portion), the 1c straight protrusion portion, the 1d straight protrusion portion, the 1e straight protrusion portion, the 2a straight protrusion portion, the 2b straight protrusion portion, the 2c straight protrusion portion), the 2d straight protrusion portion, the 2e straight protrusion portion, the 3a straight protrusion portion, the 3b straight protrusion portion, the 3c straight protrusion portion, the 3d straight protrusion portion, and the 3e straight protrusion portion. An exemplary embodiment illustrating the components of the 4a straight protrusion, the 4a straight protrusion, the 4b straight protrusion, the 4c ​​straight protrusion, the 4d straight protrusion, and the 4e straight protrusion according to the present invention. FIG. 15 illustrates the 1a straight protrusion, the 1b straight protrusion), the 1c straight protrusion, the 1d straight protrusion, the 1e straight protrusion, the 2a straight protrusion, the 2b straight protrusion, the 2c straight protrusion), the 2d straight protrusion, the 2e straight protrusion, the 3a straight protrusion, the 3b straight protrusion, the 3c straight protrusion, the 3d straight protrusion, the 3e straight protrusion, the 4a straight protrusion, and the 4a straight protrusion. FIG. 16 illustrates an embodiment in which the ends of the protrusions, 4b straight protrusions, 4c straight protrusions, 4d straight protrusions, and 4e straight protrusions are formed in a rounded shape with convex protrusions; FIG. 16 illustrates an embodiment in which a 4-channel worm-shaped up-down-left-right rubbing strike forming module, composed of a first worm-shaped up-down-left-right rubbing strike forming part, a second worm-shaped up-down-left-right rubbing strike forming part, a third worm-shaped up-down-left-right rubbing strike forming part, and a fourth worm-shaped up-down-left-right rubbing strike forming part according to the present invention, is formed in a "III" shaped rubbing strike structure; FIG. 17 illustrates the first worm-shaped up-down-left-right rubbing strike forming part according to the present invention.FIG. 18 illustrates an embodiment in which a 4-channel worm-type up-down-left-right mixing strike forming module, comprising a second worm-type up-down-left-right mixing strike forming part, a third worm-type up-down-left-right mixing strike forming part, and a fourth worm-type up-down-left-right mixing strike forming part, is formed with an "∧" shaped mixing strike structure; FIG. 19 illustrates an embodiment in which a 4-channel worm-type up-down-left-right mixing strike forming module, comprising a first worm-type up-down-left-right mixing strike forming part, a second worm-type up-down-left-right mixing strike forming part, a third worm-type up-down-left-right mixing strike forming part, and a fourth worm-type up-down-left-right mixing strike forming part, is formed with a "∨" shaped mixing strike structure; FIG. 19 illustrates the first worm-type up-down-left-right mixing strike forming part according to the present invention. An embodiment illustrating a 4-channel worm-type up-down-left-right rubbing strike forming module composed of a second worm-type up-down-left-right rubbing strike forming part, a third worm-type up-down-left-right rubbing strike forming part, and a fourth worm-type up-down-left-right rubbing strike forming part, formed in a zigzag rubbing strike structure; FIG. 20 is a block diagram illustrating the components of a vibration damping type winch motor type rubbing strike sheath forming module according to the present invention; FIG. 21 is a perspective view illustrating the components of a vibration damping type winch motor type rubbing strike sheath forming module according to the present invention; FIG. 22 is an embodiment illustrating the components of a first vibration damping type winch motor type rubbing strike sheath forming part, a second vibration damping type winch motor type rubbing strike sheath forming part, and a third vibration damping type winch motor type rubbing strike sheath forming part according to the present invention. A perspective view, FIG. 23 is an exemplary diagram illustrating the components of a first turnbuckle part, a second turnbuckle part, and a third turnbuckle part according to the present invention, FIG. 24 is an exemplary diagram illustrating the components of a first winch motor part, a second winch motor part, and a third winch motor part according to the present invention, FIG. 25 is a circuit diagram illustrating the components of a smart control module according to the present invention, FIG. 26 is a block diagram illustrating the components of a smart control module according to the present invention.FIG. 27 is an exemplary embodiment illustrating the overall operation process of an up-down-left-right rubbing impact forming device for removing retinal force in a vibrating screen mesh according to the present invention; FIG. 28 is an exemplary embodiment illustrating that a vibration damping type winch motor type rubbing impact rest forming module is driven under the control of a smart control module according to the present invention, and through a winding mode, a 4-channel worm-type up-down-left-right rubbing impact forming module is pulled up to release contact with the mesh surface of the vibrating screen and form a rest state; FIG. 29 is a flowchart illustrating an up-down-left-right rubbing impact forming method for removing retinal force in a vibrating screen mesh according to the present invention; FIG. 30 is an exemplary embodiment illustrating that a vibration damping type winch motor type rubbing impact rest forming module is driven under the control of a smart control module according to the present invention, and through an unwinding mode, a 4-channel worm-type up-down-left-right rubbing impact forming module is lowered to release contact with the mesh surface of the vibrating screen and FIG. 31 is a flowchart illustrating a specific process for forming contact, wherein a 4-channel worm-type up-down-left-right rubbing and striking forming module according to the present invention is unwound through a vibration-damping winch motor-type rubbing and striking rest forming module and is formed along the vertical longitudinal row in a 4-channel structure along the mesh surface of a vibrating screen module, receiving vibration force from the vibrating screen module to roll up, down, left, and right and rub and strike to remove soil or aggregate particles clogging the mesh of the vibrating screen, FIG. 32 is a flowchart illustrating a specific process wherein a vibration-damping winch motor-type rubbing and striking rest forming module is driven under the control of a smart control module according to the present invention, and through a winding mode, the 4-channel worm-type up-down-left-right rubbing and striking forming module is pulled up to release contact with the mesh surface of the vibrating screen and form a rest state. Specific details for implementing the invention

[0033] Hereinafter, preferred embodiments according to the present invention will be described with reference to the accompanying drawings.

[0034] FIG. 1 is a block diagram illustrating the components of a hybrid retinal force removal device (1) formed by multi-channel up-down-left-right rubbing strike formation and vibration damping type winch motor type rubbing strike rest formation according to the present invention, and FIG. 2 is a configuration diagram illustrating the components of a hybrid retinal force removal device (1) formed by multi-channel up-down-left-right rubbing strike formation and vibration damping type winch motor type rubbing strike rest formation according to the present invention, wherein soil or aggregate particles blocking the mesh of a vibrating screen are removed by rubbing strike by rolling them up, down, left, and right, and when in a rest state, they are pulled up in the upward direction of the vibrating screen to release contact with the mesh surface of the vibrating screen.

[0036] More specifically, the hybrid retinal force removal device (1) composed of the above-mentioned multi-channel up-down-left-right rubbing strike formation and vibration damping type winch motor type rubbing strike formation is

[0037] It consists of a vibration screen module (100), a 4-channel worm-type up, down, left, and right rubbing impact forming module (200), a vibration damping type winch motor type rubbing impact forming module (300), and a smart control module (400).

[0039] First, a vibrating screen module (100) according to the present invention will be described.

[0040] The above-mentioned vibrating screen module (100) uses the force of vibration and an inclined structure to spread out and move downwards an input consisting of a mixture of recycled aggregate and soil or aggregate, thereby separating the recycled aggregate by size according to the mesh size and performing particle size separation on the mesh surface.

[0041] This consists of a vibrating screen module body having an inclined structure and is formed in a longitudinal box shape with one side open, and is configured as a single mesh or a two-stage mesh screen structure consisting of an upper mesh and a lower mesh. In this invention, the single mesh is described in detail.

[0042] And, as illustrated in FIG. 2, an input part (110) is formed on one side of the upper front section, a mesh (120) is formed on one side of the lower part of the input part, a first discharge part (130) is formed on one side of the lower part of the mesh, a fixing ring (140) for a 4-channel worm-type up / down / left / right rubbing strike forming module is formed on one side of the upper head part of the mesh, a 4-channel worm-type up / down / left / right rubbing strike forming module (200) is formed on the mesh surface of the vibrating screen module, and based on the 4-channel worm-type up / down / left / right rubbing strike forming module, a vibration damping type winch motor type rubbing strike forming module (300) is formed on one side of the upper part of the vibrating screen module on a vertical line, an input button part (100a) is formed on one side of the outer direction, and on one side of the internal space of the input button part A smart control module (400) is formed and configured.

[0043] A side wall guide (150) for protecting a 4-channel worm-shaped upper, lower, left, and right rubbing impact forming module is formed on one side of the side wall on both sides of the above mesh, and a vibration generating part (160) is formed on one side of the outer side of the vibration screen module body.

[0045] The above input section (110) is located on one side of the upper front section of the vibrating screen module body and receives input materials or soil containing recycled aggregate and transmits them to the mesh of the screen section.

[0046] This involves inputting materials or soil containing recycled aggregate.

[0048] The above mesh (120) is located on one side of the lower part of the input section and plays the role of spreading out the input or soil containing recycled aggregates introduced through the force of vibration and the inclined structure, and sorting them by particle size.

[0049] This is configured by selecting an inclined screen with a length of 5m to 7m and an inclination angle of 14 to 25 degrees.

[0050] The mesh size of the above mesh varies depending on the particle size to be separated, but is formed with various mesh sizes ranging from a minimum of 5mm to a maximum of 70mm.

[0051] In addition, the mesh material is selected from one of steel mesh, rubber mesh, or urethane mesh. In the present invention, it is composed of steel mesh.

[0053] The first discharge unit (130) is located on one side of the bottom of the mesh of the vibrating screen module body and serves to drop and discharge recycled aggregate sorted by particle size toward the recycled aggregate conveyor.

[0054] Here, "by particle size" means, for example, that if the mesh size is formed to be 25mm, soil and recycled aggregate with a particle size of 24mm or less are discharged directly toward the bottom of the mesh, and recycled aggregate with a particle size of 40mm or more with a particle size of 26mm or more is discharged toward the top of the mesh.

[0056] The fixing ring (140) for the above 4-channel worm-type upper, lower, left, and right rubbing strike forming module is located on one side of the upper head portion of the mesh and serves to fix and connect the 4-channel worm-type upper, lower, left, and right rubbing strike forming module.

[0058] The above vibration generating unit (160) is formed on one side of the outer side of the vibration screen module body and serves to generate a vibration force in the vibration screen module body.

[0059] As shown in FIG. 3, a vibration weight (161) and a vibration motor (162) are configured.

[0060] The above-mentioned vibrating weight receives the vibration force generated by the vibration motor and rotates, generating an inertial force along the weight of the weight to generate a vibration force in the main body of the vibrating screen module, and transmits the vibration force generated at this time toward the 4-channel worm-shaped up, down, left, and right rubbing strike forming module, so that the 4-channel worm-shaped up, down, left, and right rubbing strike forming module forms an up, down, left, and right rubbing strike along the mesh surface of the vibrating screen.

[0062] The above vibration motor generates vibrational force and transmits it to the vibration weight.

[0063] This is configured to include a speed controller and a voltage / current controller on one side.

[0064] That is, according to the control signal of the smart control module, the speed controller and voltage / current controller are controlled to set the speed to 600~1800 rpm and the amplitude to 8mm~12mm.

[0066] Next, a 4-channel worm-shaped upper, lower, left, and right rubbing strike forming module (200) according to the present invention will be described.

[0067] The above 4-channel worm-type up-down-left-right mixing and striking forming module (200) is unwound through a vibration damping type winch motor type mixing and striking forming module and is formed along the vertical longitudinal row in a 4-channel structure along the mesh surface of the vibrating screen module, and receives the force of vibration from the vibrating screen module and plays the role of removing soil or aggregate particles that have blocked the mesh of the vibrating screen by rolling and mixing and striking them up, down, left, and right.

[0068] Here, the 4-channel structure refers to four channels, and in addition to the 4 channels, depending on the purpose and form, it is formed in various ways such as 5 channels, 6 channels, 7 channels, 8 channels, and 10 channels.

[0069] In addition, it is installed and configured with a customized size to allow the mesh surface to be rubbed and struck according to the horizontal and vertical dimensions relative to the mesh surface of the vibrating screen module.

[0070] As shown in FIGS. 4 and 5, this consists of a first worm-shaped upper / lower / left / right mixing strike forming part (210), a second worm-shaped upper / lower / left / right mixing strike forming part (220), a third worm-shaped upper / lower / left / right mixing strike forming part (230), and a fourth worm-shaped upper / lower / left / right mixing strike forming part (240).

[0072] First, the first worm-shaped upper, lower, left, and right rubbing striking forming part (210) according to the present invention will be described.

[0073] The first worm-shaped upper, lower, left, and right rubbing and striking forming part (210) is located in the first column on the left when the mesh of the vibrating screen module is viewed from the planar direction, and is unwound through the vibration damping type winch motor type rubbing and striking forming module to form a worm shape along the vertical length direction, and receives the force of vibration from the vibrating screen module to roll and rub and strike soil that is stuck or blocked in the first column on the left of the vibrating screen module in the upper, lower, left, and right directions to remove it.

[0074] Here, the term "money bug type" was coined to evoke the image of a money bug with many legs when viewed from the front of the head, bending in an S-line and striking up, down, left, and right.

[0075] As shown in FIGS. 6 and 7, this consists of a first fixed ring connecting chain part (211), a firsta cylindrical joint part for rubbing and striking (212), a firstb cylindrical joint part for rubbing and striking (213), a firstc cylindrical joint part for rubbing and striking (214), a firstd cylindrical joint part for rubbing and striking (215), and a firste cylindrical joint part for rubbing and striking (216).

[0077] [First fixed ring connecting chain part (211)]

[0079] The above-mentioned first fixed ring connecting chain part (211) is fixedly connected to the head part of the vibrating screen module and serves to position the first a cylindrical joint part (212) for mixing and striking, the first b cylindrical joint part (213) for mixing and striking, the first c cylindrical joint part (214) for mixing and striking, the first d cylindrical joint part (215) for mixing and striking, and the first e cylindrical joint part (216) for mixing and striking in the first row on the left when the mesh of the vibrating screen module is viewed in the planar direction.

[0080] This consists of multiple chains connected to form a chain structure 2m to 5m long.

[0081] Here, one chain is made of a link chain with a wire diameter (bar diameter) of 6 to 8 mm of Grade 80 (G80) alloy steel or a wire diameter (bar diameter) of 6 to 8 mm of Grade 100 (G100) alloy steel, as shown in FIG. 8.

[0082] The reason is that it can increase fatigue life and impact toughness under vibration and repeated loading.

[0084] In the case of the existing wire, due to the tension flowing along the wire, the existing 4-channel left-right swaying mortar-type weight plate module bounces only upward on the screen, causing only the surface of the screen mesh to be crushed without impacting the screen mesh clogged with soil, and became a cause of cracking. However, by configuring the first fixing ring connecting chain part according to the present invention, the force of the tension is converted into the rotation of the bearing to stop the upward bouncing phenomenon, and the 1a cylindrical joint part for rubbing impact (212), 1b cylindrical joint part for rubbing impact (213), 1c cylindrical joint part for rubbing impact (214), 1d cylindrical joint part for rubbing impact (215), and 1e cylindrical joint part for rubbing impact (216) are positioned in the first row on the left.

[0086] [1a Cylindrical joint part for rubbing and striking (212)]

[0088] The above-mentioned 1a cylindrical joint part (212) for mixing and striking is located in the first row zone of the first column on the left side of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the first row zone of the first column on the left side of the mesh by rolling it up, down, left, and right to mix and strike it.

[0089] As shown in FIG. 9, this consists of a first cylindrical joint body (212a), a first chain connecting link part (212b), a first front bearing part (212c), a first rear bearing part (212d), a first straight projection part (212e), and a first rear joint bridge connecting link part (212f).

[0091] <1a Cylindrical joint body (212a)>

[0093] The above-mentioned first cylindrical segment body (212a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0094] This is configured such that a first a connecting link portion for a chain is formed on the front central axis of the head, a first a front bearing portion is formed on one side of the rear of the first a connecting link portion for a chain, a first a rear bearing portion is formed on one side of the rear aligned with the first a front bearing portion, a plurality of first a straight protrusion portions are formed along the circumference of the surface, and a first a rear segment bridge connecting link portion is formed on the central axis of the first a rear bearing portion.

[0095] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0097] <1a Chain link part (212b)>

[0099] The above-mentioned first-a chain connecting link part (212b) is located at the front center axis of the head of the first-a cylindrical joint body and performs the role of a connecting link that connects to the first fixing link connecting chain part.

[0100] This is configured such that a front bearing part of the firsta is formed on one side of the rear of the connecting link part for the firsta chain, so that the connecting link part for the firsta chain is not fixed and stationary, but rotates in one direction to which force is applied.

[0101] As a result, the tension force transmitted from the first fixed ring connecting chain part is converted into bearing rotation, reducing the tension force to 80% or less of the existing force, thereby preventing the firsta cylindrical joint body from bouncing upward.

[0103] <1a Front bearing part (212c)>

[0105] The above-mentioned first-a front bearing portion (212c) is located on one side of the rear of the first-a chain link portion and supports the load of the first-a chain link portion while rotating the shaft of the first-a chain link portion with low friction through the bearing.

[0106] This consists of a first-a front housing, a first-a front pivot pin, a first-a front bearing, a first-a front sealing, and a first-a front grease.

[0108] <1a Rear bearing part (212d)>

[0110] The above-mentioned 1a rear bearing portion (212d) is located on one side of the rear end in alignment with the 1a front bearing portion, and supports the load of the 1a rear segment bridge connecting portion, while also serving to rotate the axial rotation of the 1a rear segment bridge connecting portion with low friction through the bearing.

[0111] This consists of a 1a rear housing, a 1a rear pivot pin, a 1a rear bearing, a 1a rear sealing, and a 1a rear grease.

[0113] <1a Straight projection (212e)>

[0115] The above-mentioned 1a straight protrusions (212e) are formed in multiple numbers on the surface of the 1a cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 1a front bearing part and the 1a rear bearing part, and roll up, down, left, and right to rub and strike, as if kissing a hole in the mesh, thereby removing soil that is stuck to or clogged in the mesh.

[0116] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the cylindrical segment body of the firsta to form a vertical upright structure.

[0117] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force of the firsta front bearing part and the firsta rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0118] The above-mentioned straight protrusion (212e) of the firsta is formed by drilling through the internal space of the firsta cylindrical joint body, inserting the straight protrusion, and welding from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0120] <1a Rear section bridge connecting link part (212f)>

[0122] The above-mentioned 1a rear section bridge connecting link part (212f) is located at the central axis of the 1a rear bearing part and serves to connect the 1b cylindrical section for rubbing impact with a carabiner-type bridge link.

[0123] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 1a cylindrical joint for rubbing and striking and the 1b cylindrical joint for rubbing and striking.

[0124] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0126] [1b Cylindrical joint part for rubbing and striking (213)]

[0128] The above-mentioned 1b cylindrical joint part (213) for mixing and striking is located in the second row zone of the first column on the left side of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the second row zone of the first column on the left side of the mesh by rolling it up, down, left, and right to mix and strike it.

[0129] As illustrated in FIG. 10, this consists of a first b cylindrical joint body (213a), a first b front joint bridge connecting link part (213b), a first b front bearing part (213c), a first b rear bearing part (213d), a first b straight projection part (213e), and a first b rear joint bridge connecting link part (213f).

[0131] <1b Cylindrical body (213a)>

[0133] The above-mentioned 1b cylindrical segment body (213a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0134] This is configured such that a first-b front segment bridge connecting link is formed on the front central axis of the head, a first-b front bearing part is formed on one side of the rear of the first-b front segment bridge connecting link, a first-b rear bearing part is formed on one side of the rear aligned with the first-b front bearing part, a plurality of first-b straight protrusions are formed along the surface perimeter, and a first-b rear segment bridge connecting link is formed on the central axis of the first-b rear bearing part.

[0135] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0137] <1b Shear joint bridge connecting link (213b)>

[0139] The above-mentioned first-b shear joint bridge connecting link (213b) is positioned at the front center axis of the head of the first-b cylindrical joint body and serves as a connecting link that connects to the first-a cylindrical joint for rubbing and striking.

[0140] This is configured such that a 1b front bearing part is formed on one side of the rear of the 1b front joint bridge connecting link part, so that the 1b front joint bridge connecting link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0141] As a result, the tension force transmitted from the 1a cylindrical joint for mixing impact is converted into rotation of the bearing, reducing the tension force to 80% or less of the existing amount, thereby preventing the 1b cylindrical joint body from bouncing upward.

[0143] <1b Front bearing section (213c)>

[0145] The above-mentioned first-b front bearing portion (213c) is located on one side of the rear of the first-b front-section bridge connecting portion, and supports the load of the first-b front-section bridge connecting portion while rotating the axis of the first-b front-section bridge connecting portion with low friction through the bearing.

[0146] This consists of a 1b front housing, a 1b front shaft pin, a 1b front bearing, a 1b front sealing, and a 1b front grease.

[0148] <1b Rear bearing section (213d)>

[0150] The above-mentioned 1b rear bearing portion (213d) is located on one side of the rear end in alignment with the 1b front bearing portion, and supports the load of the 1b rear segment bridge connecting portion, while also serving to rotate the axial rotation of the 1b rear segment bridge connecting portion with low friction through the bearing.

[0151] This consists of a 1b rear housing, a 1b rear shaft pin, a 1b rear bearing, a 1b rear sealing, and a 1b rear grease.

[0153] <1b Straight projection (213e)>

[0155] The above-mentioned 1b straight protrusions (213e) are formed in multiple numbers on the surface of the 1b cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 1b front bearing part and the 1b rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil stuck to or clogged in the mesh.

[0156] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the cylindrical body of the first b and formed into a vertical upright structure.

[0157] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force of the 1b front bearing part and the 1b rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0158] The above-mentioned straight protrusion (213e) of the firstb is formed by drilling through the internal space of the firstb cylindrical joint body, inserting the straight protrusion, and welding from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0160] <1b Rear section bridge connecting link part (213f)>

[0162] The above-mentioned 1b rear section bridge connecting link (213f) is positioned at the central axis of the 1b rear bearing section and serves to connect the 1c cylindrical section for rubbing impact with a carabiner-type bridge link.

[0163] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 1b cylindrical joint for rubbing and striking and the 1c cylindrical joint for rubbing and striking.

[0164] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0166] [1c Cylindrical joint part for mixing and striking (214)]

[0168] The above-mentioned 1c cylindrical joint part (214) for mixing and striking is located in the third row zone of the first column on the left of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the third row zone of the first column on the left of the mesh by rolling it up, down, left, and right to mix and strike it.

[0169] As illustrated in FIG. 11, this consists of a first c cylindrical joint body (214a), a first c front joint bridge connecting link part (214b), a first c front bearing part (214c), a first c rear bearing part (214d), a first c straight projection part (214e), and a first c rear joint bridge connecting link part (214f).

[0171] The above-mentioned first-c cylindrical segment body (214a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0172] This is configured such that a first c front segment bridge connecting link is formed on the front central axis of the head, a first c front bearing part is formed on one side of the rear of the first c front segment bridge connecting link, a first c rear bearing part is formed on one side of the rear aligned with the first c front bearing part, a plurality of first c straight protrusions are formed along the surface perimeter, and a first c rear segment bridge connecting link is formed on the central axis of the first c rear bearing part.

[0174] The above-mentioned first-c shear joint bridge connecting link (214b) is positioned at the front center axis of the head of the first-c cylindrical joint body and serves as a connecting link that connects to the first-c cylindrical joint for rubbing and striking.

[0175] This is configured such that a first-c front bearing part is formed on one side of the rear of the first-c front joint bridge connecting link part, so that the first-c front joint bridge connecting link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0176] As a result, the tension force transmitted from the 1b cylindrical joint for rubbing impact is converted into rotation, reducing the tension force to 80% or less of the original amount, thereby preventing the 1c cylindrical joint body from bouncing upward.

[0178] The above-mentioned first-c front bearing portion (214c) is located on one side of the rear of the first-c front-section bridge connecting portion and supports the load of the first-c front-section bridge connecting portion while serving to rotate the axis of the first-c front-section bridge connecting portion with low friction through the bearing.

[0179] This consists of a 1c front housing, a 1c front shaft pin, a 1c front bearing, a 1c front sealing, and a 1c front grease.

[0181] The above-mentioned first-c rear bearing portion (214d) is located on one side of the rear end in alignment with the first-c front bearing portion, and supports the load of the first-c rear segment bridge connecting portion, while also serving to rotate the first-c rear segment bridge connecting portion axially with low friction through the bearing.

[0182] This consists of a 1c rear housing, a 1c rear shaft pin, a 1c rear bearing, a 1c rear sealing, and a 1c rear grease.

[0184] The above-mentioned first-c straight protrusions (214e) are formed in multiple numbers on the surface of the first-c cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the first-c front bearing part and the first-c rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil that is stuck to or clogged in the mesh.

[0185] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the 1c cylindrical segment body to form a vertical upright structure.

[0186] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force of the first-c front bearing part and the first-c rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0187] The above-mentioned 1c straight protrusion (214e) is formed by drilling the internal space of the 1c cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0189] The above-mentioned 1c rear section bridge connecting link (214f) is positioned at the central axis of the 1c rear bearing section and serves to connect the 1d cylindrical section for rubbing impact with a carabiner-type bridge link.

[0190] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 1c cylindrical joint for rubbing and striking and the 1d cylindrical joint for rubbing and striking.

[0191] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0193] [1d Cylindrical joint part for rubbing and striking (215)]

[0195] The above-mentioned first-row cylindrical section (215) for rubbing and striking is located in the fourth row zone of the first column on the left of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the fourth row zone of the first column on the left of the mesh by rolling it up, down, left, and right to rub and strike it.

[0196] As shown in FIG. 12, this is composed of a first cylindrical joint body (215a), a first 1d front joint bridge connecting link part (215b), a first 1d front bearing part (215c), a first 1d rear bearing part (215d), a first 1d straight projection part (215e), and a first 1d rear joint bridge connecting link part (215f).

[0198] The above-mentioned first cylindrical segment body (215a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0199] This is configured such that a first shear segment bridge connecting link is formed on the front central axis of the head, a first front bearing part is formed on one side of the rear of the first shear segment bridge connecting link, a first rear bearing part is formed on one side of the rear aligned with the first front bearing part, a plurality of first straight protrusions are formed along the surface perimeter, and a first rear segment bridge connecting link is formed on the central axis of the first rear bearing part.

[0200] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0202] The above-mentioned first-d shear joint bridge connecting link (215b) is positioned at the front center axis of the head of the first-d cylindrical joint body and serves as a connecting link that connects to the first-d mixing striking cylindrical joint part.

[0203] This is configured such that a first front bearing part is formed on one side of the rear of the first shear joint bridge connecting link part, so that the first shear joint bridge connecting link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0204] As a result, the tension force transmitted from the 1c cylindrical joint for rubbing impact is converted into rotation, reducing the tension force to 80% or less of the original amount, thereby preventing the 1d cylindrical joint body from bouncing upward.

[0206] The above-mentioned first front bearing portion (215c) is located on one side of the rear of the first front section bridge connecting portion, and supports the load of the first front section bridge connecting portion, while also serving to rotate the axis of the first front section bridge connecting portion with low friction through the bearing.

[0207] This consists of a first front housing, a first front shaft pin, a first front bearing, a first front seal, and a first front grease.

[0209] The above-mentioned first rear bearing portion (215d) is located on one side of the rear end in alignment with the first front bearing portion, and supports the load of the first rear section bridge connecting link portion, while also serving to rotate the axis of the first rear section bridge connecting link portion with low friction through the bearing.

[0210] This consists of a first rear housing, a first rear shaft pin, a first rear bearing, a first rear seal, and a first rear grease.

[0212] The above-mentioned first-order straight protrusions (215e) are formed in multiple numbers on the surface of the first-order cylindrical body and receive vibration force from the vibrating screen module and low-friction rotational force from the first-order front bearing part and the first-order rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil that is stuck to or clogged in the mesh.

[0213] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the first cylindrical segment body to form a vertical upright structure.

[0214] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibrating screen module and the low-friction rotational force of the first front bearing part and the first rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0215] The above-mentioned first-d straight protrusion (215e) is formed by drilling the internal space of the first-d cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0217] The above-mentioned first-d rear section bridge connecting link (215f) is positioned at the central axis of the first-d rear bearing section and serves to connect the first-e cylindrical section for rubbing impact with a carabiner-type bridge link.

[0218] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 1d cylindrical joint for rubbing and striking and the 1e cylindrical joint for rubbing and striking.

[0219] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0221] [1e Cylindrical joint part for rubbing and striking (216)]

[0223] The above-mentioned first-e cylindrical joint (216) for rubbing and striking is located in the fifth row zone of the first column on the left side of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the fifth row zone of the first column on the left side of the mesh by rolling it up, down, left, and right to rub and strike it.

[0224] As shown in FIG. 13, this consists of a first-e cylindrical joint body (216a), a first-e front joint bridge connecting link part (216b), a first-e front bearing part (216c), a first-e rear bearing part (216d), and a first-e straight projection part (216e).

[0226] The above-mentioned first cylindrical segment body (216a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0227] This is configured such that a first-e shear joint bridge connecting link is formed on the front central axis of the head, a first-e front bearing part is formed on one side of the rear of the first-e shear joint bridge connecting link, a first-e rear bearing part is formed on one side of the rear aligned with the first-e front bearing part, and a plurality of first-e straight protrusions are formed along the circumference of the surface.

[0228] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0230] The above-mentioned first-e shear joint bridge connecting link (216b) is positioned at the front center axis of the head of the first-e cylindrical joint body and serves as a connecting link that connects to the first-e cylindrical joint for rubbing and striking.

[0231] This is configured such that a first-e front bearing part is formed on one side of the rear of the first-e front joint bridge connecting link part, so that the first-e front joint bridge connecting link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0232] As a result, the tension force transmitted from the 1d cylindrical joint for rubbing impact is converted into rotation of the bearing, reducing the tension force to 80% or less of the original amount, thereby preventing the 1e cylindrical joint body from bouncing upward.

[0234] The above-mentioned first-e front bearing portion (216c) is located on one side of the rear of the first-e front-section bridge connecting portion and supports the load of the first-e front-section bridge connecting portion while serving to rotate the axis of the first-e front-section bridge connecting portion with low friction through the bearing.

[0235] This consists of a first-e front housing, a first-e front shaft pin, a first-e front bearing, a first-e front sealing, and a first-e front grease.

[0237] The above-mentioned first-e rear bearing portion (216d) is located on one side of the rear in alignment with the first-e front bearing portion, and supports the load of the first-e bridge connecting portion, and when in contact with the mesh, it serves to rotate with low friction through the bearing according to the direction of the external pressure applied.

[0238] This consists of a first-e rear housing, a first-e rear pivot pin, a first-e rear bearing, a first-e rear sealing, and a first-e rear grease.

[0240] The above-mentioned first-e straight protrusions (216e) are formed in multiple numbers on the surface of the first-e cylindrical joint body and receive vibration force from the vibration screen module and low-friction rotational force from the first-e front bearing part and the first-e rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil that is stuck to or clogged in the mesh.

[0241] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the first cylindrical segment body to form a vertical upright structure.

[0242] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force from the first-e front bearing part and the first-e rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0243] The above-mentioned first-e straight protrusion (216e) is formed by drilling through the internal space of the first-e cylindrical joint body, inserting the straight protrusion, and welding from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0245] Thus, by configuring the first worm-shaped upper, lower, left, and right rubbing striking forming part consisting of the first fixed ring connecting chain part, the firsta cylindrical joint part for rubbing striking, the firstb cylindrical joint part for rubbing striking, the firstc cylindrical joint part for rubbing striking, the firstd cylindrical joint part for rubbing striking, and the firste cylindrical joint part for rubbing striking, a continuous rubbing striking atmosphere can be formed in the first row on the left of the mesh through a tension-rotation conversion type chain drive that converts tension force into rotation, left and right rolling, and the low-friction rotational force of the bearing, which causes a bouncing phenomenon in the upward direction and bends in an S-line while rubbing striking in the up, down, left, and right directions, and the impact peak can be dispersed by the bridge link conforming structure, and damage to the mesh and vibrating screen frame and fatigue failure can be reduced to 40% or less compared to the conventional method through multi-point contact of straight protrusions.

[0247] Second, the second money worm-shaped upper, lower, left, and right mixing striking forming part (220) according to the present invention will be described.

[0248] The above-mentioned second worm-shaped upper, lower, left, and right rubbing and striking forming part (220) is located in the first central row on one side of the first worm-shaped upper, lower, left, and right rubbing and striking forming part when the mesh of the vibrating screen module is viewed from the planar direction, and is unwound through the vibration damping type winch motor type rubbing and striking forming module and formed along the vertical length direction in the shape of a worm, and receives the force of vibration from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the first central row of the mesh of the vibrating screen module by rolling it up, down, left, and right and rubbing and striking it.

[0249] Here, the term "money bug type" was coined to evoke the image of a money bug with many legs when viewed from the front of the head, bending in an S-line and striking up, down, left, and right.

[0250] As shown in FIG. 7, this consists of a second fixed ring connecting chain part (221), a second a cylindrical joint part (222) for rubbing and striking, a second b cylindrical joint part (223) for rubbing and striking, a second c cylindrical joint part (224) for rubbing and striking, a second d cylindrical joint part (225) for rubbing and striking, and a second e cylindrical joint part (226) for rubbing and striking.

[0252] [Second fixed ring connecting chain part (221)]

[0254] The above second fixed ring connecting chain part (221) is fixedly connected to the head part of the vibrating screen module and serves to position the 2a cylindrical joint part (222), the 2b cylindrical joint part (223), the 2c cylindrical joint part (224), the 2d cylindrical joint part (225), and the 2e cylindrical joint part (226) in the first central row when the mesh of the vibrating screen module is viewed from the planar direction.

[0255] This consists of multiple chains connected to form a chain structure 2m to 5m long.

[0256] Here, one chain is made of a link chain with a wire diameter (bar diameter) of 6 to 8 mm of Grade 80 (G80) alloy steel or a wire diameter (bar diameter) of 6 to 8 mm of Grade 100 (G100) alloy steel, as shown in FIG. 8.

[0257] The reason is that it can increase fatigue life and impact toughness under vibration and repeated loading.

[0259] In the case of the existing wire, due to the tension flowing along the wire, the existing 4-channel left-right swaying mortar-type weight plate module bounces only upward on the screen, causing only the surface of the screen mesh to be crushed without impacting the screen mesh clogged with soil, and became a cause of cracking. However, by configuring the second fixing ring connecting chain part according to the present invention, the force of the tension is converted into the rotation of the bearing to stop the upward bouncing phenomenon, and the 2a cylindrical joint part for rubbing impact (222), 2b cylindrical joint part for rubbing impact (223), 2c cylindrical joint part for rubbing impact (224), 2d cylindrical joint part for rubbing impact (225), and 2e cylindrical joint part for rubbing impact (226) are positioned in the first central row.

[0261] [2a Cylindrical joint part for mixing and striking (222)]

[0263] The above 2a cylindrical joint part (222) for rubbing and striking is located in the first row zone of the first column of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the first row zone of the first column of the mesh by rolling it up, down, left, and right.

[0264] As shown in FIG. 9, this consists of a 2a cylindrical joint body (222a), a 2a chain connecting link part (222b), a 2a front bearing part (222c), a 2a rear bearing part (222d), a 2a straight projection part (222e), and a 2a rear joint bridge connecting link part (222f).

[0266] <2a Cylindrical joint body (222a)>

[0268] The above-mentioned 2a cylindrical segment body (222a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0269] This is configured such that a 2a chain link portion is formed on the front central axis of the head, a 2a front bearing portion is formed on one side of the rear of the 2a chain link portion, a 2a rear bearing portion is formed on one side of the rear aligned with the 2a front bearing portion, a plurality of 2a straight protrusion portions are formed along the surface perimeter, and a 2a rear segment bridge link portion is formed on the central axis of the 2a rear bearing portion.

[0270] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0272] <2a Chain link part (222b)>

[0274] The above-mentioned 2a chain connecting link part (222b) is located at the front center axis of the head of the 2a cylindrical joint body and performs the role of a connecting link that connects to the 2nd fixing link connecting chain part.

[0275] This is configured such that a 2a front bearing part is formed on one side of the rear of the 2a chain link part, so that the 2a chain link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0276] As a result, the tension force transmitted from the second fixed ring connecting chain part is converted into bearing rotation, reducing the tension force to 80% or less of the existing force, thereby preventing the seconda cylindrical joint body from bouncing upward.

[0278] <2a Front bearing part (222c)>

[0280] The above-mentioned 2a front bearing portion (222c) is located on one side of the rear of the 2a chain link portion and supports the load of the 2a chain link portion while rotating the axial rotation of the 2a chain link portion with low friction through the bearing.

[0281] This consists of a 2a front housing, a 2a front shaft pin, a 2a front bearing, a 2a front sealing, and a 2a front grease.

[0283] <2a Rear bearing part (222d)>

[0285] The above-mentioned 2a rear bearing portion (222d) is located on one side of the rear end in alignment with the 2a front bearing portion, and supports the load of the 2a rear segment bridge connecting link portion, while also serving to rotate the axial rotation of the 2a rear segment bridge connecting link portion with low friction through the bearing.

[0286] This consists of a 2a rear housing, a 2a rear shaft pin, a 2a rear bearing, a 2a rear sealing, and a 2a rear grease.

[0288] <2a Straight projection (222e)>

[0290] The above-mentioned 2a straight protrusions (222e) are formed in multiple numbers on the surface of the 2a cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 2a front bearing part and the 2a rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil stuck to or clogged in the mesh.

[0291] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the cylindrical segment body of the seconda to form a vertical upright structure.

[0292] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force of the 2a front bearing part and the 2a rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0293] The above-mentioned 2a straight protrusion (222e) is formed by drilling the internal space of the 2a cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0295] <2a Rear section bridge connecting link part (222f)>

[0297] The above 2a rear section bridge connecting link (222f) is located at the central axis of the 2a rear bearing section and serves to connect the 2b cylindrical section for rubbing impact with a carabiner-type bridge link.

[0298] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 2a cylindrical joint for rubbing and striking and the 2b cylindrical joint for rubbing and striking.

[0299] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0301] [2b Cylindrical joint part for rubbing impact (223)]

[0303] The above 2b cylindrical joint part (223) for rubbing and striking is located in the second row zone of the first central column of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the second row zone of the first central column of the mesh by rolling it up, down, left, and right.

[0304] As shown in FIG. 10, this is composed of a 2b cylindrical joint body (223a), a 2b front joint bridge connecting link part (223b), a 2b front bearing part (223c), a 2b rear bearing part (223d), a 2b straight projection part (223e), and a 2b rear joint bridge connecting link part (223f).

[0306] <2b Cylindrical body (223a)>

[0308] The above 2b cylindrical segment body (223a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0309] This is configured such that a second-b front segment bridge connecting link is formed on the front central axis of the head, a second-b front bearing part is formed on one side of the rear of the second-b front segment bridge connecting link, a second-b rear bearing part is formed on one side of the rear aligned with the second-b front bearing part, a plurality of second-b straight protrusions are formed along the surface perimeter, and a second-b rear segment bridge connecting link is formed on the central axis of the second-b rear bearing part.

[0310] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0312] <2b Shear joint bridge connecting link (223b)>

[0314] The above 2b shear joint bridge connecting link (223b) is located at the front center axis of the head of the 2b cylindrical joint body and serves as a connecting link that connects to the 2a cylindrical joint for rubbing and striking.

[0315] This is configured such that a 2b front bearing part is formed on one side of the rear of the 2b front joint bridge connecting link part, so that the 2b front joint bridge connecting link part is not fixed and stationary, but rotates in one direction where force is applied.

[0316] As a result, the tension force transmitted from the 2a cylindrical joint for mixing impact is converted into rotation of the bearing, reducing the tension force to 80% or less of the existing amount, thereby preventing the 2b cylindrical joint body from bouncing upward.

[0318] <2b Front bearing section (223c)>

[0320] The above-mentioned 2b front bearing portion (223c) is located on one side of the rear of the 2b front section bridge connecting portion, and supports the load of the 2b front section bridge connecting portion, while also serving to rotate the axial rotation of the 2b front section bridge connecting portion with low friction through the bearing.

[0321] This consists of a 2b front housing, a 2b front shaft pin, a 2b front bearing, a 2b front sealing, and a 2b front grease.

[0323] <2b Rear bearing section (223d)>

[0325] The above-mentioned 2b rear bearing portion (223d) is located on one side of the rear end in alignment with the 2b front bearing portion, and supports the load of the 2b rear segment bridge connecting link portion, while also serving to rotate the axial rotation of the 2b rear segment bridge connecting link portion with low friction through the bearing.

[0326] This consists of a 2b rear housing, a 2b rear shaft pin, a 2b rear bearing, a 2b rear seal, and a 2b rear grease.

[0328] <2b Straight projection (223e)>

[0330] The above-mentioned 2b straight protrusions (223e) are formed in multiple numbers on the surface of the 2b cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 2b front bearing part and the 2b rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil stuck to or clogged in the mesh.

[0331] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. Then, it is welded to the surface of the cylindrical body of the secondb to form a vertical upright structure.

[0332] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force of the 2b front bearing part and the 2b rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0333] The above-mentioned 2b straight protrusion (223e) is formed by drilling the internal space of the 2b cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0335] <2b Rear section bridge connecting link (223f)>

[0337] The above 2b rear section bridge connecting link (223f) is located at the central axis of the 2b rear bearing section and serves to connect the 2c cylindrical section for rubbing impact with a carabiner-type bridge link.

[0338] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 2b cylindrical joint for rubbing and striking and the 2c cylindrical joint for rubbing and striking.

[0339] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0341] [2nd c Cylindrical joint part for rubbing and striking (224)]

[0343] The above-mentioned 2c cylindrical joint part (224) for rubbing and striking is located in the third row zone of the first central column of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the third row zone of the first central column of the mesh by rolling it up, down, left, and right to rub and strike it.

[0344] As illustrated in FIG. 11, this consists of a 2c cylindrical joint body (224a), a 2c front joint bridge connecting link part (224b), a 2c front bearing part (224c), a 2c rear bearing part (224d), a 2c straight projection part (224e), and a 2c rear joint bridge connecting link part (224f).

[0346] The above-mentioned 2c cylindrical segment body (224a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0347] This is configured such that a second shear joint bridge connecting link is formed on the front central axis of the head, a second front bearing part is formed on one side of the rear of the second shear joint bridge connecting link, a second rear bearing part is formed on one side of the rear aligned with the second front bearing part, a plurality of second straight protrusions are formed along the surface perimeter, and a second rear bearing part is formed on the central axis of the second rear bearing part.

[0348] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0350] The above-mentioned 2c front section bridge connecting link (224b) is positioned at the front center axis of the head of the 2c cylindrical section body and serves as a connecting link that connects to the 2c cylindrical section for rubbing and striking.

[0351] This is configured such that a second-c front bearing part is formed on one side of the rear of the second-c front joint bridge connecting link part, so that the second-c front joint bridge connecting link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0352] As a result, the tension force transmitted from the 2b cylindrical joint for rubbing impact is converted into rotation, reducing the tension force to 80% or less of the original amount, thereby preventing the 2c cylindrical joint body from bouncing upward.

[0354] The above-mentioned 2c front bearing portion (224c) is located on one side of the rear of the 2c front section bridge connecting portion, and supports the load of the 2c front section bridge connecting portion, while also serving to rotate the axial rotation of the 2c front section bridge connecting portion with low friction through the bearing.

[0355] This consists of a 2c front housing, a 2c front shaft pin, a 2c front bearing, a 2c front sealing, and a 2c front grease.

[0357] The above-mentioned second-c rear bearing portion (224d) is located on one side of the rear end in alignment with the second-c front bearing portion, and supports the load of the second-c rear segment bridge connecting link portion, while also serving to rotate the axis of the second-c rear segment bridge connecting link portion with low friction through the bearing.

[0358] This consists of a 2c rear housing, a 2c rear shaft pin, a 2c rear bearing, a 2c rear sealing, and a 2c rear grease.

[0360] The above-mentioned 2c straight protrusions (224e) are formed in multiple numbers on the surface of the 2c cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 2c front bearing part and the 2c rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil stuck to or clogged in the mesh.

[0361] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. Then, it is welded to the surface of the 2c cylindrical segment body to form a vertical upright structure.

[0362] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force of the 2c front bearing part and the 2c rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0363] The above-mentioned 2c straight protrusion (224e) is formed by drilling the internal space of the 2c cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0365] The above 2c rear section bridge connecting link (224f) is located at the central axis of the 2c rear bearing section and serves to connect the 2d cylindrical section for rubbing impact with a carabiner-type bridge link.

[0366] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 2c cylindrical joint for rubbing and striking and the 2d cylindrical joint for rubbing and striking.

[0367] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0369] [2d Cylindrical joint part for mixing and striking (225)]

[0371] The above-mentioned second cylindrical joint (225) for rubbing and striking is located in the fourth row zone of the first central column of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the fourth row zone of the first central column of the mesh by rolling it up, down, left, and right to rub and strike it.

[0372] As shown in FIG. 12, this is composed of a second cylindrical joint body (225a), a second 2d front joint bridge connecting link part (225b), a second 2d front bearing part (225c), a second 2d rear bearing part (225d), a second 2d straight projection part (225e), and a second 2d rear joint bridge connecting link part (225f).

[0374] The above-mentioned second cylindrical segment body (225a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0375] This is configured such that a second shear segment bridge connecting link is formed on the front central axis of the head, a second front bearing part is formed on one side of the rear of the second shear segment bridge connecting link, a second rear bearing part is formed on one side of the rear aligned with the second front bearing part, a plurality of second straight protrusions are formed along the surface perimeter, and a second rear segment bridge connecting link is formed on the central axis of the second rear bearing part.

[0376] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0378] The above-mentioned second-d shear joint bridge connecting link (225b) is positioned at the front center axis of the head of the second-d cylindrical joint body and serves as a connecting link that connects to the second-d mixing striking cylindrical joint part.

[0379] This is configured such that a second front bearing part is formed on one side of the rear of the second shear joint bridge connecting link part, so that the second shear joint bridge connecting link part is not fixed and stationary, but rotates in one direction where force is applied.

[0380] As a result, the tension force transmitted from the 2c cylindrical joint for rubbing impact is converted into rotation, reducing the tension force to 80% or less of the original amount, thereby preventing the 2d cylindrical joint body from bouncing upward.

[0382] The above-mentioned second front bearing portion (225c) is located on one side of the rear of the second front section bridge connecting portion, and supports the load of the second front section bridge connecting portion, while also serving to rotate the axis of the second front section bridge connecting portion with low friction through the bearing.

[0383] This consists of a second front housing, a second front shaft pin, a second front bearing, a second front seal, and a second front grease.

[0385] The above-mentioned second rear bearing portion (225d) is located on one side of the rear end in alignment with the second front bearing portion, and supports the load of the second rear section bridge connecting link portion, while also serving to rotate the axis of the second rear section bridge connecting link portion with low friction through the bearing.

[0386] This consists of a second rear housing, a second rear shaft pin, a second rear bearing, a second rear seal, and a second rear grease.

[0388] The above-mentioned second-order straight protrusions (225e) are formed in multiple numbers on the surface of the second-order cylindrical joint body and receive vibration force from the vibration screen module and low-friction rotational force from the second-order front bearing part and the second-order rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil that is stuck to or clogged in the mesh.

[0389] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the 2d cylindrical segment body to form a vertical upright structure.

[0390] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibrating screen module and the low-friction rotational force of the second front bearing part and the second rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0391] The above-mentioned 2d straight protrusion (225e) is formed by drilling the internal space of the 2d cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0393] The above-mentioned second-d rear section bridge connecting link (225f) is positioned at the central axis of the second-d rear bearing section and serves to connect the second-e cylindrical section for rubbing impact with a carabiner-type bridge link.

[0394] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 2d cylindrical joint for rubbing and striking and the 2e cylindrical joint for rubbing and striking.

[0395] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0397] [2e Cylindrical joint part for rubbing impact (226)]

[0399] The above-mentioned 2e cylindrical joint part (226) for rubbing and striking is located in the fifth row zone of the first central column of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the fifth row zone of the first central column of the mesh by rolling it up, down, left, and right to rub and strike it.

[0400] As shown in FIG. 13, this consists of a second-e cylindrical joint body (226a), a second-e front joint bridge connecting link part (226b), a second-e front bearing part (226c), a second-e rear bearing part (226d), and a second-e straight projection part (226e).

[0402] The above-mentioned second cylindrical segment body (226a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0403] This is configured such that a second-e shear joint bridge connecting link is formed on the front central axis of the head, a second-e front bearing part is formed on one side of the rear of the second-e shear joint bridge connecting link, a second-e rear bearing part is formed on one side of the rear aligned with the second-e front bearing part, and a plurality of second-e straight protrusions are formed along the circumference of the surface.

[0404] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0406] The above-mentioned second-e shear joint bridge connecting link (226b) is positioned at the front center axis of the head of the second-e cylindrical joint body and serves as a connecting link that connects to the second-e cylindrical joint for rubbing and striking.

[0407] This is configured such that a second-e front bearing part is formed on one side of the rear of the second-e front joint bridge connecting link part, so that the second-e front joint bridge connecting link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0408] As a result, the tension force transmitted from the 2d cylindrical joint for rubbing impact is converted into rotation of the bearing, reducing the tension force to 80% or less of the original amount, thereby preventing the 2e cylindrical joint body from bouncing upward.

[0410] The above-mentioned second-e front bearing portion (226c) is located on one side of the rear of the second-e front-section bridge connecting portion and supports the load of the second-e front-section bridge connecting portion while serving to rotate the shaft of the second-e front-section bridge connecting portion with low friction through the bearing.

[0411] This consists of a second-e front housing, a second-e front shaft pin, a second-e front bearing, a second-e front sealing, and a second-e front grease.

[0413] The above-mentioned second-e rear bearing portion (226d) is located on one side of the rear in alignment with the second-e front bearing portion, and supports the load of the second-e bridge connecting portion, and when in contact with the mesh, it serves to rotate with low friction through the bearing according to the direction of the external pressure applied.

[0414] This consists of a second-e rear housing, a second-e rear shaft pin, a second-e rear bearing, a second-e rear sealing, and a second-e rear grease.

[0416] The above-mentioned second e straight protrusions (226e) are formed in multiple numbers on the surface of the second e cylindrical joint body and receive vibration force from the vibration screen module and low-friction rotational force from the second e front bearing part and the second e rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil stuck to or clogged in the mesh.

[0417] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. Then, it is welded to the surface of the 2e cylindrical segment body to form a vertical upright structure.

[0418] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force from the 2e front bearing part and the 2e rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing a hole in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the hole in the mesh and being unable to come out.

[0419] The above-mentioned 2e straight protrusion (226e) is formed by drilling the internal space of the 2e cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0421] Third, the third money bug-shaped upper, lower, left, and right mixing striking forming part (230) according to the present invention will be described.

[0422] The above-mentioned third worm-shaped upper, lower, left, and right rubbing and striking forming part (230) is located in the second central row on one side of the second worm-shaped upper, lower, left, and right rubbing and striking forming part when the mesh of the vibrating screen module is viewed from the planar direction, and is unwound through the vibration damping type winch motor type rubbing and striking forming module and formed along the vertical length direction in the shape of a worm, and receives the force of vibration from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the second central row of the mesh of the vibrating screen module by rolling it up, down, left, and right and rubbing and striking it.

[0423] Here, the term "money bug type" was coined to evoke the image of a money bug with many legs when viewed from the front of the head, bending in an S-line and striking up, down, left, and right.

[0424] As shown in FIG. 7, this consists of a third fixed ring connecting chain part (231), a thirda cylindrical joint part for rubbing and striking (232), a thirdb cylindrical joint part for rubbing and striking (223), a thirdc cylindrical joint part for rubbing and striking (234), a thirdd cylindrical joint part for rubbing and striking (235), and a thirde cylindrical joint part for rubbing and striking (236).

[0426] [Third fixed ring connecting chain part (231)]

[0428] The above third fixed ring connecting chain part (231) is fixedly connected to the head part of the vibrating screen module and serves to position the thirda cylindrical joint part (232), the thirdb cylindrical joint part (223), the thirdc cylindrical joint part (234), the thirdd cylindrical joint part (235), and the thirde cylindrical joint part (236) in the second central row when the mesh of the vibrating screen module is viewed from the planar direction.

[0429] This consists of multiple chains connected to form a chain structure 2m to 5m long.

[0430] Here, one chain is made of a link chain with a wire diameter (bar diameter) of 6 to 8 mm of Grade 80 (G80) alloy steel or a wire diameter (bar diameter) of 6 to 8 mm of Grade 100 (G100) alloy steel, as shown in FIG. 8.

[0431] The reason is that it can increase fatigue life and impact toughness under vibration and repeated loading.

[0433] In the case of the existing wire, due to the tension flowing along the wire, the existing 4-channel left-right swaying mortar-type weight plate module bounces only upward on the screen, causing only the surface of the screen mesh to be crushed without impacting the screen mesh clogged with soil, and became a cause of cracking. However, by configuring the third fixing ring connecting chain part according to the present invention, the force of the tension is converted into the rotation of the bearing to stop the upward bouncing phenomenon, and the 3a cylindrical joint part for rubbing impact (232), 3b cylindrical joint part for rubbing impact (233), 3c cylindrical joint part for rubbing impact (234), 3d cylindrical joint part for rubbing impact (235), and 3e cylindrical joint part for rubbing impact (236) are positioned in the second row in the center.

[0435] [3a Cylindrical joint part for rubbing and striking (232)]

[0437] The above 3a cylindrical joint part (232) for rubbing and striking is located in the first row zone of the second central column of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the first row zone of the second central column of the mesh by rolling it up, down, left, and right.

[0438] As shown in FIG. 9, this consists of a third cylindrical joint body (232a), a third chain connecting link part (232b), a third front bearing part (232c), a third rear bearing part (232d), a third straight projection part (232e), and a third rear joint bridge connecting link part (232f).

[0440] <3a Cylindrical joint body (232a)>

[0442] The above-mentioned thirda cylindrical segment body (232a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0443] This is configured such that a third-a chain link portion is formed on the front central axis of the head, a third-a front bearing portion is formed on one side of the rear of the third-a chain link portion, a third-a rear bearing portion is formed on one side of the rear aligned with the third-a front bearing portion, a plurality of third-a straight protrusion portions are formed along the circumference of the surface, and a third-a rear segment bridge link portion is formed on the central axis of the third-a rear bearing portion.

[0444] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0446] <3a Chain link part (232b)>

[0448] The above-mentioned third-a chain connecting link part (232b) is located at the front center axis of the head of the third-a cylindrical joint body and performs the role of a connecting link that connects to the third fixing link connecting chain part.

[0449] This is configured such that a 3a front bearing part is formed on one side of the rear of the 3a chain link part, so that the 3a chain link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0450] As a result, the tension force transmitted from the third fixed link connecting chain part is converted into bearing rotation, reducing the tension force to 80% or less of the existing amount, thereby preventing the thirda cylindrical joint body from bouncing upward.

[0452] <3a Front bearing section (232c)>

[0454] The above-mentioned 3a front bearing portion (232c) is located on one side of the rear of the 3a chain link portion and supports the load of the 3a chain link portion while serving to rotate the axial rotation of the 3a chain link portion with low friction through the bearing.

[0455] This consists of a third-a front housing, a third-a front pivot pin, a third-a front bearing, a third-a front sealing, and a third-a front grease.

[0457] <3a Rear bearing section (232d)>

[0459] The above-mentioned 3a rear bearing portion (232d) is located on one side of the rear end in alignment with the 3a front bearing portion, and supports the load of the 3a rear segment bridge connecting link portion, while also serving to rotate the axial rotation of the 3a rear segment bridge connecting link portion with low friction through the bearing.

[0460] This consists of a 3a rear housing, a 3a rear shaft pin, a 3a rear bearing, a 3a rear sealing, and a 3a rear grease.

[0462] <3a Straight projection (232e)>

[0464] The above-mentioned 3a straight protrusions (232e) are formed in multiple numbers on the surface of the 3a cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 3a front bearing part and the 3a rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil stuck to or clogged in the mesh.

[0465] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the cylindrical segment body of the thirda to form a vertical upright structure.

[0466] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force of the 3a front bearing part and the 3a rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0467] The above-mentioned straight protrusion (232e) of the 3a is formed by drilling through the internal space of the 3a cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0469] <3a Rear section bridge connecting link (232f)>

[0471] The above 3a rear section bridge connecting link (232f) is located at the central axis of the 3a rear bearing section and serves to connect the 3b cylindrical section for rubbing impact with a carabiner-type bridge link.

[0472] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 3a cylindrical joint for rubbing and striking and the 3b cylindrical joint for rubbing and striking.

[0473] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0475] [3b Cylindrical joint part for rubbing impact (233)]

[0477] The above 3b cylindrical joint part (233) for rubbing and striking is located in the second row zone of the second column of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the second row zone of the second column of the mesh by rolling it up, down, left, and right.

[0478] As shown in FIG. 10, this is composed of a third-b cylindrical joint body (233a), a third-b front joint bridge connecting link part (233b), a third-b front bearing part (233c), a third-b rear bearing part (233d), a third-b straight projection part (233e), and a third-b rear joint bridge connecting link part (233f).

[0480] <3b Cylindrical body (233a)>

[0482] The above 3b cylindrical segment body (233a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0483] This is configured such that a third-b front segment bridge connecting link is formed on the front central axis of the head, a third-b front bearing part is formed on one side of the rear of the third-b front segment bridge connecting link, a third-b rear bearing part is formed on one side of the rear aligned with the third-b front bearing part, a plurality of third-b straight protrusions are formed along the surface perimeter, and a third-b rear segment bridge connecting link is formed on the central axis of the third-b rear bearing part.

[0484] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0486] <3b Shear joint bridge connecting link (233b)>

[0488] The above 3b shear joint bridge connecting link (233b) is located at the front center axis of the head of the 3b cylindrical joint body and serves as a connecting link that connects to the 3a cylindrical joint for rubbing and striking.

[0489] This is configured such that a 3b front bearing part is formed on one side of the rear of the 3b front joint bridge connecting link part, so that the 3b front joint bridge connecting link part is not fixed and stationary, but rotates in one direction where force is applied.

[0490] As a result, the tension force transmitted from the 3a cylindrical joint for mixing impact is converted into rotation of the bearing, reducing the tension force to 80% or less of the existing amount, thereby preventing the 3b cylindrical joint body from bouncing upward.

[0492] <3b Front bearing section (233c)>

[0494] The above-mentioned 3b front bearing portion (233c) is located on one side of the rear of the 3b front section bridge connecting portion and supports the load of the 3b front section bridge connecting portion while serving to rotate the axial rotation of the 3b front section bridge connecting portion with low friction through the bearing.

[0495] This consists of a 3b front housing, a 3b front shaft pin, a 3b front bearing, a 3b front sealing, and a 3b front grease.

[0497] <3b Rear bearing section (233d)>

[0499] The above-mentioned 3b rear bearing portion (233d) is located on one side of the rear end in alignment with the 3b front bearing portion, and supports the load of the 3b rear segment bridge connecting link portion, while also serving to rotate the axial rotation of the 3b rear segment bridge connecting link portion with low friction through the bearing.

[0500] This consists of a 3b rear housing, a 3b rear shaft pin, a 3b rear bearing, a 3b rear sealing, and a 3b rear grease.

[0502] <3b Straight projection (233e)>

[0504] The above-mentioned 3b straight protrusions (233e) are formed in multiple numbers on the surface of the 3b cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 3b front bearing part and the 3b rear bearing part, and roll up, down, left, and right to rub and strike, as if kissing a hole in the mesh, thereby removing soil that is stuck to or clogged in the mesh.

[0505] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. Then, it is welded to the surface of the cylindrical body of the 3b and formed into a vertical upright structure.

[0506] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force of the 3b front bearing part and the 3b rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing a hole in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the hole of the mesh and being unable to come out.

[0507] The above-mentioned straight protrusion (233e) of the 3b is formed by drilling through the internal space of the 3b cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0509] <3b Rear section bridge connecting link (223f)>

[0511] The above 3b rear section bridge connecting link (223f) is located at the central axis of the 3b rear bearing section and serves to connect the 3c cylindrical section for rubbing impact with a carabiner-type bridge link.

[0512] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 3b cylindrical joint for rubbing and striking and the 3c cylindrical joint for rubbing and striking.

[0513] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0515] [3c Cylindrical joint part for rubbing and striking (234)]

[0517] The above-mentioned 3c cylindrical joint part (234) for rubbing and striking is located in the third row zone of the second central column of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the third row zone of the second central column of the mesh by rolling it up, down, left, and right to rub and strike it.

[0518] As illustrated in FIG. 11, this consists of a third c cylindrical joint body (234a), a third c front joint bridge connecting link part (234b), a third c front bearing part (234c), a third c rear bearing part (234d), a third c straight projection part (234e), and a third c rear joint bridge connecting link part (234f).

[0520] The above 3c cylindrical segment body (234a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0521] This is configured such that a third-c front segment bridge connecting link is formed on the front central axis of the head, a third-c front bearing part is formed on one side of the rear of the third-c front segment bridge connecting link, a third-c rear bearing part is formed on one side of the rear aligned with the third-c front bearing part, a plurality of third-c straight protrusions are formed along the circumference of the surface, and a third-c rear segment bridge connecting link is formed on the central axis of the third-c rear bearing part.

[0522] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0524] The above 3c shear joint bridge connecting link (234b) is located at the front center axis of the head of the 3c cylindrical joint body and serves as a connecting link that connects to the 3c cylindrical joint for rubbing and striking.

[0525] This is configured such that the 3c front bearing part is formed on one side of the rear of the 3c front joint bridge connecting part, so that the 3c front joint bridge connecting part is not fixed and stationary, but rotates in one direction where force is applied.

[0526] As a result, the tension force transmitted from the 3b cylindrical joint for rubbing impact is converted into rotation, reducing the tension force to 80% or less of the original amount, thereby preventing the 3c cylindrical joint body from bouncing upward.

[0528] The above-mentioned 3c front bearing portion (234c) is located on one side of the rear of the 3c front section bridge connecting portion, and supports the load of the 3c front section bridge connecting portion, while also serving to rotate the axial rotation of the 3c front section bridge connecting portion with low friction through the bearing.

[0529] This consists of a 3c front housing, a 3c front shaft pin, a 3c front bearing, a 3c front sealing, and a 3c front grease.

[0531] The above-mentioned 3c rear bearing portion (234d) is located on one side of the rear end in alignment with the 3c front bearing portion, and supports the load of the 3c rear segment bridge connecting link portion, while serving to rotate the axial rotation of the 3c rear segment bridge connecting link portion with low friction through the bearing.

[0532] This consists of a 3c rear housing, a 3c rear shaft pin, a 3c rear bearing, a 3c rear sealing, and a 3c rear grease.

[0534] The above-mentioned 3c straight protrusions (234e) are formed in multiple numbers on the surface of the 3c cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 3c front bearing part and the 3c rear bearing part, and roll up, down, left, and right to rub and strike, as if kissing a hole in the mesh, thereby removing soil that is stuck to or clogged in the mesh.

[0535] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. Then, it is welded to the surface of the 3c cylindrical segment body to form a vertical upright structure.

[0536] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibrating screen module and the low-friction rotational force of the 3c front bearing part and the 3c rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing a hole in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the hole of the mesh and being unable to come out.

[0537] The above-mentioned 3c straight protrusion (234e) is formed by drilling the internal space of the 3c cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0539] The above 3c rear section bridge connecting link (234f) is located at the central axis of the 3c rear bearing section and serves to connect the 3d cylindrical section for rubbing impact with a carabiner-type bridge link.

[0540] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 3c cylindrical joint for rubbing and striking and the 3d cylindrical joint for rubbing and striking.

[0541] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0543] [3d Cylindrical joint part for rubbing impact (235)]

[0545] The above-mentioned third cylindrical joint (235) for rubbing and striking is located in the fourth row zone of the second central column of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the fourth row zone of the second central column of the mesh by rolling it up, down, left, and right to rub and strike it.

[0546] As shown in FIG. 12, this is composed of a third cylindrical joint body (235a), a third front joint bridge connecting link part (235b), a third front bearing part (235c), a third rear bearing part (235d), a third straight projection part (235e), and a third rear joint bridge connecting link part (235f).

[0548] The above-mentioned third cylindrical segment body (235a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0549] This is configured such that a third shear segment bridge connecting link is formed on the front central axis of the head, a third front bearing part is formed on one side of the rear of the third shear segment bridge connecting link, a third rear bearing part is formed on one side of the rear aligned with the third front bearing part, a plurality of third straight protrusions are formed along the circumference of the surface, and a third rear segment bridge connecting link is formed on the central axis of the third rear bearing part.

[0550] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0552] The above-mentioned third-d shear joint bridge connecting link (235b) is positioned at the front center axis of the head of the third-d cylindrical joint body and serves as a connecting link that connects to the third-d mixing striking cylindrical joint part.

[0553] This is configured such that a third front bearing part is formed on one side of the rear of the third shear joint bridge connecting part, so that the third shear joint bridge connecting part is not fixed and stationary, but rotates in one direction to which force is applied.

[0554] As a result, the tension force transmitted from the 3c cylindrical joint for rubbing impact is converted into rotation, reducing the tension force to 80% or less of the original amount, thereby preventing the 3d cylindrical joint body from bouncing upward.

[0556] The above-mentioned third-d front bearing portion (235c) is located on one side of the rear of the third-d front-section bridge connecting portion and supports the load of the third-d front-section bridge connecting portion while serving to rotate the axis of the third-d front-section bridge connecting portion with low friction through the bearing.

[0557] This consists of a third front housing, a third front shaft pin, a third front bearing, a third front seal, and a third front grease.

[0559] The above-mentioned third rear bearing portion (235d) is located on one side of the rear end in alignment with the third front bearing portion, and supports the load of the third rear section bridge connecting link portion, while also serving to rotate the axis of the third rear section bridge connecting link portion with low friction through the bearing.

[0560] This consists of a third rear housing, a third rear shaft pin, a third rear bearing, a third rear seal, and third rear grease.

[0562] The above-mentioned third-d straight protrusions (235e) are formed in multiple numbers on the surface of the third-d cylindrical joint body and receive vibration force from the vibration screen module and low-friction rotational force from the third-d front bearing part and the third-d rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil that is stuck to or clogged in the mesh.

[0563] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the 3d cylindrical segment body to form a vertical upright structure.

[0564] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibrating screen module and the low-friction rotational force of the 3d front bearing part and the 3d rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing a hole in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the hole of the mesh and being unable to come out.

[0565] The above-mentioned 3d straight protrusion (235e) is formed by drilling the internal space of the 3d cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0567] The above-mentioned third-d rear section bridge connecting link (235f) is positioned at the central axis of the third-d rear bearing section and serves to connect the third-e cylindrical section for rubbing impact with a carabiner-type bridge link.

[0568] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 3d cylindrical joint for rubbing and striking and the 3e cylindrical joint for rubbing and striking.

[0569] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0571] [3e Cylindrical joint part for rubbing impact (236)]

[0573] The above-mentioned third-e cylindrical joint (236) for rubbing and striking is located in the fifth row zone of the second central column of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the fifth row zone of the second central column of the mesh by rolling it up, down, left, and right to rub and strike it.

[0574] As shown in FIG. 13, this consists of a third-e cylindrical joint body (236a), a third-e front joint bridge connecting link part (236b), a third-e front bearing part (236c), a third-e rear bearing part (236d), and a third-e straight projection part (236e).

[0576] The above 3e cylindrical segment body (236a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0577] This is configured such that a third-e shear joint bridge connecting link is formed on the front central axis of the head, a third-e front bearing part is formed on one side of the rear of the third-e shear joint bridge connecting link, a third-e rear bearing part is formed on one side of the rear aligned with the third-e front bearing part, and a plurality of third-e straight protrusions are formed along the circumference of the surface.

[0578] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0580] The above-mentioned third-e shear joint bridge connecting link (236b) is positioned at the front center axis of the head of the third-e cylindrical joint body and serves as a connecting link that connects to the third-e cylindrical joint for rubbing and striking.

[0581] This is configured such that a third-e front bearing part is formed on one side of the rear of the third-e front joint bridge connecting link part, so that the third-e front joint bridge connecting link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0582] As a result, the tension force transmitted from the 3d cylindrical joint for rubbing impact is converted into rotation of the bearing, reducing the tension force to 80% or less of the original amount, thereby preventing the 3e cylindrical joint body from bouncing upward.

[0584] The above-mentioned third-e front bearing portion (236c) is located on one side of the rear of the third-e front-section bridge connecting portion and supports the load of the third-e front-section bridge connecting portion while serving to rotate the axis of the third-e front-section bridge connecting portion with low friction through the bearing.

[0585] This consists of a third-e front housing, a third-e front shaft pin, a third-e front bearing, a third-e front sealing, and a third-e front grease.

[0587] The above-mentioned third-e rear bearing portion (236d) is located on one side of the rear in alignment with the third-e front bearing portion, and supports the load of the third-e bridge connecting portion, and when in contact with the mesh, it serves to rotate with low friction through the bearing according to the direction of the external pressure applied.

[0588] This consists of a third-e rear housing, a third-e rear shaft pin, a third-e rear bearing, a third-e rear sealing, and a third-e rear grease.

[0590] The above-mentioned third-e straight protrusions (236e) are formed in multiple numbers on the surface of the third-e cylindrical joint body and receive vibration force from the vibration screen module and low-friction rotational force from the third-e front bearing part and the third-e rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil that is stuck to or clogged in the mesh.

[0591] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. Then, it is welded to the surface of the 3e cylindrical segment body to form a vertical upright structure.

[0592] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force from the 3e front bearing part and the 3e rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing a hole in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the hole in the mesh and being unable to come out.

[0593] The above-mentioned 3e straight protrusion (236e) is formed by drilling the internal space of the 3e cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0595] Fourth, the fourth worm-shaped upper, lower, left, and right mixing striking forming part (240) according to the present invention will be described.

[0596] The above-mentioned fourth worm-shaped upper, lower, left, and right rubbing and striking forming part (240) is located in the first right column of one side of the third worm-shaped upper, lower, left, and right rubbing and striking forming part when the mesh of the vibrating screen module is viewed from the planar direction, and is unwound through the vibration damping type winch motor type rubbing and striking forming module and formed along the vertical length direction in the shape of a worm, and receives the force of vibration from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the first right column of the vibrating screen module by rolling it up, down, left, and right and rubbing and striking it.

[0597] Here, the term "money bug type" was coined to evoke the image of a money bug with many legs when viewed from the front of the head, bending in an S-line and striking up, down, left, and right.

[0598] As shown in FIG. 7, this consists of a fourth fixed ring connecting chain part (241), a fourth a cylindrical joint part (242) for rubbing and striking, a fourth b cylindrical joint part (243) for rubbing and striking, a fourth c cylindrical joint part (244) for rubbing and striking, a fourth d cylindrical joint part (245) for rubbing and striking, and a fourth e cylindrical joint part (246) for rubbing and striking.

[0600] [4th fixed ring connecting chain part (241)]

[0602] The above-mentioned fourth fixed ring connecting chain part (241) is fixedly connected to the head part of the vibrating screen module and serves to position the 4a cylindrical joint part (242), the 4b cylindrical joint part (243), the 4c ​​cylindrical joint part (244), the 4d cylindrical joint part (245), and the 4e cylindrical joint part (246) for rubbing and striking in the first row on the right when the mesh of the vibrating screen module is viewed from the planar direction.

[0603] This consists of multiple chains connected to form a chain structure 2m to 5m long.

[0604] Here, one chain is made of a link chain with a wire diameter (bar diameter) of 6 to 8 mm of Grade 80 (G80) alloy steel or a wire diameter (bar diameter) of 6 to 8 mm of Grade 100 (G100) alloy steel, as shown in FIG. 8.

[0605] The reason is that it can increase fatigue life and impact toughness under vibration and repeated loading.

[0607] In the case of the existing wire, due to the tension flowing along the wire, the existing 4-channel left-right swaying mortar-type weight plate module bounces only upward on the screen, causing only the surface of the screen mesh to be crushed without impacting the screen mesh clogged with soil, and became a cause of cracking. However, by configuring the fourth fixing ring connecting chain part according to the present invention, the force of the tension is converted into the rotation of the bearing to stop the upward bouncing phenomenon, and the 4a cylindrical joint part for rubbing impact (242), 4b cylindrical joint part for rubbing impact (243), 4c cylindrical joint part for rubbing impact (244), 4d cylindrical joint part for rubbing impact (245), and 4e cylindrical joint part for rubbing impact (246) are positioned in the first row on the right.

[0609] [4a Cylindrical joint part for rubbing and striking (242)]

[0611] The above 4a cylindrical joint part (242) for rubbing and striking is located in the first row zone of the first column on the right side of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the first row zone of the first column on the right side of the mesh by rolling it up, down, left, and right to rub and strike it.

[0612] As shown in FIG. 9, this consists of a 4a cylindrical joint body (242a), a 4a chain link part (242b), a 4a front bearing part (242c), a 4a rear bearing part (242d), a 4a straight projection part (242e), and a 4a rear joint bridge link part (242f).

[0614] <4a Cylindrical body (242a)>

[0616] The above-mentioned 4a cylindrical segment body (242a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0617] This is configured such that a 4a chain link portion is formed on the front central axis of the head, a 4a front bearing portion is formed on one side of the rear of the 4a chain link portion, a 4a rear bearing portion is formed on one side of the rear aligned with the 4a front bearing portion, a plurality of 4a straight protrusion portions are formed along the surface perimeter, and a 4a rear segment bridge link portion is formed on the central axis of the 4a rear bearing portion.

[0618] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0620] <4a Chain link part (242b)>

[0622] The above-mentioned 4a chain connecting link part (242b) is located at the front center axis of the head of the 4a cylindrical joint body and performs the role of a connecting link that connects to the 4th fixing link connecting chain part.

[0623] This is configured such that the 4a front bearing part is formed on one side of the rear of the 4a chain link part, so that the 4a chain link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0624] As a result, the tension force transmitted from the chain part for the fourth fixed ring connection is converted into bearing rotation, reducing the tension force to 80% or less of the existing amount, thereby preventing the 4a cylindrical joint body from bouncing upward.

[0626] <4a Front bearing section (242c)>

[0628] The above-mentioned 4a front bearing portion (242c) is located on one side of the rear of the 4a chain link portion and supports the load of the 4a chain link portion while rotating the axial rotation of the 4a chain link portion with low friction through the bearing.

[0629] This consists of a 4a front housing, a 4a front shaft pin, a 4a front bearing, a 4a front sealing, and a 4a front grease.

[0631] <4a Rear bearing section (242d)>

[0633] The above-mentioned 4a rear bearing portion (242d) is located on one side of the rear end in alignment with the 4a front bearing portion, and supports the load of the 4a rear segment bridge connecting link portion, while also serving to rotate the axial rotation of the 4a rear segment bridge connecting link portion with low friction through the bearing.

[0634] This consists of a 4a rear housing, a 4a rear shaft pin, a 4a rear bearing, a 4a rear sealing, and a 4a rear grease.

[0636] <4a Straight projection (242e)>

[0638] The above-mentioned 4a straight protrusions (242e) are formed in multiple numbers on the surface of the 4a cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 4a front bearing part and the 4a rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil stuck to or clogged in the mesh.

[0639] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the cylindrical segment body of the 4a and formed into a vertical upright structure.

[0640] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibration screen module and the low-friction rotational force of the 4a front bearing part and the 4a rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0641] The above-mentioned 4a straight protrusion (242e) is formed by drilling the internal space of the 4a cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0643] <4a Rear section bridge connecting link (242f)>

[0645] The above 4a rear section bridge connecting link (242f) is located at the central axis of the 4a rear bearing section and serves to connect the 4b cylindrical section for rubbing impact with a carabiner-type bridge link.

[0646] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 4a cylindrical joint for rubbing and striking and the 4b cylindrical joint for rubbing and striking.

[0647] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0649] [4b Cylindrical joint part for rubbing impact (243)]

[0651] The above 4b cylindrical joint part (243) for rubbing and striking is located in the second row zone of the first column on the right side of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the second row zone of the first column on the right side of the mesh by rolling it up, down, left, and right to rub and strike it.

[0652] As illustrated in FIG. 10, this consists of a 4b cylindrical joint body (243a), a 4b front joint bridge connecting link part (243b), a 4b front bearing part (243c), a 4b rear bearing part (243d), a 4b straight projection part (243e), and a 4b rear joint bridge connecting link part (243f).

[0654] <4b Cylindrical body (243a)>

[0656] The above 4b cylindrical segment body (243a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0657] This is configured such that a 4b front segment bridge connecting link is formed on the front central axis of the head, a 4b front bearing part is formed on one side of the rear of the 4b front segment bridge connecting link, a 4b rear bearing part is formed on one side of the rear aligned with the 4b front bearing part, a plurality of 4b straight protrusions are formed along the surface perimeter, and a 4b rear segment bridge connecting link is formed on the central axis of the 4b rear bearing part.

[0658] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0660] <4b Shear section bridge connecting link (243b)>

[0662] The above 4b shear joint bridge connecting link (243b) is located at the front center axis of the head of the 4b cylindrical joint body and serves as a connecting link that connects to the 4a cylindrical joint for rubbing and striking.

[0663] This is configured such that the 4b front bearing part is formed on one side of the rear of the 4b front joint bridge connecting link part, so that the 4b front joint bridge connecting link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0664] As a result, the tension force transmitted from the 4a cylindrical joint for rubbing impact is converted into rotation of the bearing, reducing the tension force to 80% or less of the original amount, thereby preventing the 4b cylindrical joint body from bouncing upward.

[0666] <4b Front bearing section (243c)>

[0668] The above-mentioned 4b front bearing portion (243c) is located on one side of the rear of the 4b front section bridge connecting portion, and supports the load of the 4b front section bridge connecting portion, while also serving to rotate the axial rotation of the 4b front section bridge connecting portion with low friction through the bearing.

[0669] This consists of a 4b front housing, a 4b front shaft pin, a 4b front bearing, a 4b front sealing, and a 4b front grease.

[0671] <4b Rear bearing section (243d)>

[0673] The above-mentioned 4b rear bearing portion (243d) is located on one side of the rear end in alignment with the 4b front bearing portion, and supports the load of the 4b rear segment bridge connecting link portion, while also serving to rotate the axial rotation of the 4b rear segment bridge connecting link portion with low friction through the bearing.

[0674] This consists of a 4b rear housing, a 4b rear shaft pin, a 4b rear bearing, a 4b rear sealing, and a 4b rear grease.

[0676] <4b Straight projection (243e)>

[0678] The above-mentioned 4b straight protrusions (243e) are formed in multiple numbers on the surface of the 4b cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 4b front bearing part and the 4b rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil stuck to or clogged in the mesh.

[0679] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. Then, it is welded to the surface of the cylindrical body of the 4b and formed into a vertical upright structure.

[0680] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibrating screen module and the low-friction rotational force of the 4b front bearing part and the 4b rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0681] The above-mentioned 4b straight protrusion (243e) is formed by drilling the internal space of the 4b cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0683] <4b Rear section bridge connecting link (243f)>

[0685] The above 4b rear section bridge connecting link (243f) is located at the central axis of the 4b rear bearing section and serves to connect the 4c ​​cylindrical section for rubbing impact with a carabiner-type bridge link.

[0686] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 4b cylindrical joint for rubbing and striking and the 4c ​​cylindrical joint for rubbing and striking.

[0687] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0689] [4th c Cylindrical joint part for rubbing and striking (244)]

[0691] The above-mentioned 4c cylindrical joint part (244) for rubbing and striking is located in the third row zone of the first column on the right side of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the third row zone of the first column on the right side of the mesh by rolling it up, down, left, and right to rub and strike it.

[0692] As illustrated in FIG. 11, this consists of a 4c cylindrical joint body (244a), a 4c front joint bridge connecting link part (244b), a 4c front bearing part (244c), a 4c rear bearing part (244d), a 4c straight projection part (244e), and a 4c rear joint bridge connecting link part (244f).

[0694] The above 4c cylindrical segment body (244a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0695] This is configured such that a 4c front segment bridge connecting link is formed on the front central axis of the head, a 4c front bearing part is formed on one side of the rear of the 4c ​​front segment bridge connecting link, a 4c rear bearing part is formed on one side of the rear aligned with the 4c ​​front bearing part, a plurality of 4c straight protrusions are formed along the circumference of the surface, and a 4c rear segment bridge connecting link is formed on the central axis of the 4c ​​rear bearing part.

[0696] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0698] The above 4c shear joint bridge connecting link (244b) is located at the front center axis of the 4c ​​cylindrical joint body and serves as a connecting link that connects to the 4c ​​cylindrical joint for rubbing and striking.

[0699] This is configured such that a 4c front bearing part is formed on one side of the rear of the 4c ​​front joint bridge connecting link part, so that the 4c ​​front joint bridge connecting link part is not fixed and stationary, but rotates in one direction where force is applied.

[0700] As a result, the tension force transmitted from the 4b cylindrical joint for rubbing impact is converted into rotation, reducing the tension force to 80% or less of the original amount, thereby preventing the 4c ​​cylindrical joint body from bouncing upward.

[0702] The above-mentioned 4c front bearing portion (244c) is located on one side of the rear of the 4c ​​front section bridge connecting portion, and supports the load of the 4c ​​front section bridge connecting portion, while serving to rotate the axial rotation of the 4c ​​front section bridge connecting portion with low friction through the bearing.

[0703] This consists of a 4c front housing, a 4c front shaft pin, a 4c front bearing, a 4c front sealing, and a 4c front grease.

[0705] The above-mentioned 4c rear bearing portion (244d) is located on one side of the rear end in alignment with the 4c ​​front bearing portion, and supports the load of the 4c ​​rear segment bridge connecting link portion, while serving to rotate the axial rotation of the 4c ​​rear segment bridge connecting link portion with low friction through the bearing.

[0706] This consists of a 4c rear housing, a 4c rear shaft pin, a 4c rear bearing, a 4c rear sealing, and a 4c rear grease.

[0708] The above-mentioned 4c straight protrusions (244e) are formed in multiple numbers on the surface of the 4c ​​cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 4c ​​front bearing part and the 4c ​​rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil stuck to or clogged in the mesh.

[0709] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. Then, it is welded to the surface of the 4c ​​cylindrical segment body to form a vertical upright structure.

[0710] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibrating screen module and the low-friction rotational force of the 4c ​​front bearing part and the 4c ​​rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing one of the holes in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the holes of the mesh and being unable to come out.

[0711] The above-mentioned 4c straight protrusion (244e) is formed by drilling the internal space of the 4c ​​cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0713] The above 4c rear section bridge connecting link (244f) is located at the central axis of the 4c ​​rear bearing section and serves to connect the 4d cylindrical section for rubbing impact with a carabiner-type bridge link.

[0714] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 4c ​​cylindrical joint for rubbing and striking and the 4d cylindrical joint for rubbing and striking.

[0715] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0717] [4th cylindrical joint (245) for mixing and striking]

[0719] The above-mentioned 4d cylindrical joint part (245) for rubbing and striking is located in the fourth row zone of the first column on the right side of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the fourth row zone of the first column on the right side of the mesh by rolling it up, down, left, and right to rub and strike it.

[0720] As shown in FIG. 12, this is composed of a fourth cylindrical joint body (245a), a fourth 4d front joint bridge connecting link part (245b), a fourth 4d front bearing part (245c), a fourth 4d rear bearing part (245d), a fourth 4d straight projection part (245e), and a fourth 4d rear joint bridge connecting link part (245f).

[0722] The above-mentioned 4d cylindrical segment body (245a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0723] This is configured such that a 4d front segment bridge connecting link is formed on the front central axis of the head, a 4d front bearing part is formed on one side of the rear of the 4d front segment bridge connecting link, a 4d rear bearing part is formed on one side of the rear aligned with the 4d front bearing part, a plurality of 4d straight protrusions are formed along the surface perimeter, and a 4d rear segment bridge connecting link is formed on the central axis of the 4d rear bearing part.

[0724] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0726] The above-mentioned 4d shear joint bridge connecting link (245b) is positioned at the front center axis of the head of the 4d cylindrical joint body and serves as a connecting link that connects to the 4d cylindrical joint for rubbing and striking.

[0727] This is configured such that a 4d front bearing part is formed on one side of the rear of the 4d front joint bridge connecting link part, so that the 4d front joint bridge connecting link part is not fixed and stationary, but rotates in one direction where force is applied.

[0728] As a result, the tension force transmitted from the 4c ​​cylindrical joint for rubbing impact is converted into rotation, reducing the tension force to 80% or less of the original amount, thereby preventing the 4d cylindrical joint body from bouncing upward.

[0730] The above-mentioned 4d front bearing portion (245c) is located on one side of the rear of the 4d front section bridge connecting portion and supports the load of the 4d front section bridge connecting portion, while also serving to rotate the axial rotation of the 4d front section bridge connecting portion with low friction through the bearing.

[0731] This consists of a 4d front housing, a 4d front shaft pin, a 4d front bearing, a 4d front sealing, and a 4d front grease.

[0733] The above-mentioned 4d rear bearing portion (245d) is located on one side of the rear end in alignment with the 4d front bearing portion, and supports the load of the 4d rear section bridge connecting link portion, while serving to rotate the axial rotation of the 4d rear section bridge connecting link portion with low friction through the bearing.

[0734] This consists of a 4d rear housing, a 4d rear shaft pin, a 4d rear bearing, a 4d rear sealing, and a 4d rear grease.

[0736] The above-mentioned 4d straight protrusions (245e) are formed in multiple numbers on the surface of the 4d cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 4d front bearing part and the 4d rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil stuck to or clogged in the mesh.

[0737] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the 4d cylindrical segment body to form a vertical upright structure.

[0738] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibrating screen module and the low-friction rotational force of the 4d front bearing part and the 4d rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing a hole in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the hole in the mesh and being unable to come out.

[0739] The above-mentioned 4d straight protrusion (245e) is formed by drilling the internal space of the 4d cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0741] The above 4d rear section bridge connecting link (245f) is located at the central axis of the 4d rear bearing section and serves to connect the 4e cylindrical section for rubbing impact with a carabiner-type bridge link.

[0742] Here, the carabiner-type bridge ring opens with a hinge structure when one side of the head is pressed by hand and returns to its original state when the hand is released, and two or three are connected to each other to serve as a bridge connecting the 4d cylindrical joint for rubbing and striking and the 4e cylindrical joint for rubbing and striking.

[0743] In addition, it has the characteristic of being easy to detach and replace in the event of damage caused by external pressure.

[0745] [4th cylindrical joint (246) for mixing and striking]

[0747] The above-mentioned 4e cylindrical joint part (246) for rubbing and striking is located in the fifth row zone of the first column on the right side of the mesh and is formed as a cylindrical drum structure with a plurality of protrusions, and receives vibration force from the vibrating screen module and plays the role of removing soil that is stuck or blocked in the fifth row zone of the first column on the right side of the mesh by rolling it up, down, left, and right to rub and strike it.

[0748] As shown in FIG. 13, this consists of a fourth cylindrical joint body (246a), a fourth shear joint bridge connecting ring part (246b), a fourth front bearing part (246c), a fourth rear bearing part (246d), and a fourth straight projection part (246e).

[0750] The above-mentioned 4e cylindrical segment body (246a) is formed as a cylindrical drum structure with a plurality of protrusions, and serves to protect and support each device from external pressure.

[0751] This is configured such that a 4e front segment bridge connecting link is formed on the front central axis of the head, a 4e front bearing part is formed on one side of the rear of the 4e front segment bridge connecting link, a 4e rear bearing part is formed on one side of the rear aligned with the 4e front bearing part, and a plurality of 4e straight protrusions are formed along the circumference of the surface.

[0752] In addition, the total length (L) is formed to be 10cm to 30cm, and the total weight is formed to be 1 to 3kg.

[0754] The above 4e shear joint bridge connecting link (246b) is located at the front center axis of the head of the 4e cylindrical joint body and serves as a connecting link that connects to the 4e cylindrical joint for rubbing and striking.

[0755] This is configured such that a 4e front bearing part is formed on one side of the rear of the 4e front joint bridge connecting link part, so that the 4e front joint bridge connecting link part is not fixed and stationary, but rotates in one direction to which force is applied.

[0756] As a result, the tension force transmitted from the 4d cylindrical joint for rubbing impact is converted into rotation of the bearing, reducing the tension force to 80% or less of the original amount, thereby preventing the 4e cylindrical joint body from bouncing upward.

[0758] The above-mentioned 4e front bearing portion (246c) is located on one side of the rear of the 4e front section bridge connecting portion and supports the load of the 4e front section bridge connecting portion, while also serving to rotate the axial rotation of the 4e front section bridge connecting portion with low friction through the bearing.

[0759] This consists of a 4e front housing, a 4e front shaft pin, a 4e front bearing, a 4e front sealing, and a 4e front grease.

[0761] The above-mentioned 4e rear bearing part (246d) is located on one side of the rear in alignment with the 4e front bearing part, and supports the load of the 4e bridge connecting part, and when in contact with the mesh, it serves to rotate with low friction through the bearing according to the direction of the force of external pressure applied.

[0762] This consists of a 4e rear housing, a 4e rear shaft pin, a 4e rear bearing, a 4e rear sealing, and a 4e rear grease.

[0764] The above-mentioned 4e straight protrusions (246e) are formed in multiple numbers on the surface of the 4e cylindrical joint body and receive vibration force from the vibrating screen module and low-friction rotational force from the 4e front bearing part and the 4e rear bearing part, and roll up, down, left, and right to rub and strike as if kissing a hole in the mesh, thereby removing soil stuck to or clogged in the mesh.

[0765] As shown in FIG. 14, this is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. It is welded to the surface of the 4e cylindrical segment body to form a vertical upright structure.

[0766] Here, the reason the end is formed in a rounded shape with a convex protrusion is to receive the vibration force from the vibrating screen module and the low-friction rotational force from the 4e front bearing part and the 4e rear bearing part, so that it is struck in the up, down, left, and right directions as if kissing a hole in the mesh as shown in FIG. 15, and above all, to prevent it from getting stuck in the hole of the mesh and being unable to come out.

[0767] The above-mentioned 4e straight protrusion (246e) is formed by drilling the internal space of the 4e cylindrical joint body, inserting the straight protrusion, and welding it from the inside and outside to prevent the straight protrusion from falling off during the welding process.

[0769] In addition, the 4-channel worm-shaped up-down-left-right rubbing strike forming module (200) according to the present invention, which is composed of a first worm-shaped up-down-left-right rubbing strike forming part (210), a second worm-shaped up-down-left-right rubbing strike forming part (220), a third worm-shaped up-down-left-right rubbing strike forming part (230), and a fourth worm-shaped up-down-left-right rubbing strike forming part (240), is configured by selecting one of a "llll" shaped rubbing strike structure (200a), a "∧" shaped rubbing strike structure (200b), a "∨" shaped rubbing strike structure (200c), and a zigzag shaped rubbing strike structure (200d).

[0771] As shown in FIG. 16, the above "ll" type rubbing and striking structure (200a) is formed by forming the first worm-shaped up / down / left / right rubbing and striking forming part (210), the second worm-shaped up / down / left / right rubbing and striking forming part (220), the third worm-shaped up / down / left / right rubbing and striking forming part (230), and the fourth worm-shaped up / down / left / right rubbing and striking forming part (240) into a "ll" shape, and then removing soil stuck to or clogged on the surface of the net by rolling and rubbing it up, down, left, and right while maintaining the "ll" shape.

[0773] As shown in FIG. 17, the above "∧" shaped rubbing and striking structure (200b) is formed by forming the first worm-shaped upper / lower / left / right rubbing and striking forming part (210), the second worm-shaped upper / lower / left / right rubbing and striking forming part (220), the third worm-shaped upper / lower / left / right rubbing and striking forming part (230), and the fourth worm-shaped upper / lower / left / right rubbing and striking forming part (240) into an "∧" shape, and then removing soil stuck to or clogged on the surface of the net by rolling it left and right while maintaining the "∧" shape.

[0775] As shown in FIG. 18, the above "∨" shaped rubbing and striking structure (200c) is formed by forming the first worm-shaped upper, lower, left, and right rubbing and striking part (210), the second worm-shaped upper, lower, left, and right rubbing and striking part (220), the third worm-shaped upper, lower, left, and right rubbing and striking part (230), and the fourth worm-shaped upper, lower, left, and right rubbing and striking part (240) into a "∨" shape, and then rolling and rubbing and striking the soil stuck to or blocked on the surface of the net in the "∨" shape to remove it.

[0777] As shown in FIG. 19, the above zigzag-shaped rubbing and striking structure (200d) is formed by forming the first worm-shaped up-down-left-right rubbing and striking part (210), the second worm-shaped up-down-left-right rubbing and striking part (220), the third worm-shaped up-down-left-right rubbing and striking part (230), and the fourth worm-shaped up-down-left-right rubbing and striking part (240) in a zigzag shape, and then rolling and rubbing the soil stuck to or blocked on the surface of the bottom mesh in the zigzag shape to remove it.

[0779] As explained above, in addition to the 4 channels (=4 units) consisting of the first worm-shaped up / down / left / right mixing and striking forming unit, the second worm-shaped up / down / left / right mixing and striking forming unit, the third worm-shaped up / down / left / right mixing and striking forming unit, and the fourth worm-shaped up / down / left / right mixing and striking forming unit, it is composed of 6 channels (=6 units), 9 channels (=9 units), 12 channels (=12 units), and 15 channels (=15 units) depending on the purpose of use and shape.

[0781] Accordingly, a 4-channel worm-shaped up-down-left-right rubbing and striking forming module is configured according to the present invention, comprising a first worm-shaped up-down-left-right rubbing and striking forming part, a second worm-shaped up-down-left-right rubbing and striking forming part, a third worm-shaped up-down-left-right rubbing and striking forming part, and a fourth worm-shaped up-down-left-right rubbing and striking forming part. By forming a continuous scanning shear wave with a 4-channel configuration, each column executes a stroke with a different phase, and the up-down-left-right rubbing and rolling and the scrubbing of the cylindrical segment body through the bearing are carried out with a time difference. This allows for the formation of a moving shear mesh on the mesh surface even during the mesh sorting operation of the vibrating screen, thereby preemptively suppressing the re-formation of mesh force. Furthermore, by avoiding resonance with a 4-channel column structure and eliminating non-strike gaps, processing stability and noise can be improved by 80% compared to the existing method. The first worm-shaped up-down-left-right rubbing and striking forming part and the fourth worm-shaped The outermost heat of the upper, lower, left, and right mixing impact forming sections can perform an edge squeegee action to remove the stagnant layer.

[0783] Next, a vibration damping type winch motor type rubbing impact shield forming module (300) according to the present invention will be described.

[0784] The above vibration damping type winch motor type rubbing strike rest forming module (300) is positioned on one side of the upper part of the vibrating screen module on the same vertical line as the 4-channel worm-type up, down, left, and right rubbing strike forming module, and is connected to the 4-channel worm-type up, down, left, and right rubbing strike forming module in a vertical upright structure, and through a winding mode, the 4-channel worm-type up, down, left, and right rubbing strike forming module is pulled up to release contact with the mesh surface of the vibrating screen and formed into a resting state, and through an unwinding mode, the 4-channel worm-type up, down, left, and right rubbing strike forming module is lowered to form contact with the mesh surface of the vibrating screen.

[0785] As illustrated in FIGS. 20 and 21, this consists of a first vibration damping type winch motor type mixing impact shield forming part (310), a second vibration damping type winch motor type mixing impact shield forming part (320), and a third vibration damping type winch motor type mixing impact shield forming part (330).

[0787] First, the first vibration damping type winch motor type rubbing impact shield forming part (310) according to the present invention will be described.

[0788] The above-mentioned first vibration damping type winch motor type mixing impact center forming part (310) has a height of 1.5m to 3m based on the first row zone of the mesh surface of the vibration screen module when the vibration screen module is viewed from the planar direction. It is formed in a shape and connects the first row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, the first row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, the first row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, and the first row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part as one, and through a winding mode, pulls it up to release contact with the first row zone of the mesh surface of the vibrating screen and forms it in a resting state, and then through an unwinding mode, lowers it to form contact with the first row zone of the mesh surface of the vibrating screen module.

[0789] This is, as illustrated in FIG. 22, the first " It consists of a bracket (311), a first-a vertical connecting chain part (312), a first-b vertical connecting chain part (313), a first-c vertical connecting chain part (314), a first-d vertical connecting chain part (315), a first turnbuckle part (316), and a first winch motor part (317).

[0791] [1 " "Brother stand (311)]

[0793] The above first " The "type stand (311) is formed in a vertical structure in the longitudinal direction on one side of the vibrating screen module and has a height of 1.5m to 3m based on the first row zone of the mesh surface of the vacuum screen module" It is formed into a specific shape and serves to protect and support each device from external pressure.

[0794] Here, the reason for forming it at a height of 1.5m to 3m based on the first row zone of the mesh surface of the vacuum screen module is to transmit a pulling force toward the 1a, 1b, 1c, and 1d vertical connecting chain sections, which are connected as one to the 1st turnbuckle section through the winding mode of the 1st winch motor section, thereby lifting up the first row zone of the 1st worm-shaped up / down / left / right rubbing strike forming section, the first row zone of the 2nd worm-shaped up / down / left / right rubbing strike forming section, the first row zone of the 3rd worm-shaped up / down / left / right rubbing strike forming section, and the first row zone of the 4th worm-shaped up / down / left / right rubbing strike forming section, which are components of the 4-channel worm-shaped up / down / left / right rubbing strike forming module. The purpose is to release contact with the first row zone of the mesh surface of the vibrating screen to form a resting state, and then, through the release mode, transmit a releasing force toward the firsta vertical connecting chain part, the firstb vertical connecting chain part, the firstc vertical connecting chain part, and the firstd vertical connecting chain part connected as one to the first turnbuckle part, thereby lowering it and forming it to come into contact with the first row zone of the mesh surface of the vibrating screen module.

[0796] [1a Vertical connecting chain part (312)]

[0798] The above-mentioned 1a vertical connecting chain part (312) connects the first row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the first turnbuckle part, receiving the winding mode of the first winch motor part from the first turnbuckle part and transmitting a pulling force toward the first row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the first winch motor part from the first turnbuckle part and transmitting a pulling force toward the first row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module. It plays the role of transmitting the unraveling force.

[0799] This is formed and constructed as a chain structure or a rope structure.

[0801] [1b Vertical connecting chain part (313)]

[0803] The above-mentioned 1b vertical connecting chain part (313) connects the first row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the first turnbuckle part, receiving the winding mode of the first winch motor part from the first turnbuckle part and transmitting a pulling force toward the first row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the first winch motor part from the first turnbuckle part and transmitting a pulling force toward the first row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module. It plays the role of transmitting the unraveling force.

[0804] This is formed and constructed as a chain structure or a rope structure.

[0806] [1c Vertical connecting chain part (314)]

[0808] The above-mentioned first-c vertical connecting chain part (314) connects the first row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the first turnbuckle part, receiving the winding mode of the first winch motor part from the first turnbuckle part and transmitting a pulling force toward the first row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the first winch motor part from the first turnbuckle part and transmitting a pulling force toward the first row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module. It plays the role of transmitting the unraveling force.

[0809] This is formed and constructed as a chain structure or a rope structure.

[0811] [1d vertical connecting chain part (315)]

[0813] The above-mentioned first vertical connecting chain part (315) connects the first row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the first turnbuckle part, receiving the winding mode of the first winch motor part from the first turnbuckle part and transmitting a pulling force toward the first row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the first winch motor part from the first turnbuckle part and transmitting a pulling force toward the first row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module. It plays the role of transmitting the unraveling force.

[0814] This is formed and constructed as a chain structure or a rope structure.

[0816] [First Turnbuckle (316)]

[0818] The first turnbuckle part (316) is located on one side of the lower part of the first winch motor part and is formed in the shape of a vertical hollow bar in the longitudinal direction, so that the firsta vertical connecting chain part, the firstb vertical connecting chain part, the firstc vertical connecting chain part, and the firstd vertical connecting chain part are gathered and connected as one, and then receive a pulling force in winding mode from the first winch motor part and transmit it toward the firsta vertical connecting chain part, the firstb vertical connecting chain part, the firstc vertical connecting chain part, and the firstd vertical connecting chain part, and receive a unwinding force in unwinding mode from the first winch motor part and transmit it toward the firsta vertical connecting chain part, the firstb vertical connecting chain part, the firstc vertical connecting chain part, and the firstd vertical connecting chain part, and the firsta vertical connecting chain part, the firstb vertical connecting It serves to dampen vibrations transmitted through the chain section, the 1c vertical connecting chain section, and the 1d vertical connecting chain section.

[0819] As illustrated in FIG. 23, this consists of a first vertical hollow bar body (316a), an upper eyebolt part (316b), a locking nut part for the upper eyebolt (316c), a lower eyebolt part (316d), and a locking nut part for the lower eyebolt (316e).

[0821] The above-mentioned first-a vertical hollow bar body (316a) is formed in a longitudinal vertical hollow bar shape in the central portion, protecting and supporting each device from external pressure, and serving to dampen vibrations transmitted through the first-a vertical connecting chain part, the first-b vertical connecting chain part, the first-c vertical connecting chain part, and the first-d vertical connecting chain part.

[0822] This is configured such that a screw hole for an upper eyebolt is formed on one side of the upper portion, and an upper eyebolt portion is formed along the screw hole for the upper eyebolt together with a locking nut portion for the upper eyebolt, and a screw hole for a lower eyebolt is formed on one side of the lower portion, and a lower eyebolt portion is formed along the screw hole for the lower eyebolt together with a locking nut portion for the lower eyebolt.

[0823] And, the wire rope of the first winch motor part is connected to the upper eyebolt part, and the 1a vertical connecting chain part, the 1b vertical connecting chain part, the 1c vertical connecting chain part, and the 1d vertical connecting chain part are connected to the lower eyebolt part.

[0825] The upper eyebolt part (316b) is located on one side of the upper part of the 1a vertical hollow bar body and is connected to the wire rope of the 1st winch motor part, serving to support vertical loads and torsional loads.

[0827] The locking nut portion (316c) for the upper eyebolt is located between one side of the upper part of the firsta vertical hollow bar body and the upper eyebolt portion, and is formed as a nut structure, serving to fix the firsta vertical hollow bar body in the upper direction so that its length does not change during vibration.

[0829] The lower eye bolt part (316d) is located on one side of the lower part of the 1a vertical hollow bar body and is connected to the 1a vertical connecting chain part, the 1b vertical connecting chain part, the 1c vertical connecting chain part, and the 1d vertical connecting chain part, and serves to support vertical loads and torsional loads.

[0831] The locking nut portion (316e) for the lower eyebolt is located between one side of the lower part of the firsta vertical hollow bar body and the lower eyebolt portion, and is formed as a nut structure, serving to fix the lower part so that the length of the firsta vertical hollow bar body does not change during vibration.

[0833] Thus, by configuring the first turnbuckle part consisting of the 1a vertical hollow bar body, the upper eyebolt part, the locking nut part for the upper eyebolt, the lower eyebolt part, and the locking nut part for the lower eyebolt, the winding and unwinding heights and timings of the first row zone of the first worm-shaped upper / lower / left / right rubbing and striking forming part, the first row zone of the second worm-shaped upper / lower / left / right rubbing and striking forming part, the first row zone of the third worm-shaped upper / lower / left / right rubbing and striking forming part, and the first row zone of the fourth worm-shaped upper / lower / left / right rubbing and striking forming part, which are components of the 4-channel worm-shaped upper / lower / left / right rubbing and striking forming module, can be uniformly maintained, and the overall fatigue life of the module can be extended by 1.5 to 2 times compared to the conventional method by distributing vibration and shock loads, and the tension of the chain that has stretched after long-term use can be reset with only simple manual adjustment. It is possible, making maintenance easy.

[0835] [First winch motor unit (317)]

[0837] The above first winch motor unit (317) is the first " It is located on the upper head portion of the mold holder and is connected to the first turnbuckle portion, and serves to generate a pulling force in winding mode or a unwinding force in unwinding mode and transmit it to the first turnbuckle portion.

[0838] As illustrated in FIG. 24, this comprises a first electric motor (317a), a first reduction gear box (317b), a first guide roller for a winch drum (317c), a first winch drum (317d), a first wire rope (317e), a first upper and lower limit switch (317f), and a first encoder part (317g).

[0840] The first electric motor (317a) above generates rotational force.

[0841] This is driven according to the control signal of the smart control unit.

[0843] The first reduction gear box (317b) is located on one side of the rotation axis of the first electric motor and receives rotational force, converts it into low speed and high torque, and transmits it to the guide roller for the first winch drum.

[0845] The guide roller (317c) for the first winch drum is positioned between the first reduction gear box and the first winch drum and serves to rotate the first winch drum at low speed and high torque.

[0847] The first winch drum (317d) is formed as a drum structure and receives a low-speed, high-torque force from a guide roller for the first winch drum to wind up and unwind the first wire rope located on the surface.

[0849] The first wire rope (317e) is formed in a wound state on the surface of the first winch drum and is connected to the upper eyebolt portion of the first turnbuckle portion, serving to transmit a pulling force in a winding mode or a unwinding force in an unwinding mode toward the upper eyebolt portion of the first turnbuckle portion.

[0851] The first upper and lower limit switch (317f) above acts as a sensor that prevents excessive upward movement of the force pulling upward and prevents excessive downward movement of the force releasing downward.

[0852] This transmits the input signal to the smart control unit.

[0854] The first encoder unit (317g) above serves to sense the amount of winding according to rotation.

[0855] This is connected to the smart control unit and transmits winding amount sensing data to the smart control unit.

[0857] Thus, by configuring the first winch motor unit consisting of a first electric motor, a first reduction gear box, a first guide roller for the winch drum, a first winch drum, a first wire rope, a first upper and lower limit switch, and a first encoder unit, it can be remotely controlled to automatically stop after a certain period of operation under the control of the smart control unit, or to automatically stop under heating or specific load conditions, and the height of the first turnbuckle can be precisely adjusted through the first upper and lower limit switch and the first encoder unit.

[0859] The above-mentioned second vibration damping type winch motor type mixing impact center forming part (320) has a height of 1.5m to 3m based on the third row zone of the mesh surface of the vibration screen module when the vibration screen module is viewed from the planar direction. It is formed in a shape and connects the third row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, the third row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, the third row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, and the third row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part as one, and through the winding mode, pulls it up to release contact with the third row zone of the mesh surface of the vibrating screen and forms it in a resting state, and then through the unwinding mode, lowers it to form contact with the third row zone of the mesh surface of the vibrating screen module.

[0860] This is, as illustrated in FIG. 22, the second " It consists of a bracket (321), a seconda vertical connecting chain part (322), a secondb vertical connecting chain part (323), a secondc vertical connecting chain part (324), a secondd vertical connecting chain part (325), a second turnbuckle part (326), and a second winch motor part (327).

[0862] [2 " "Brother stand (321)]

[0864] The above second " The "type stand (321) is formed in a vertical structure in the longitudinal direction on one side of the vibrating screen module and has a height of 1.5m to 3m based on the third row zone of the mesh surface of the vacuum screen module" It is formed into a specific shape and serves to protect and support each device from external pressure.

[0865] Here, the reason for forming it at a height of 1.5m to 3m based on the third row zone of the mesh surface of the vacuum screen module is to transmit a pulling force toward the 2a, 2b, 2c, and 2d vertical connecting chain sections, which are connected as one to the 2nd turnbuckle section through the winding mode of the 2nd winch motor section, thereby [attaching] the third row zone area of ​​the 2nd worm-shaped up / down / left / right rubbing strike forming section, the third row zone area of ​​the 2nd worm-shaped up / down / left / right rubbing strike forming section, the third row zone area of ​​the 3rd worm-shaped up / down / left / right rubbing strike forming section, and the third row zone area of ​​the 4th worm-shaped up / down / left / right rubbing strike forming section, which are components of the 4-channel worm-shaped up / down / left / right rubbing strike forming module. The purpose is to lift it up to release contact with the third row zone of the mesh surface of the vibrating screen and form it into a resting state, and then, through the release mode, transmit a releasing force toward the 2a vertical connecting chain part, 2b vertical connecting chain part, 2c vertical connecting chain part, and 2d vertical connecting chain part connected as one to the 2nd turnbuckle part, so as to lower it and form it to come into contact with the third row zone of the mesh surface of the vibrating screen module.

[0867] [2a Vertical connecting chain part (322)]

[0869] The above-mentioned 2a vertical connecting chain part (322) connects the third row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the second turnbuckle part, receiving the winding mode of the second winch motor part from the second turnbuckle part and transmitting a force to pull up toward the third row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the second winch motor part from the second turnbuckle part, the third row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module It plays a role in transmitting the force that releases toward the area.

[0870] This is formed and constructed as a chain structure or a rope structure.

[0872] [2b Vertical connecting chain part (323)]

[0874] The above-mentioned 2b vertical connecting chain part (323) connects the third row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the second turnbuckle part, receiving the winding mode of the second winch motor part from the second turnbuckle part and transmitting a force to pull up toward the third row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the second winch motor part from the second turnbuckle part, the third row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module It plays a role in transmitting the force that releases toward the area.

[0875] This is formed and constructed as a chain structure or a rope structure.

[0877] [2c Vertical connecting chain part (324)]

[0879] The above-mentioned 2c vertical connecting chain part (324) connects the third row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the second turnbuckle part, receiving the winding mode of the second winch motor part from the second turnbuckle part and transmitting a force to pull up toward the third row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the second winch motor part from the second turnbuckle part, the third row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module It plays a role in transmitting the force that releases toward the area.

[0880] This is formed and constructed as a chain structure or a rope structure.

[0882] [2d vertical connecting chain part (325)]

[0884] The above-mentioned second vertical connecting chain part (325) connects the third row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the second turnbuckle part, receiving the winding mode of the second winch motor part from the second turnbuckle part, and transmits a force to pull up toward the third row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receives the unwinding mode of the second winch motor part from the second turnbuckle part, and the third row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module It plays a role in transmitting the force that releases toward the area.

[0885] This is formed and constructed as a chain structure or a rope structure.

[0887] [Second Turnbuckle (326)]

[0889] The above-mentioned second turnbuckle part (326) is located on one side of the lower part of the second winch motor part and is formed in the shape of a vertical hollow bar in the longitudinal direction, so that the seconda vertical connecting chain part, the secondb vertical connecting chain part, the secondc vertical connecting chain part, and the secondd vertical connecting chain part are gathered and connected as one, and then receive a pulling force in winding mode from the second winch motor part and transmit it toward the seconda vertical connecting chain part, the secondb vertical connecting chain part, the secondc vertical connecting chain part, and the secondd vertical connecting chain part, and receive a unwinding force in unwinding mode from the second winch motor part and transmit it toward the seconda vertical connecting chain part, the secondb vertical connecting chain part, the secondc vertical connecting chain part, and the secondd vertical connecting chain part, and the seconda vertical connecting It serves to dampen vibrations transmitted through the chain section, the 2c vertical connecting chain section, and the 2d vertical connecting chain section.

[0890] As shown in FIG. 23, this consists of a second vertical hollow bar body (326a), an upper eyebolt part (326b), a locking nut part for the upper eyebolt (326c), a lower eyebolt part (326d), and a locking nut part for the lower eyebolt (326e).

[0892] The above-mentioned 2a vertical hollow bar body (326a) is formed in a longitudinal vertical hollow bar shape in the central portion, protecting and supporting each device from external pressure, and serving to dampen vibrations transmitted through the 2a vertical connecting chain part, 2b vertical connecting chain part, 2c vertical connecting chain part, and 2d vertical connecting chain part.

[0893] This is configured such that a screw hole for an upper eyebolt is formed on one side of the upper portion, and an upper eyebolt portion is formed along the screw hole for the upper eyebolt together with a locking nut portion for the upper eyebolt, and a screw hole for a lower eyebolt is formed on one side of the lower portion, and a lower eyebolt portion is formed along the screw hole for the lower eyebolt together with a locking nut portion for the lower eyebolt.

[0894] And, the wire rope of the second winch motor part is connected to the upper eyebolt part, and the 2a vertical connecting chain part, the 2b vertical connecting chain part, the 2c vertical connecting chain part, and the 2d vertical connecting chain part are connected to the lower eyebolt part.

[0896] The upper eyebolt part (326b) is located on one side of the upper part of the 2a vertical hollow bar body and is connected to the wire rope of the 2nd winch motor part, serving to support vertical loads and torsional loads.

[0898] The locking nut portion (326c) for the upper eyebolt is located between one side of the upper part of the 2a vertical hollow bar body and the upper eyebolt portion, and is formed as a nut structure, serving to fix the 2a vertical hollow bar body from the upper direction so that its length does not change during vibration.

[0900] The lower eye bolt part (326d) is located on one side of the lower part of the 2a vertical hollow bar body and is connected to the 2a vertical connecting chain part, the 2b vertical connecting chain part, the 2c vertical connecting chain part, and the 2d vertical connecting chain part, and serves to support vertical loads and torsional loads.

[0902] The lower eyebolt locking nut portion (326e) is positioned between one side of the lower part of the 2a vertical hollow bar body and the lower eyebolt portion, and is formed as a nut structure, serving to fix the 2a vertical hollow bar body in the lower direction so that its length does not change during vibration.

[0904] Thus, by configuring the second turnbuckle part consisting of the seconda vertical hollow bar body, the upper eyebolt part, the locking nut part for the upper eyebolt, the lower eyebolt part, and the locking nut part for the lower eyebolt, the winding and unwinding heights and timings of the third row zone of the second worm-shaped upper / lower / left / right rubbing and striking forming part, the third row zone of the third worm-shaped upper / lower / left / right rubbing and striking forming part, the third row zone of the third worm-shaped upper / lower / left / right rubbing and striking forming part, and the third row zone of the fourth worm-shaped upper / lower / left / right rubbing and striking forming part, which are components of the 4-channel worm-shaped upper / lower / left / right rubbing and striking forming module, can be uniformly maintained, and the overall fatigue life of the module can be extended by 1.5 to 2 times compared to the conventional method by distributing vibration and shock loads, and the chain that has stretched after long-term use can be fixed with only simple manual adjustment. Maintenance is easy as the tension can be reset.

[0906] [2nd winch motor section (327)]

[0908] The above second winch motor unit (327) is the second " It is located on the upper head portion of the mold holder and is connected to the second turnbuckle portion, and serves to generate a pulling force in winding mode or a unwinding force in unwinding mode and transmit it to the second turnbuckle portion.

[0909] As shown in FIG. 24, this comprises a second electric motor (327a), a second reduction gear box (327b), a guide roller for a second winch drum (327c), a second winch drum (327d), a second wire rope (327e), a second upper and lower limit switch (327f), and a second encoder part (327g).

[0911] The second electric motor (327a) above generates rotational force.

[0912] This is driven according to the control signal of the smart control unit.

[0914] The second reduction gear box (327b) is located on one side of the rotation axis of the second electric motor and receives rotational force, converts it into low speed and high torque, and transmits it to the guide roller for the second winch drum.

[0916] The guide roller (327c) for the second winch drum is positioned between the second reduction gear box and the second winch drum and serves to rotate the second winch drum at low speed and high torque.

[0918] The second winch drum (327d) is formed as a drum structure and receives low-speed, high-torque force from the guide roller for the second winch drum to wind up and unwind the second wire rope located on the surface.

[0920] The second wire rope (327e) is formed in a wound state on the surface of the second winch drum and is connected to the upper eyebolt portion of the second turnbuckle portion, serving to transmit a pulling force in a winding mode or a unwinding force in an unwinding mode toward the upper eyebolt portion of the second turnbuckle portion.

[0922] The above second upper and lower limit switch (327f) acts as a sensor that prevents excessive upward movement of the force pulling upward and prevents excessive downward movement of the force releasing downward.

[0923] This transmits the input signal to the smart control unit.

[0925] The second encoder unit (327g) above serves to sense the amount of winding according to rotation.

[0926] This is connected to the smart control unit and transmits winding amount sensing data to the smart control unit.

[0928] Thus, by configuring the second winch motor unit consisting of a second electric motor, a second reduction gear box, a guide roller for the second winch drum, a second winch drum, a second wire rope, a second upper and lower limit switch, and a second encoder unit, it can be remotely controlled to automatically stop after a certain period of operation under the control of the smart control unit, or to automatically stop under heating or specific load conditions, and the height of the second turnbuckle can be precisely adjusted through the second upper and lower limit switch and the second encoder unit.

[0930] The above-mentioned third vibration damping type winch motor type mixing impact center forming part (330) has a height of 1.5m to 3m based on the fifth row zone of the mesh surface of the vibration screen module when the vibration screen module is viewed from the planar direction. It is formed in a shape and serves to connect the fifth row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, the fifth row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, the fifth row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, and the fifth row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part as one, and through a winding mode, pull it up to release contact with the fifth row zone of the mesh surface of the vibrating screen and form it in a resting state, and then through an unwinding mode, lower it to form contact with the fifth row zone of the mesh surface of the vibrating screen module.

[0931] This is the third " as illustrated in FIG. 22 It consists of a bracket (331), a third vertical connecting chain part (332), a third vertical connecting chain part (333), a third vertical connecting chain part (334), a third vertical connecting chain part (335), a third turnbuckle part (336), and a third winch motor part (337).

[0933] [The 3rd " "Brother stand (331)]

[0935] The above third " The "type stand (331) is formed in a vertical structure in the longitudinal direction on one side of the vibrating screen module and has a height of 1.5m to 3m based on the fifth row zone of the mesh surface of the vacuum screen module" It is formed into a specific shape and serves to protect and support each device from external pressure.

[0936] Here, the reason for forming it at a height of 1.5m to 3m based on the fifth row zone of the mesh surface of the vacuum screen module is to transmit a pulling force toward the 3a, 3b, 3c, and 3d vertical connecting chain sections, which are connected as one to the third turnbuckle section through the winding mode of the third winch motor section, thereby [attaching] the fifth row zone of the first worm-shaped up / down / left / right rubbing strike forming section, the fifth row zone of the second worm-shaped up / down / left / right rubbing strike forming section, the fifth row zone of the third worm-shaped up / down / left / right rubbing strike forming section, and the fifth row zone of the fourth worm-shaped up / down / left / right rubbing strike forming section, which are components of the 4-channel worm-shaped up / down / left / right rubbing strike forming module. The purpose is to lift it up to release contact with the fifth row zone of the mesh surface of the vibrating screen and form it into a resting state, and then, through the release mode, transmit a releasing force toward the thirda vertical connecting chain part, the thirdb vertical connecting chain part, the thirdc vertical connecting chain part, and the thirdd vertical connecting chain part connected as one to the third turnbuckle part, so as to lower it and form it to come into contact with the fifth row zone of the mesh surface of the vibrating screen module.

[0938] In addition, the third "according to the present invention" "The mounting bracket (331) is, depending on the purpose of use and shape, the first " "Brother's stand (311), second " Compared to the shape of the stand (321), it is formed to be 1.5 to 2 times higher.

[0940] [3a Vertical connecting chain part (332)]

[0942] The above-mentioned 3a vertical connecting chain part (332) connects the fifth row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the third turnbuckle part, receiving the winding mode of the third winch motor part from the third turnbuckle part and transmitting a force to pull up toward the fifth row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the third winch motor part from the third turnbuckle part, the fifth row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module It plays a role in transmitting the force that releases toward the area.

[0943] This is formed and constructed as a chain structure or a rope structure.

[0945] [3b Vertical connecting chain part (333)]

[0947] The above-mentioned 3b vertical connecting chain part (333) connects the fifth row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the third turnbuckle part, receiving the winding mode of the third winch motor part from the third turnbuckle part and transmitting a force to pull up toward the fifth row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the third winch motor part from the third turnbuckle part and the fifth row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module It plays a role in transmitting the force that releases toward the area.

[0948] This is formed and constructed as a chain structure or a rope structure.

[0950] [3c Vertical connecting chain part (334)]

[0952] The above-mentioned third-c vertical connecting chain part (334) connects the fifth row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the third turnbuckle part, receiving the winding mode of the third winch motor part from the third turnbuckle part and transmitting a force to pull up toward the fifth row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the third winch motor part from the third turnbuckle part, the fifth row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module It plays a role in transmitting the force that releases toward the area.

[0953] This is formed and constructed as a chain structure or a rope structure.

[0955] [3d vertical connecting chain part (335)]

[0957] The above-mentioned third vertical connecting chain part (335) connects the fifth row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the third turnbuckle part, receiving the winding mode of the third winch motor part from the third turnbuckle part and transmitting a force to pull up toward the fifth row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the third winch motor part from the third turnbuckle part, the fifth row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module It plays a role in transmitting the force that releases toward the area.

[0958] This is formed and constructed as a chain structure or a rope structure.

[0960] [Third Turnbuckle Section (336)]

[0962] The above-mentioned third turnbuckle (336) is located on one side of the lower end of the third winch motor unit and is formed in the shape of a vertical hollow bar in the longitudinal direction, so that the thirda vertical connecting chain unit, the thirdb vertical connecting chain unit, the thirdc vertical connecting chain unit, and the thirdd vertical connecting chain unit are gathered and connected as one, and then receive a pulling force in winding mode from the third winch motor unit and transmit it toward the thirda vertical connecting chain unit, the thirdb vertical connecting chain unit, the thirdc vertical connecting chain unit, and the thirdd vertical connecting chain unit, and receive a unwinding force in unwinding mode from the third winch motor unit and transmit it toward the thirda vertical connecting chain unit, the thirdb vertical connecting chain unit, the thirdc vertical connecting chain unit, and the thirdd vertical connecting chain unit, and the thirda vertical connecting chain unit, the thirdb vertical connecting It serves to dampen vibrations transmitted through the chain section, the 3c vertical connecting chain section, and the 3d vertical connecting chain section.

[0963] As illustrated in FIG. 23, this consists of a 3a vertical hollow bar body (336a), an upper eyebolt part (336b), a locking nut part for the upper eyebolt (336c), a lower eyebolt part (336d), and a locking nut part for the lower eyebolt (336e).

[0965] The above-mentioned 3a vertical hollow bar body (336a) is formed in a longitudinal vertical hollow bar shape in the central portion, protecting and supporting each device from external pressure, and serving to dampen vibrations transmitted through the 3a vertical connecting chain part, 3b vertical connecting chain part, 3c vertical connecting chain part, and 3d vertical connecting chain part.

[0966] This is configured such that a screw hole for an upper eyebolt is formed on one side of the upper portion, and an upper eyebolt portion is formed along the screw hole for the upper eyebolt together with a locking nut portion for the upper eyebolt, and a screw hole for a lower eyebolt is formed on one side of the lower portion, and a lower eyebolt portion is formed along the screw hole for the lower eyebolt together with a locking nut portion for the lower eyebolt.

[0967] And, the wire rope of the third winch motor part is connected to the upper eyebolt part, and the third a vertical connecting chain part, the third b vertical connecting chain part, the third c vertical connecting chain part, and the third d vertical connecting chain part are connected to the lower eyebolt part.

[0969] The upper eyebolt part (336b) is located on one side of the upper part of the 3a vertical hollow bar body and is connected to the wire rope of the 3rd winch motor part, serving to support vertical loads and torsional loads.

[0971] The locking nut portion (316c) for the upper eyebolt is located between one side of the upper part of the 3a vertical hollow bar body and the upper eyebolt portion, and is formed as a nut structure, serving to fix the 3a vertical hollow bar body from the upper direction so that its length does not change during vibration.

[0973] The lower eye bolt part (336d) is located on one side of the lower part of the 3a vertical hollow bar body and is connected to the 3a vertical connecting chain part, the 3b vertical connecting chain part, the 3c vertical connecting chain part, and the 3d vertical connecting chain part, and serves to support vertical loads and torsional loads.

[0975] The lower eyebolt locking nut portion (336e) is located between one side of the lower part of the 3a vertical hollow bar body and the lower eyebolt portion, and is formed as a nut structure, serving to fix the 3a vertical hollow bar body in the lower direction so that its length does not change during vibration.

[0977] Thus, by configuring the third turnbuckle part consisting of the thirda vertical hollow bar body, the upper eyebolt part, the locking nut part for the upper eyebolt, the lower eyebolt part, and the locking nut part for the lower eyebolt, the winding and unwinding height and timing of the fifth row zone of the first worm-shaped upper, lower, left, and right rubbing and striking forming part and the fifth row zone of the second worm-shaped upper, lower, left, and right rubbing and striking forming part, which are components of the 4-channel worm-shaped upper, lower, left, and right rubbing and striking forming module, can be uniformly maintained, and the fatigue life of the entire module can be extended by 1.5 to 2 times compared to the existing one by distributing vibration and shock loads, and maintenance is easy as the tension of the chain that has loosened after long-term use can be reset with only simple manual adjustment.

[0979] [3rd winch motor section (337)]

[0981] The above third winch motor unit (337) is the third " It is located on the upper head portion of the bracket and connected to the third turnbuckle portion, and serves to generate a pulling force in winding mode or a unwinding force in unwinding mode and transmit it to the third turnbuckle portion.

[0982] As shown in FIG. 24, this comprises a third electric motor (337a), a third reduction gear box (337b), a third guide roller for a winch drum (337c), a third winch drum (337d), a third wire rope (337e), a third upper and lower limit switch (337f), and a third encoder part (337g).

[0984] The third electric motor (337a) above generates rotational force.

[0985] This is driven according to the control signal of the smart control unit.

[0987] The above third reduction gear box (337b) is located on one side of the rotation axis of the third electric motor and receives rotational force, converts it into low speed and high torque, and transmits it to the guide roller for the third winch drum.

[0989] The guide roller (337c) for the third winch drum is positioned between the third reduction gear box and the third winch drum and serves to rotate the third winch drum at low speed and high torque.

[0991] The third winch drum (337d) is formed as a drum structure and receives low-speed, high-torque force from the guide roller for the third winch drum to wind up and unwind the third wire rope located on the surface.

[0993] The third wire rope (337e) is formed in a wound state on the surface of the third winch drum and is connected to the upper eyebolt portion of the third turnbuckle portion, serving to transmit a pulling force in a winding mode or a unwinding force in an unwinding mode toward the upper eyebolt portion of the third turnbuckle portion.

[0995] The above third upper and lower limit switch (337f) acts as a sensor that prevents excessive upward movement of the force pulling in the upward direction and prevents excessive downward movement of the force releasing in the downward direction.

[0996] This transmits the input signal to the smart control unit.

[0998] The above third encoder unit (337g) serves to sense the amount of winding according to rotation.

[0999] This is connected to the smart control unit and transmits winding amount sensing data to the smart control unit.

[1001] Thus, the third winch motor unit is configured with a third electric motor, a third reduction gear box, a guide roller for the third winch drum, a third winch drum, a third wire rope, a third upper and lower limit switch, and a third encoder unit, so that it can be remotely controlled to automatically stop after a certain period of time under the control of the smart control unit, or to automatically stop under heating or specific load conditions, and the height of the third turnbuckle can be precisely adjusted through the third upper and lower limit switch and the third encoder unit.

[1003] In this way, by configuring a vibration-damping winch motor-type mixing and striking rest-forming module consisting of a first vibration-damping winch motor-type mixing and striking rest-forming unit, a second vibration-damping winch motor-type mixing and striking rest-forming unit, and a third vibration-damping winch motor-type mixing and striking rest-forming unit, the mesh fatigue and cracking of the vibrating screen module can be reduced to 60% or less compared to the conventional method of “always striking the entire screen simultaneously” like the existing integrated striking rod structure; by implementing a “partial rest” on a zone-unit basis that allows only a specific row of mesh to rest when it is in an over-fatigued state, the mesh fatigue and cracking of the vibrating screen module can be reduced to less than the conventional level. Furthermore, for mesh sections with high humidity or high adhesiveness, the rest duty (OFF ratio) of the corresponding row is temporarily increased to aid in mesh opening recovery, while conversely, when dry and fluidity is good, the rest duty (OFF ratio) is reduced to lower the mesh damage rate compared to the conventional level It can be reduced to 60% or less, and the network lifespan can be extended by 1.5 to 2 times compared to the existing one.

[1005] Next, a smart control module (400) according to the present invention will be described.

[1006] The smart control module (400) is connected to a vibrating screen module, a soil vision sensing module, a 4-channel worm-type up / down / left / right mixing and striking forming module, and a vibration damping type winch motor type mixing and striking rest forming module, and controls the overall operation of each device, and removes soil or aggregate particles that have blocked the mesh of the vibrating screen by rolling and mixing them up, down, left, and right, and when in a rest state, controls the device to pull the vibrating screen upward to release contact with the mesh surface of the vibrating screen.

[1007] This consists of a PIC single-chip microcontroller, a microcomputer, and a microprocessor.

[1009] That is, as illustrated in FIG. 25, a button input unit (100a) is connected to one side of an input terminal, and through the button input signal, an automatic winding (rest state) input signal is input during dry operation and an automatic unwinding (contact / impact) input signal is input during wet operation; a first upper / lower limit switch (317f) is connected to one side of another input terminal to input a sensing signal that prevents an excessive increase in the force pulling upward and prevents an excessive decrease in the force unwinding downward; a first encoder unit (317g) is connected to one side of another input terminal to input a sensing signal that senses the winding amount according to rotation; a second upper / lower limit switch (327f) is connected to one side of another input terminal to input a sensor signal that prevents an excessive increase in the force pulling upward and prevents an excessive decrease in the force unwinding downward; and a second An encoder unit (327g) is connected to receive a sensing signal that senses the amount of winding according to rotation, and a third upper / lower limit switch (337f) is connected to one side of another input terminal to receive a sensing signal that prevents excessive increase in the force pulling upward and prevents excessive decrease in the force unwinding downward, and a third encoder unit (337g) is connected to one side of another input terminal to receive a sensing signal that senses the amount of winding according to rotation, and a vibration motor (172) is connected to one side of an output terminal to generate a vibration force and output an output signal to transmit it to the vibration weight, and a first electric motor (317a) is connected to one side of another output terminal to output an output signal that generates rotational force, and a second electric motor (327a) is connected to one side of another output terminal to output an output signal that generates rotational force, and a third An electric motor (337a) is connected and configured to output an output signal that generates rotational force.

[1011] As shown in FIG. 26, the smart control module (400) is configured to include a soil wet / dry input discrimination control unit (410), a winding mode control unit (420), and an unwinding mode control unit (430).

[1013] The above soil wet / dry input discrimination control unit (410) plays the role of controlling to classify and estimate whether it is a dry button input or a wet button input according to the button input signal input from the button input unit.

[1014] In other words, the wetter the soil, the more fine water films and adhesive lumps form on the surface, resulting in lower average brightness, reduced saturation, higher highlight specular, lower edge and texture density, larger size of connecting components, increased dispersion of movement speed, and irregular formation of angle changes.

[1015] In addition, the drier the soil, the clearer the particle boundaries, the higher the number of edges, and the smoother the light flow appears.

[1016] The wet and dry conditions of the soil are determined by a sensor or by the operator's visual inspection and input through a button input unit.

[1018] The above winding mode control unit (420) is driven when a dry button input is received according to a button input signal from the soil wet / dry input discrimination control unit, and winds the vibration damping type winch motor type mixing and striking forming module, pulls up the 4-channel worm-type up / down / left / right mixing and striking forming module, releases contact with the mesh surface of the vibrating screen, and controls the formation to form a rest state.

[1019] This is because, when the soil is in a dry state, the mesh damage is high during mixing and striking, so the vibration damping winch motor type mixing and striking shield forming module is driven in winding mode.

[1021] In addition, in the present invention, the third vibration damping type winch motor type mixing impact sheath forming part (330) located on the discharge side is installed 1.5 to 2 times higher than the first vibration damping type winch motor type mixing impact sheath forming part (310) and the second vibration damping type winch motor type mixing impact sheath forming part (320), and the third vibration damping type winch motor type mixing impact sheath forming part (330) is configured to be configured as a single unit in a winding mode.

[1022] The reason is that by driving only the third vibration damping type winch motor type rubbing strike forming part (330) in a winding mode, and through the third vibration damping type winch motor type rubbing strike forming part (330), even if only the fifth row zone of the first worm-type upper / lower / left / right rubbing strike forming part, the fifth row zone of the second worm-type upper / lower / left / right rubbing strike forming part, the fifth row zone of the third worm-type upper / lower / left / right rubbing strike forming part, and the fifth row zone of the fourth worm-type upper / lower / left / right rubbing strike forming part are lifted, the retinal force itself starts from the top, so there is nothing touching the net when it is lifted to the highest point.

[1023] In the present invention, when lowered by one step under the control of the winding mode control unit, the first row zone of the first worm-shaped up-down-left-right rubbing strike forming unit, the first row zone of the second worm-shaped up-down-left-right rubbing strike forming unit, the first row zone of the third worm-shaped up-down-left-right rubbing strike forming unit, and the first row zone of the fourth worm-shaped up-down-left-right rubbing strike forming unit, which are components of the 4-channel worm-shaped up-down-left-right rubbing strike forming module, are formed to come into contact with the mesh surface of the vibrating screen.

[1024] Then, when lowered to step 2, the first row zone, second row zone, and third row zone of the first worm-shaped up / down / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped up / down / left / right rubbing strike forming module, the first row zone, second row zone, and third row zone of the second worm-shaped up / down / left / right rubbing strike forming part, the first row zone, second row zone, and third row zone of the third worm-shaped up / down / left / right rubbing strike forming part, and the first row zone, second row zone, and third row zone of the fourth worm-shaped up / down / left / right rubbing strike forming part are formed to come into contact with the mesh surface of the vibrating screen.

[1025] In addition, when lowered by 3 steps, the first row zone, second row zone, third row zone, fourth row zone, and fifth row zone of the first worm-shaped upper / lower / left / right mixing strike forming part, which is a component of the channel worm-shaped upper / lower / left / right mixing strike forming module, the first row zone, second row zone, third row zone, fourth row zone, and fifth row zone of the second worm-shaped upper / lower / left / right mixing strike forming part, the first row zone, second row zone, third row zone, fourth row zone, and fifth row zone of the third worm-shaped upper / lower / left / right mixing strike forming part, and the first row of the fourth worm-shaped upper / lower / left / right mixing strike forming part The zone area, the second row zone area, the third row zone area, the fourth row zone area, and the fifth row zone area are formed to come into contact with the mesh surface of the vibrating screen.

[1027] The above-mentioned unwinding mode control unit (430) is driven when the wet button input is input according to the button input signal from the soil wet / dry input discrimination control unit, and unwinds the vibration damping type winch motor type mixing and striking formation module to control the formation of the 4-channel worm-type upper, lower, left, and right mixing and striking formation module in a 4-channel structure along the mesh surface in a vertical length direction column.

[1028] This is because when the soil is in a wet state, the retardation phenomenon is high, so the vibration damping winch motor type mixing impact damping formation module is driven in release mode.

[1029] With this configuration, local rest spaces can be variably created through independent winding by row, and the rest duty (OFF ratio) of the corresponding row can be temporarily increased for mesh sections with high humidity or high adhesiveness to help restore mesh openings, while conversely, the rest duty (OFF ratio) can be reduced when dry and fluidity is good to lower the mesh damage rate to 60% or less compared to the existing rate.

[1031] Thus, by configuring the smart control module, automatic winding (rest state) during dry operation and automatic unwinding (contact / impact) during wet operation are driven via button input, thereby reducing over- and under-impact, enabling the simultaneous achievement of pre-emptive suppression of reticular stress and minimization of mesh damage. Furthermore, by individually controlling the 4-channel worm-type up, down, left, and right rubbing and impact forming modules through a vibration-damping winch motor-type rubbing and impact rest formation module, only the rows with frequent clogging are impacted, while the rest duty is increased for other rows to maintain overall width uniformity. Consequently, the soil sorting processing capacity can be increased by 1.5 to 2 times compared to conventional methods. Additionally, through a winding sequence with phase differences for each row, the rest space moves from left to right (or alternately) to form waves that sweep away clogging, thereby suppressing the chronicity of localized partial re-clogging to less than 60% of conventional levels. Moreover, by switching directly from the dry state to automatic non-contact (winding), mesh fatigue and bolts The progression of loosening and frame cracks can be suppressed to 40% or less compared to existing methods.

[1033] Hereinafter, a hybrid method for removing retinal force according to the present invention, comprising multi-channel up-down-left-right rubbing strike formation and vibration damping type winch motor type rubbing strike formation, will be described.

[1035] FIG. 29 is a flowchart illustrating a method for forming upper, lower, left, and right rubbing strikes for removing retinal force in a vibrating screen mesh according to the present invention.

[1037] First, the vibrating screen module is driven under the control of the smart control module, and through the force of vibration and the inclined structure, the input material consisting of a mixture of recycled aggregate and soil or aggregate is spread out and moved downward, thereby separating the recycled aggregate by size according to the mesh size and separating the particle size on the mesh surface (S10).

[1038] At this time, under the control of the smart control module, the vibration damping winch motor type rubbing impact forming module is driven, and through the winding mode, the 4-channel worm-type up, down, left, and right rubbing impact forming module is lifted to release contact with the mesh surface of the vibrating screen and form a resting state.

[1040] Next, under the control of the smart control module, the vibration damping winch motor type rubbing impact forming module is driven, and through the release mode, the 4-channel worm-type up, down, left, and right rubbing impact forming module is lowered to come into contact with the mesh surface of the vibrating screen (S20).

[1041] That is, as illustrated in FIG. 30, the first vibration damping type winch motor type rubbing impact forming part is positioned in the first column on the left when the bottom mesh of the vibrating screen module is viewed from the planar direction, and is positioned on the same vertical line with respect to the first worm-type upper / lower / left / right rubbing impact forming part of the 4-channel worm-type upper / lower / left / right rubbing impact forming module, and is formed so that the 4-channel worm-type upper / lower / left / right rubbing impact forming module is lowered from the first column on the left through the unwinding mode and comes into contact with the mesh surface of the vibrating screen (S21).

[1042] Next, the second vibration damping type winch motor type rubbing impact forming unit is positioned in the first central column when the bottom mesh of the vibrating screen module is viewed from the planar direction, and is positioned on the same vertical line with respect to the second worm-type upper / lower / left / right rubbing impact forming unit of the 4-channel worm-type upper / lower / left / right rubbing impact forming module, and is formed to lower the 4-channel worm-type upper / lower / left / right rubbing impact forming module through an unwinding mode from the first central column and bring it into contact with the mesh surface of the vibrating screen (S22).

[1043] Next, the third vibration damping type winch motor type rubbing impact forming part is positioned in the second central column when the bottom mesh of the vibrating screen module is viewed from the planar direction, and is positioned on the same vertical line with respect to the third worm-type upper / lower / left / right rubbing impact forming part of the 4-channel worm-type upper / lower / left / right rubbing impact forming module, and is formed to lower the 4-channel worm-type upper / lower / left / right rubbing impact forming module through an unwinding mode from the second central column and bring it into contact with the mesh surface of the vibrating screen (S23).

[1044] Next, the fourth vibration damping type winch motor type rubbing impact forming unit is positioned in the first column on the right when the bottom mesh of the vibrating screen module is viewed from the planar direction, and is positioned on the same vertical line with respect to the fourth worm-type upper / lower / left / right rubbing impact forming unit of the 4-channel worm-type upper / lower / left / right rubbing impact forming module, and is formed to lower the 4-channel worm-type upper / lower / left / right rubbing impact forming module through the unwinding mode from the first column on the right and make contact with the mesh surface of the vibrating screen (S24).

[1046] Next, as shown in FIG. 27, a 4-channel worm-type up-down-left-right mixing and striking forming module is unwound through a vibration damping type winch motor type mixing and striking forming module and is formed along the vertical longitudinal row in a 4-channel structure along the mesh surface of the vibrating screen module, receiving vibration force from the vibrating screen module and removing soil or aggregate particles clogging the mesh of the vibrating screen by rolling and mixing and striking them up, down, left, and right (S30).

[1047] That is, as illustrated in FIG. 31, the first worm-shaped upper, lower, left, and right rubbing and striking forming part is located in the first column on the left when the mesh of the vibrating screen module is viewed from the planar direction, and is unwound through the vibration damping type winch motor type rubbing and striking forming module to be formed along the vertical length direction in the shape of a worm, and receives the force of vibration from the vibrating screen module to roll and rub and strike soil that is stuck or clogged in the first column on the left of the vibrating screen module in the upper, lower, left, and right directions to remove it (S31).

[1048] Next, the second worm-shaped upper, lower, left, and right rubbing and striking forming part is positioned in the first central row on one side of the first worm-shaped upper, lower, left, and right rubbing and striking forming part when the mesh of the vibrating screen module is viewed from the planar direction, and is unwound through the vibration damping type winch motor type rubbing and striking forming module to be formed along the vertical length direction in the shape of a worm, and receives the force of vibration from the vibrating screen module to roll and rub and strike soil that is stuck or clogged in the first central row of the vibrating screen module in the up, down, left, and right directions to remove it (S32).

[1049] Next, the third worm-shaped upper, lower, left, and right rubbing and striking forming part is located in the second central row on one side of the second worm-shaped upper, lower, left, and right rubbing and striking forming part when the mesh of the vibrating screen module is viewed from the planar direction, and is unwound through the vibration damping type winch motor type rubbing and striking forming module to be formed along the vertical length direction in the shape of a worm, and receives the force of vibration from the vibrating screen module to roll and rub and strike soil that is stuck or clogged in the second central row of the vibrating screen module in the up, down, left, and right directions to remove it (S33).

[1050] Next, the fourth worm-shaped upper, lower, left, and right rubbing and striking forming part is positioned in the first right column of one side of the third worm-shaped upper, lower, left, and right rubbing and striking forming part when the mesh of the vibrating screen module is viewed from the planar direction, and is unwound through the vibration damping type winch motor type rubbing and striking forming module to be formed along the vertical length direction in the shape of a worm, and receives vibration force from the vibrating screen module to roll and rub and strike soil that is stuck or blocked in the first right column of the vibrating screen module in the up, down, left, and right directions to remove it (S34).

[1052] Finally, as illustrated in FIG. 28, a vibration damping winch motor type rubbing impact rest forming module is driven under the control of a smart control module, and through a winding mode, the 4-channel worm-type up, down, left, and right rubbing impact forming module is lifted to release contact with the mesh surface of the vibrating screen and form a rest state (S40).

[1053] That is, as illustrated in FIG. 32, in the first vibration damping type winch motor type rubbing impact rest forming unit, the first row zone of the first worm-shaped upper / lower / left / right rubbing impact forming unit, the first row zone of the second worm-shaped upper / lower / left / right rubbing impact forming unit, the first row zone of the third worm-shaped upper / lower / left / right rubbing impact forming unit, and the first row zone of the fourth worm-shaped upper / lower / left / right rubbing impact forming unit are connected as one, and through the winding mode, they are pulled up to release contact with the first row zone of the mesh surface of the vibrating screen and formed into a rest state (S41).

[1054] Next, in the second vibration damping type winch motor type rubbing impact rest forming part, the third row zone of the second worm-shaped upper / lower / left / right rubbing impact forming part, the third row zone of the second worm-shaped upper / lower / left / right rubbing impact forming part, the third row zone of the third worm-shaped upper / lower / left / right rubbing impact forming part, and the third row zone of the fourth worm-shaped upper / lower / left / right rubbing impact forming part are connected as one, and through the winding mode, they are pulled up to release contact with the third row zone of the mesh surface of the vibrating screen and formed into a rest state (S42).

[1055] Next, in the third vibration damping type winch motor type rubbing impact rest forming part, the fifth row zone of the third worm-shaped upper / lower / left / right rubbing impact forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing impact forming module, the fifth row zone of the third worm-shaped upper / lower / left / right rubbing impact forming part, the fifth row zone of the third worm-shaped upper / lower / left / right rubbing impact forming part, and the fifth row zone of the fourth worm-shaped upper / lower / left / right rubbing impact forming part are connected as one, and through the winding mode, they are pulled up to release contact with the fifth row zone of the mesh surface of the vibrating screen and formed into a rest state (S43). Explanation of the symbols

[1057] 1: Up-down-left-right rubbing impact forming device for retinal force removal 100 : Vibration screen module 110 : Input input section 120 : Net 130: First discharge section 140: Fixing hook for 4-channel centipede-type up / down / left / right rubbing impact forming module 150 : 2nd discharge section 160: 4-Channel Silverfish-Type Up / Down / Left / Right Mixing Impact Forming Module Protection Sidewall Guide 170 : Vibration generating unit 200 : 4-channel silverfish-type up-down-left-right mixing impact forming module 210: 1st Moneyworm-type Up / Down / Left / Right Mixing Impact Forming Part 211: First chain part for connecting the fixing ring 212 : 1a Cylindrical joint for mixing and striking 213 : 1b Cylindrical joint for rubbing and striking 214 : 1c Cylindrical joint for mixing and striking 215 : 1d Cylindrical joint for mixing and striking 216 : 1e Cylindrical joint for mixing and striking 220 : 2nd Moneyworm-type Up / Down / Left / Right Mixing Impact Forming Part 230 : 3rd Moneyworm-type Up / Down / Left / Right Mixing Impact Forming Part 240 : 4th Moneyworm-type Up / Down / Left / Right Mixing Impact Forming Part 300 : Vibration-damping winch motor-type rubbing impact damping formation module 310: First vibration damping type winch motor type mixing impact shield forming part 320 : Second vibration damping type winch motor type mixing impact shield forming part 330 : Third vibration damping type winch motor type mixing impact rest forming part (330) 400 : Smart Control Module 410 : Wet / Dry Soil Discrimination Control Unit 420 : Winding mode control unit 430 : Unlock mode control unit

Claims

Claim 1 The device comprises a hybrid mesh force removal device that removes soil or aggregate particles clogging the mesh of a vibrating screen by rolling and rubbing them up, down, left, and right, and, when in a resting state, pulls them up in the upward direction of the vibrating screen to release contact with the mesh surface of the vibrating screen. The hybrid mesh force removal device comprises a vibrating screen module (100) that uses vibration force and an inclined structure to spread out and move downwards an input material consisting of a mixture of recycled aggregate and soil or aggregate, thereby sorting recycled aggregate by size according to the mesh size and sorting by particle size on the mesh surface, and a vibration damping type winch motor type rubbing and striking resting module that is unwound and formed along a vertical row in a 4-channel structure along the mesh surface of the vibrating screen module, receiving vibration force from the vibrating screen module to remove soil or aggregate particles clogging the mesh of the vibrating screen by rolling and rubbing them up, down, left, and right. A 4-channel worm-type up-down-left-right rubbing impact forming module (200), a vibration damping type winch motor type rubbing impact rest forming module (300) located on one side of the upper part of a vibrating screen module on the same vertical line based on the 4-channel worm-type up-down-left-right rubbing impact forming module, connected in a vertical upright structure with the 4-channel worm-type up-down-left-right rubbing impact forming module, and through a winding mode, pulls up the 4-channel worm-type up-down-left-right rubbing impact forming module to release contact with the mesh surface of the vibrating screen and form a resting state, and through an unwinding mode, lowers the 4-channel worm-type up-down-left-right rubbing impact forming module to form contact with the mesh surface of the vibrating screen, and a vibrating screen module, a 4-channel worm-type up-down-left-right rubbing impact forming module, and a vibration damping type winch motor type It is composed of a smart control module (400) connected to a mixing and striking rest formation module, which controls the overall operation of each device and removes soil or aggregate particles clogging the mesh of the vibrating screen by rolling them up, down, left, and right to mix and strike them, and, when in a rest state, controls the device to pull the vibrating screen upward to release contact with the mesh surface of the vibrating screen;The above-mentioned 4-channel worm-shaped up-down-left-right rubbing and striking forming module (200) is located in the first column on the left when viewing the mesh of the vibrating screen module from the planar direction, and is unraveled through a vibration-damping type winch motor-type rubbing and striking forming module to form a worm shape along the vertical length direction, and receives vibration force from the vibrating screen module to roll and rub and strike soil attached or blocked in the first column on the left of the vibrating screen module to remove it, and a first worm-shaped up-down-left-right rubbing and striking forming part (210) is located in the first column at the center of one side of the first worm-shaped up-down-left-right rubbing and striking forming part when viewing the mesh of the vibrating screen module from the planar direction, and is unraveled through a vibration-damping type winch motor-type rubbing and striking forming module to form a worm shape along the vertical length direction A second worm-shaped upper / lower / left / right rubbing and striking forming part (220) is formed, receives vibration force from the vibrating screen module, and removes soil buried or clogged in the first central row of the vibrating screen module's mesh by rolling and rubbing it up, down, left, and right; a third worm-shaped upper / lower / left / right rubbing and striking forming part (230) is located in the second central row on one side of the second worm-shaped upper / lower / left / right rubbing and striking forming part when the vibrating screen module's mesh is viewed from the planar direction, is unwound through a vibration damping type winch motor type rubbing and striking forming module, is formed along the vertical length direction in the shape of a worm, receives vibration force from the vibrating screen module, and removes soil buried or clogged in the second central row of the vibrating screen module's mesh by rolling and rubbing it up, down, left, and right; and the vibrating screen module's mesh is viewed from the planar direction When viewed, it is located in the first row on the right side of one side of the third worm-shaped upper, lower, left, and right mixing and striking forming section, and is released through a vibration-damping type winch motor-type mixing and striking forming module to be formed along the vertical length direction in a worm shape, receiving vibration force from the vibration screen module,It is composed of a fourth worm-shaped upper / lower / left / right rubbing and striking forming part (240) that removes soil attached or clogged in the first right column of the mesh of the vibrating screen module by rolling and rubbing it up, down, left, and right; and the first worm-shaped upper / lower / left / right rubbing and striking forming part (210) is fixedly connected to the head part of the vibrating screen module, and when the mesh of the vibrating screen module is viewed from the planar direction, a first fixing ring connecting chain part (211) that positions the first a rubbing and striking cylindrical joint part (212), the first b rubbing and striking cylindrical joint part (213), the first c rubbing and striking cylindrical joint part (214), the first d rubbing and striking cylindrical joint part (215), and the first e rubbing and striking cylindrical joint part (216) in the first left column, and is located in the first row zone of the first left column of the mesh. A 1a cylindrical joint part (212) for rubbing and striking, formed as a cylindrical drum structure with multiple protrusions, receiving vibration force from a vibrating screen module to remove soil buried or blocked in the first row zone of the first column on the left of the mesh by rolling it up, down, left, and right; a 1b cylindrical joint part (213) for rubbing and striking, located in the second row zone of the first column on the left of the mesh, formed as a cylindrical drum structure with multiple protrusions, receiving vibration force from a vibrating screen module to remove soil buried or blocked in the second row zone of the first column on the left of the mesh by rolling it up, down, left, and right by rubbing and striking; and a cylindrical drum structure located in the third row zone of the first column on the left of the mesh, formed as a cylindrical drum structure with multiple protrusions, receiving vibration force from a vibrating screen module to remove the third row of the first column on the left of the mesh A first c. cylindrical joint (214) for rubbing and striking to remove soil buried or clogged in a zone by rolling it up, down, left, and right, and a cylindrical drum structure formed with a plurality of protrusions located in the fourth row zone of the first column on the left of the mesh, receiving vibration force from a vibrating screen module,In a hybrid mesh force removal device comprising a multi-channel up-down-left-right rubbing strike formation and a vibration damping type winch motor type rubbing strike formation, the firsta rubbing strike cylindrical segment (215) for removing soil buried or clogged in the fourth row zone of the first column on the left of the mesh by rolling it up, down, left, and right and rubbing strike, and a firste rubbing strike cylindrical segment (216) for removing soil buried or clogged in the fifth row zone of the first column on the left of the mesh by receiving vibration force from a vibration screen module and formed as a cylindrical drum structure with multiple protrusions, wherein the firsta rubbing strike cylindrical segment (212) is formed as a cylindrical drum structure with multiple protrusions, thereby protecting each device from external pressure and A first cylindrical joint body (212a) that provides support; a first chain connecting link part (212b) located at the front center axis of the head of the first cylindrical joint body and performing the role of a connecting link that connects to the first fixing link connecting chain part; a first front bearing part (212c) located on one side of the rear of the first chain connecting link part, which supports the load of the first chain connecting link part and rotates the axis of the first chain connecting link part with low friction through a bearing; a first rear bearing part (212d) located on one side of the rear aligned with the first front bearing part, which supports the load of the first rear joint bridge connecting link part and rotates the axis of the first rear joint bridge connecting link part with low friction through a bearing; and a plurality of bearings formed on the surface of the first cylindrical joint body. A straight protrusion (212e) of the firsta, which receives vibration force from the vibrating screen module and low-friction rotational force from the firsta front bearing part and the firsta rear bearing part, and rolls up, down, left, and right to rub and strike to remove soil stuck to or clogged in the mesh as if kissing a hole in the mesh, and is positioned at the central axis of the firsta rear bearing part,A hybrid retinal force removal device comprising a multi-channel up-down-left-right rubbing impact forming and vibration damping winch motor type rubbing impact forming, characterized by being configured to include a 1a rear section bridge connecting link (212f) that connects a 1b cylindrical section for rubbing impact and a carabiner-type bridge link. Claim 2 delete Claim 3 delete Claim 4 delete Claim 5 delete Claim 6 A hybrid retinal force removal device formed by multi-channel up-down-left-right rubbing impact forming and vibration damping winch motor type rubbing impact forming, characterized in that the 1a straight protrusion (212e) is made of iron (Fe) material, has a length of 8 to 15 cm and a thickness of 0.8 to 1.2 cm, and is formed with a rounded shape with a convex protruding end. Claim 7 delete Claim 8 In claim 1, the vibration damping type winch motor type mixing impact center forming module (300) has a height of 1.5m to 3m based on the first row zone of the mesh surface of the vibration screen module when the vibration screen module is viewed from the planar direction. A first vibration damping winch motor type rubbing strike rest forming part (310) formed in a shape, which is a component of a 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, is connected as one with the first row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, the first row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, the first row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, and the first row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part, which is pulled up through a winding mode to release contact with the first row zone of the mesh surface of the vibrating screen and form a resting state, and then lowered through an unwinding mode to form contact with the first row zone of the mesh surface of the vibrating screen module, and when the vibrating screen module is viewed from the planar direction, "with a height of 1.5m to 3m based on the third row zone of the mesh surface of the vibrating screen module A second vibration damping winch motor-type rubbing strike rest forming part (320) formed in a shape, which is a component of a 4-channel worm-type upper / lower / left / right rubbing strike forming module, is connected as one with the third row zone of the second worm-type upper / lower / left / right rubbing strike forming part, the third row zone of the second worm-type upper / lower / left / right rubbing strike forming part, the third row zone of the third worm-type upper / lower / left / right rubbing strike forming part, and the third row zone of the fourth worm-type upper / lower / left / right rubbing strike forming part, which is pulled up through a winding mode to release contact with the third row zone of the mesh surface of the vibrating screen and form a resting state, and is formed to come into contact with the third row zone of the mesh surface of the vibrating screen module through an unwinding mode, and the vibrating screen module in the planar direction When viewed, having a height of 1.5m to 3m based on the fifth row zone of the mesh surface of the vibrating screen module It is formed in a shape and is composed of a third vibration damping type winch motor type rubbing strike rest forming part (330) which is formed by connecting the fifth row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, the fifth row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, the fifth row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, and the fifth row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part as one, and is formed in a resting state by releasing contact with the fifth row zone of the mesh surface of the vibrating screen through a winding mode, and then lowered through an unwinding mode to come into contact with the fifth row zone of the mesh surface of the vibrating screen module; wherein the first vibration damping type The winch motor-type mixing impact shield forming part (310) is formed as a vertical structure in the longitudinal direction on one side of the vibrating screen module and has a height of 1.5m to 3m based on the first row zone of the mesh surface of the vacuum screen module. "Formed in a shape that protects and supports each device from external pressure, the first " A first a, which connects the first row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the first turnbuckle part, by receiving the winding mode of the first winch motor part from the first turnbuckle part and transmitting a pulling force toward the first row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and receiving the unwinding mode of the first winch motor part from the first turnbuckle part and transmitting a unwinding force toward the first row zone of the first worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module. A vertical connecting chain part (312) and a first row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, are connected to the first turnbuckle part, so that the winding mode of the first winch motor part is received from the first turnbuckle part and a pulling force is transmitted toward the first row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the unwinding mode of the first winch motor part is received from the first turnbuckle part and a unwinding force is transmitted toward the first row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module. The first vertical connecting chain part (313) of the first channel worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, is connected to the first row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part and the first turnbuckle part, so that the winding mode of the first winch motor part is transmitted from the first turnbuckle part,A first-c vertical connecting chain part (314) that transmits a pulling force toward the first row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, receives the unwinding mode of the first winch motor part from the first turnbuckle part, and transmits a unwinding force toward the first row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and connects the first row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the first turnbuckle part, thereby transmitting the winding mode of the first winch motor part from the first turnbuckle part A first vertical connecting chain part (315) that receives and transmits a pulling force toward the first row zone of the fourth worm-shaped upper / lower / left / right rubbing striking forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing striking forming module, and receives the unwinding mode of the first winch motor part from the first turnbuckle part and transmits a unwinding force toward the first row zone of the fourth worm-shaped upper / lower / left / right rubbing striking forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing striking forming module, and is located on one side of the lower end of the first winch motor part and is formed in a longitudinal vertical hollow bar shape, and after connecting the first vertical connecting chain part, the first vertical connecting chain part, the first vertical connecting chain part, the first vertical connecting chain part, the first vertical connecting chain part, the first vertical connecting chain part, and the first vertical connecting chain part are gathered and connected as one, and then the winding mode from the first winch motor part Receiving a lifting force, transmitting it toward the 1a vertical connecting chain section, the 1b vertical connecting chain section, the 1c vertical connecting chain section, and the 1d vertical connecting chain section, and receiving a releasing force in release mode from the 1st winch motor section, transmitting it toward the 1a vertical connecting chain section, the 1b vertical connecting chain section, the 1c vertical connecting chain section, and the 1d vertical connecting chain section, andA first turnbuckle (316) that dampens vibrations transmitted through the firsta vertical connecting chain section, the firstb vertical connecting chain section, the firstc vertical connecting chain section, and the firstd vertical connecting chain section, and the first ", A hybrid retinal force removal device comprising a multi-channel up-down-left-right rubbing impact forming and vibration damping type winch motor type rubbing impact forming, characterized by including a first winch motor part (317) that is positioned on the upper head part of the mold holder and connected to the first turnbuckle part, generating a pulling force in winding mode or a unwinding force in unwinding mode and transmitting it toward the first turnbuckle part. Claim 9 delete Claim 10 In claim 1, the smart control module (400) has a button input unit (100a) connected to one side of an input terminal, so that through the button input signal, an automatic winding (rest state) input signal is input during dry operation and an automatic unwinding (contact / impact) input signal is input during wet operation; a first upper / lower limit switch (317f) is connected to one side of another input terminal to input a sensing signal that prevents an excessive increase in the force pulling upward and prevents an excessive decrease in the force unwinding downward; a first encoder unit (317g) is connected to one side of another input terminal to input a sensing signal that senses the winding amount according to rotation; a second upper / lower limit switch (327f) is connected to one side of another input terminal to input a sensor signal that prevents an excessive increase in the force pulling upward and prevents an excessive decrease in the force unwinding downward; and another input terminal A second encoder unit (327g) is connected to one side to input a sensing signal that senses the winding amount according to rotation, and a third upper / lower limit switch (337f) is connected to one side of another input terminal to input a sensing signal that prevents excessive increase in the force pulling upward and prevents excessive decrease in the force unwinding downward, and a third encoder unit (337g) is connected to one side of another input terminal to input a sensing signal that senses the winding amount according to rotation, and a vibration motor (172) is connected to one side of an output terminal to output an output signal that generates vibration force and transmits it to a vibration weight, and a first electric motor (317a) is connected to one side of another output terminal to output an output signal that generates rotational force, and a second electric motor (327a) is connected to one side of another output terminal to output an output signal that generates rotational force, and a third A hybrid retinal force removal device comprising a multi-channel up-down-left-right rubbing strike forming and vibration damping type winch motor rubbing strike forming, characterized by being configured to output an output signal that generates rotational force by connecting an electric motor (337a). Claim 11 In claim 1, the smart control module (400) comprises: a soil wet / dry input discrimination control unit (410) that controls to classify and estimate whether it is a dry button input or a wet button input according to a button input signal input from a button input unit; a winding mode control unit (420) that is driven when it is a dry button input according to the button input signal in the soil wet / dry input discrimination control unit, which controls to wind a vibration damping type winch motor type rubbing / impact sheath forming module, pull up a 4-channel worm-type up / down / left / right rubbing / impact forming module, release contact with the mesh surface of a vibrating screen, and form a sheath state; and a soil wet / dry input discrimination control unit that is driven when it is a wet button input according to the button input signal, which controls to unwind a vibration damping type winch motor type rubbing / impact sheath forming module, and a 4-channel worm-type up / down / left / right rubbing / impact A hybrid retinal force removal device comprising multi-channel up-down-left-right rubbing strike forming and vibration damping type winch motor rubbing strike formation, characterized by being composed of a loosening mode control unit (430) that controls the forming module to form a 4-channel structure along the vertical longitudinal column along the mesh surface. Claim 12 A step (S10) in which a vibrating screen module is driven under the control of a smart control module, and through the force of vibration and an inclined structure, an input material consisting of a mixture of recycled aggregate and soil or aggregate is spread out and moved downward, thereby sorting the recycled aggregate by size according to the mesh size and sorting by particle size on the mesh surface; and a step (S20) in which a vibration damping type winch motor type mixing and striking center forming module is driven under the control of a smart control module, and through an unwinding mode, a 4-channel worm-shaped up, down, left, and right mixing and striking center forming module is lowered to come into contact with the mesh surface of the vibrating screen, and the 4-channel worm-shaped up, down, left, and right mixing and striking center forming module is unwound through the vibration damping type winch motor type mixing and striking center forming module and formed along the vertical longitudinal row in a 4-channel structure along the mesh surface of the vibrating screen module, receiving the force of vibration from the vibrating screen module, and the vibrating screen's A hybrid method for removing retinal debris comprising multi-channel up-down-left-right rubbing and striking formation and vibration-damping winch motor type rubbing and striking sheath formation, comprising: a step (S30) of removing soil or aggregate particles blocking the mesh by rolling them up, down, left, and right and rubbing and striking them; and a step (S40) in which a vibration-damping winch motor type rubbing and striking sheath formation module is driven under the control of a smart control module to pull up a 4-channel worm-type up-down-left-right rubbing and striking formation module through a winding mode, thereby releasing contact with the mesh surface of the vibrating screen and forming a sheath state, wherein in the step (S20), the first vibration-damping winch motor type rubbing and striking sheath formation unit is located in the first column on the left when viewing the lower mesh of the vibrating screen module from a planar direction, and the first worm-type of the 4-channel worm-type up-down-left-right rubbing and striking formation module A step (S21) of forming a 4-channel centipede-type upper, lower, left, and right mixing and striking forming module by lowering it through an unwinding mode from the first column on the left, positioned on a vertical line based on the upper, lower, left, and right mixing and striking forming section, and bringing it into contact with the mesh surface of the vibrating screen, wherein the second vibration damping type winch motor type mixing and striking forming section, when the lower mesh of the vibrating screen module is viewed from the planar direction,A step (S22) in which the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module is positioned in the first central column and is positioned on a vertical line with respect to the second worm-shaped upper / lower / left / right rubbing strike forming part of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and is formed such that the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module is lowered from the first central column via an unwinding mode to come into contact with the mesh surface of the vibrating screen, and the third vibration damping type winch motor type rubbing strike forming part is positioned in the second central column when the bottom mesh of the vibrating screen module is viewed from the planar direction and is positioned on a vertical line with respect to the third worm-shaped upper / lower / left / right rubbing strike forming part of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and is formed such that the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module is lowered from the second central column via an unwinding mode to come into contact with the mesh surface of the vibrating screen. A hybrid retinal force removal method comprising multi-channel up-down-left-right rubbing impact forming and vibration-damping winch motor type rubbing impact forming, characterized by comprising: a forming step (S23); and a step (S24) wherein the fourth vibration-damping winch motor type rubbing impact forming part is positioned in the first column on the right when the bottom mesh of the vibrating screen module is viewed from the planar direction, and is positioned on the same vertical line with respect to the fourth worm-type up-down-left-right rubbing impact forming part of the 4-channel worm-type up-down-left-right rubbing impact forming module, and lowers the 4-channel worm-type up-down-left-right rubbing impact forming module through an unwinding mode from the first column on the right to bring it into contact with the mesh surface of the vibrating screen. Claim 13 delete Claim 14 delete Claim 15 In claim 12, the above step (S40) comprises, in the first vibration damping type winch motor type rubbing impact rest forming part, connecting the first row zone of the first worm-type upper / lower / left / right rubbing impact forming part, the first row zone of the second worm-type upper / lower / left / right rubbing impact forming part, the first row zone of the third worm-type upper / lower / left / right rubbing impact forming part, and the first row zone of the fourth worm-type upper / lower / left / right rubbing impact forming part, which are components of the 4-channel worm-type upper / lower / left / right rubbing impact forming module, as one, and pulling up through a winding mode to release contact with the first row zone of the mesh surface of the vibrating screen and form a resting state (S41); and in the second vibration damping type winch motor type rubbing impact rest forming part, the 4-channel worm-type upper / lower / left / right rubbing impact A step (S42) of connecting the third row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the forming module, the third row zone of the second worm-shaped upper / lower / left / right rubbing strike forming part, the third row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, and the third row zone of the fourth worm-shaped upper / lower / left / right rubbing strike forming part as one, and pulling it up through a winding mode to release contact with the third row zone of the mesh surface of the vibrating screen and forming it into a resting state, and in the third vibration damping type winch motor type rubbing strike rest forming part, the fifth row zone of the third worm-shaped upper / lower / left / right rubbing strike forming part, which is a component of the 4-channel worm-shaped upper / lower / left / right rubbing strike forming module, and the third worm-shaped upper / lower / left / right rubbing Connecting the fifth row zone of the impact forming section, the fifth row zone of the third worm-shaped up / down / left / right rubbing impact forming section, and the fifth row zone of the fourth worm-shaped up / down / left / right rubbing impact forming section as one, and pulling it up through the winding mode,A hybrid retinal force removal method comprising multi-channel up-down-left-right rubbing impact formation and vibration damping type winch motor type rubbing impact rest formation, characterized by comprising the step (S43) of releasing contact with the fifth row zone of the mesh surface of the vibrating screen to form a rest state.

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