KR20180097190A - Device for managing residue of belt conveyor - Google Patents

Abstract

The present invention relates to a residue treating apparatus for a belt conveyor capable of collecting residue falling downward from the belt conveyor and re-supplying the belt conveyor quickly and efficiently. To this end, the residue treating apparatus for a belt conveyor comprises: a collection module for collecting the residue falling downward from the belt conveyor; and a conveyor module for conveying the residue collected in the collection module to the belt conveyor.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a belt conveyor,

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a residue processing apparatus for a belt conveyor, and more particularly, to a residue processing apparatus for a belt conveyor capable of collecting residues falling downwardly of a belt conveyor and re-supplying the same to the belt conveyor quickly and efficiently.

Generally, a belt conveyor means a conveying machine for continuously conveying objects to be conveyed, such as ores, raw materials, finished products, or finished products. In particular, belt conveyors are mainly used in the steel industry to transport raw materials such as iron ore and coal.

BACKGROUND ART [0002] A belt conveyor used in a steel making industry includes a belt portion for conveying a charged ore in one direction and a roller portion for supporting the belt portion. In the course of ore transfer from the belt part, some ore falls to the lower part of the belt part and adversely affects the peripheral equipment. Further, in order to reuse the fallen droppings, the droppings must be collected manually by a worker, so that there is a problem that much effort and expense are required for the fallen droppings.

In recent years, various devices for efficiently processing light falling off a belt conveyor have been studied.

Korean Patent Laid-Open Publication No. 10-2014-0140992 (Title: Drop-off apparatus, published on December 12, 2014)

SUMMARY OF THE INVENTION It is an object of the present invention to provide a residue treating apparatus for a belt conveyor capable of recovering residue falling downward from a belt conveyor and re-supplying the belt conveyor quickly and efficiently.

According to a preferred embodiment for achieving the object of the present invention described above, an apparatus for treating a residue for a belt conveyor according to the present invention comprises: a collection module for collecting residues falling downward of a belt conveyor; And a conveying module for conveying the collected material to the collecting module to the belt conveyor.

Here, the conveyance module may include: a discharge housing disposed above the belt conveyor and transferring the collected collected in the collecting module to the belt conveyor; A hollow conveying pipe connecting the collecting module and the discharge housing to form a closed loop and forming a conveying path of the collected material to the collecting module; A conveying unit including a plurality of conveying scraper members inserted into the conveying pipe while being spaced apart from each other, and a conveying line member connecting the conveying scraper members to form a closed loop; And a conveyance driving unit for circulating the closed loop of the conveying unit while being coupled to the discharge housing for conveying the collected collected in the collecting module to the discharge housing.

Wherein the conveying drive unit comprises: a conveying pulley rotatably coupled to the discharge housing, the conveying pulley engaging the conveying scraper member in a state in which at least a part of the conveying line member is wound; A guide pulley rotatably coupled to the discharge housing in a state spaced apart from the conveying pulley and guiding the conveying scraper member to the conveying pipe in a state where at least a part of the conveying line member is wound; And a rotation axis portion for rotating the conveyance pulley, wherein the rotation center axis at which the conveyance pulley is rotated has a predetermined inclination angle with the central axis at which the guide pulley is rotated.

Wherein the conveying module further includes a path converting unit that is provided in the conveyance pipe and changes the moving path of the residue, wherein the path converting unit is bent in correspondence with the moving path of the conveyance line member to be changed, A hollow bending pipe to which the transfer pipe is coupled; A conversion housing provided integrally with the bending pipe and communicating with the inside of the bending pipe; And a path conversion pulley rotatably coupled to the conversion housing and mated with the transport scraper member.

Here, the collecting module may include: a residue receiver on which a residue falling downwardly of the belt conveyor is seated, and on which a residue receiving groove for receiving the falling downward portion of the belt conveyor is formed; A collecting housing disposed at both ends of the residue holder to collect residues that are seated in the residue receiving grooves; A transfer unit for forming a closed loop in a state of being inserted into the residue receiving groove; And a transfer drive unit for cyclically moving the closed loop of the transfer unit to transfer the residue that is seated in the residue receiving groove to the collection housing.

Here, the collecting housing comprises: a residue collecting body through which the conveyed by the conveying unit is collected; And a residue guide body for guiding the residue transferred by the transfer unit to the residue collection body, the collection module comprising: a collection impeller rotatably coupled to the residue guide body; And an impeller driving unit for rotating the collecting impeller to push the residue transferred to the residue guiding body into the residue collecting body.

Here, the transfer unit may include a transfer scraper member inserted and disposed in the residue receiving groove in a spaced-apart relationship; And a transmission line member that connects the transmission scraper member to form a closed loop, wherein the transfer drive unit is configured to move the transfer scraper member in a state in which at least a part of the transmission line member is wound corresponding to the collection housing, Coupled transmission pulleys; And a transmission driver for rotating the transmission pulley.

Here, the transmission pulley includes a transmission rotation axis rotated by the transmission driving unit; A first engagement pulley coupled to the transmission rotation shaft and protruding from the first engagement tooth portion to which the transmission scraper member is engaged; And a second engagement pulley coupled to the transmission rotation shaft in a state spaced apart from the first engagement pulley and protruding from the second engagement tooth portion to which the transmission scraper member is engaged in correspondence with the first engagement tooth portion; And a lanyard support for connecting the first engagement tooth portion and the second engagement tooth portion so that the transmission line member is supported.

The transfer pulley further includes a residual dispersion plate coupled to the transfer rotary shaft such that the residue transferred by the transfer scraper member is dispersed and dropped.

According to the apparatus for treating a residue for a belt conveyor according to the present invention, it is possible to collect the residue falling downward of the belt conveyor and re-supply the belt conveyor quickly and efficiently.

Further, the present invention can prevent the conveyance units from interfering with each other at the intersection of the conveyance units through the detailed configuration of the conveyance drive unit, and can smooth the closed loop circulation movement of the conveyance unit.

Further, the present invention prevents the residues from remaining in the bending pipe and the conversion housing through the detailed configuration of the path conversion unit and the insertion structure of the bending pipe and the transfer pipe, and prevents the residue from interfering with the rotation of the path- And it is possible to prevent the load applied to the transport unit from increasing.

Further, the present invention can easily collect residues falling down from the belt conveyor in the collection housing through the detailed configuration of the collection module.

In addition, the present invention allows the residues to be transferred to the collection housing through the detailed configuration of the collection housing and the rotation structure of the collection impeller to be stably transferred to the residue collection body, . In addition, even if the residue contains a large amount of water and exhibits a lump shape, the lumpy residue can be crushed and transferred to the residue collecting body.

Further, the present invention can smoothly circulate the closed loop of the delivery unit through the detailed configuration of the delivery unit and the delivery drive unit.

Further, the present invention can prevent the transmission scraper member from tilting in the closed-loop circulation movement of the transmission unit through the detailed configuration of the transmission pulley, and can stably support the transmission line member.

In addition, the present invention can pulverize the residues delivered to the collection housing in lump form through the residue distribution plate and evenly distribute the residues to the collection housing.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a perspective view illustrating a state in which a belt conveyor is engaged with an apparatus for treating a residue of a belt conveyor according to an embodiment of the present invention; FIG.
2 is a perspective view showing the collection module in the apparatus for treating a residue of a belt conveyor according to an embodiment of the present invention.
3 is a perspective view illustrating a state in which a collecting impeller and an impeller driving unit are coupled to a collection housing in an apparatus for treating a residue of a belt conveyor according to an embodiment of the present invention.
4 is a perspective view illustrating a transfer pulley in an apparatus for treating a residue of a belt conveyor according to an embodiment of the present invention.
FIG. 5 is a perspective view showing a conveying module in an apparatus for treating a residue of a belt conveyor according to an embodiment of the present invention. FIG.
6 is a perspective view illustrating a state in which a conveyance driving unit is coupled to an outlet housing in an apparatus for treating a residue of a belt conveyor according to an embodiment of the present invention.
7 is a view showing a state in which the conveyance unit is coupled to the conveyance drive unit in the apparatus for treating a residue of a belt conveyor according to an embodiment of the present invention.
8 is a cross-sectional perspective view showing a state in which a conveyance unit is installed in a conveyance pipe in a device for treating a residue of a belt conveyor according to an embodiment of the present invention.
9 is a cross-sectional perspective view showing a path conversion unit in an apparatus for treating a residue of a belt conveyor according to an embodiment of the present invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, an embodiment of an apparatus for treating a residue of a belt conveyor according to the present invention will be described with reference to the accompanying drawings. Here, the present invention is not limited or limited by the examples. Further, in describing the present invention, a detailed description of well-known functions or constructions may be omitted for clarity of the present invention.

1 to 9, an apparatus for treating a residue of a belt conveyor according to an embodiment of the present invention will be described.

In one embodiment of the present invention, the belt conveyor 300 is a conveying machine for continuously conveying objects to be conveyed, such as ores, raw materials, processed products, or finished products. The belt conveyor 300 may include a belt portion for conveying the object to be conveyed in one direction, and a roller portion for supporting the belt portion.

Also, in one embodiment of the present invention, the residue is separated from the conveyance object and falls downwardly of the belt conveyor 300.

The apparatus for treating residues of a belt conveyor according to an embodiment of the present invention includes a collection module 100 for collecting residues falling downward of the belt conveyor 300, And conveying module to the belt conveyor (300).

The collecting module 100 is disposed at a position spaced a certain distance below the belt conveyor 300.

The collecting module 100 includes a residue receiver 110 on which residues falling downwardly of the belt conveyor 300 are seated and a receiver housing 110 disposed on both ends of the residue receiver 110 and seated in the residue receiver groove 112 A transferring unit 130 which forms a closed loop in a state of being inserted into the residue receiving groove 112 and a transferring unit 130 which is formed in the residual receiving groove 112, And a transfer drive unit 140 for circulating the closed loop of the transfer unit 130 to transfer water to the collection housing 120. [

The residue receptacle 110 is formed long in the longitudinal direction of the belt conveyor 300. The residue receiver 110 is coupled to the belt conveyor 300 via a separate support member. The residue receptacle 110 is made of a metal material. The present invention is not limited thereto, and the residue receptacle 110 may be formed of a non-metallic material.

The residue receiver 110 is formed with a residue receiving groove 112 on which the residue falling downwardly of the belt conveyor 300 is seated. The residue receiving grooves 112 are elongated in the longitudinal direction of the residue receiver 110 and are formed in a plurality of rows. The residue seating groove 112 shows a semicircular cross section. The present invention is not limited thereto, and the sectional shape of the residue receiving groove 112 may have a polygonal shape including a quadrangle.

In addition, the residue receiver 110 may be provided with an inclined portion 111 for guiding the residue to the residue receiving groove 112. The inclined portion 111 is formed on both sides of the residue receiving groove 112 with respect to the longitudinal direction of the residue receptacle 110. The inclined portion 111 is formed to be inclined downward from the upper end of the residue receptacle 110 toward the residue seating groove 112.

Then, the residue falling down from the belt conveyor 300 is accommodated in the residue receiving groove 112 along the inclined surface of the inclined portion 111.

The collecting housing 120 includes a first collecting housing disposed at one end with respect to a longitudinal direction of the residue receptacle 110 and a second collecting housing disposed at the other end with respect to the longitudinal direction of the residue receptacle 110. [ Housing.

The collecting housing 120 includes a residue collecting body 121 in which the residue transferred by the transfer unit 130 is collected and a residual collecting body 121 in which the residue, 121 to guide the residual guiding body (122).

The residue collecting body 121 allows the conveying unit 230, which will be described later, to pass through. Then, the conveying unit 230, which will be described later, can convey the residues collected in the residue collecting body 121 to the discharge housing 210 described later.

The inner surface of the residue guiding body 122 is moved from the upper portion of the collection housing 120 to the residual guiding body 122 so that the residue falling to the residue guiding body 122 is stably moved to the residue collecting body 121. [ And may be formed to be inclined downward toward the water collecting body 121.

The transfer unit 130 includes a transfer scraper member 131 inserted into the residue receiving groove 112 in a spaced apart relationship with the transfer scraper member 131, (132).

The transmission unit 130 may further include a transmission line member coupling part 133 disposed at the center of the transmission scraper member 131 and coupled with the transmission line member 132.

The lower portion of the transmission scraper member 131 is shaped like a cross-sectional shape of the residue receiver 110 and the transmission line member 132 penetrates the transmission line member engaging portion 133, (133).

Then, the transfer unit 130 forms one closed loop, so that the transfer unit 130 is cyclically moved along one closed loop continuously and repeatedly by the transfer drive unit 140. The transfer unit 130 may also be moved along the residue seating groove 112 to thereby transfer the residue collected in the residue seating groove 112 to the collection housing 120.

The transfer scraper member 131 has a shape of a circular plate corresponding to the sectional shape of the residue receiver 110 and can be made of a urethane material. The shape of the transfer scraper member 131 may be shaped so as to correspond to the shape of the cross section of the residual water support 110 and the transfer scraper member 131 may be formed in the shape of a cross- (Not shown).

For example, when the residue receptacle 110 is made of a metal material, the transmission scraper member 131 is made of a plastic material to minimize friction noise due to friction between the scraper member 131 and the residue receptacle 110, It is possible to prevent the residue seating groove 112 from being broken due to the friction between the scraper members 131 and to prevent the residue from leaking from the residue seating groove 112.

The transmission line member 132 may be made of a metal material, for example, a steel material. The present invention is not limited to this, and the transmission line member 132 may be made of other metal or plastic material.

The transmission scraper member 131 and the transmission line member 132 may be integrally formed of the same material.

The transfer drive unit 140 includes a transfer pulley that is engaged with the transfer scraper member 131 in a state where at least a part of the transferring member 132 is wound corresponding to the collecting housing 120, (Not shown).

The transfer drive unit 140 rotates the transfer pulley according to the operation of the transfer drive unit 145 so that the transfer drive unit 140 can move the transfer unit 130 continuously and repeatedly . The transfer drive unit 140 can circulate the closed loop of the transfer unit 130. [

The transmission pulley can be divided into a first transmission pulley 141 and a second transmission pulley 142.

The first transmission pulley 141 is coupled to the transmission unit 130 at one end with respect to the longitudinal direction of the residue receiver 110. [ The first transmission pulley 141 may be coupled to the residue receiver 110 via a shaft support bracket 176. The first transmission pulley 141 may be disposed within the first collection housing 120 and may be disposed above or above the first collection housing 120.

Then, as the first transfer pulley 141 is rotated, the transfer unit 130 can supply the residue to the first collecting housing 120.

The second transmission pulley 142 is coupled to the transmission unit 130 at the other end with respect to the longitudinal direction of the residue support 110. The second transmission pulley 142 may be coupled to the residue receiver 110 via a shaft support bracket 176. The second transmission pulley 142 may be disposed inside the second collection housing 120 and may be disposed above or above the second collection housing 120.

Then, as the second transfer pulley 142 is rotated, the transfer unit 130 can supply the residue to the second collecting housing 120.

Since the first transmission pulley 141 and the second transmission pulley 142 have the same structure, the first transmission pulley 141 and the second transmission pulley 142 will be described in the first embodiment of the present invention, The description of step 142 is omitted.

The first transmission pulley 141 includes a transmission rotation shaft 175, a first engagement pulley 171 and a second engagement pulley 172. The first transmission pulley 141 includes a line member support 177 and a residual dispersion plate 178, Or the like.

The transfer rotary shaft 175 is rotated by the transfer driver 145. The transmission rotation shaft 175 may be rotatably coupled to the shaft support bracket 176.

The first engagement pulley 171 is coupled to the transmission rotation shaft 175 and rotated together with the transmission rotation shaft 175. The first engagement pulley 171 is formed with a first engagement tooth portion 173 to which the transmission scraper member 131 is engaged. The first engagement teeth 173 are spaced apart from each other along the circumferential direction of the first engagement pulley 171.

The second engagement pulley 172 is coupled to the transmission rotation shaft 175 and rotates together with the transmission rotation shaft 175 while being separated from the first engagement pulley 171. The second engagement pulley 172 is formed with a second engagement tooth portion 174 to which the transmission scraper member 131 is engaged in correspondence with the first engagement tooth portion 173. The second engagement teeth 174 are spaced apart from each other along the circumferential direction of the second engagement pulley 172. The second engagement pulley 172 is disposed below the first engagement pulley 171.

At this time, when a part of the transmission line member 132 is wound on the transmission pulley, the first and second engagement pulleys 171 and 172, respectively, on the basis of the transmission line member 132, And are spaced apart from the upper side and the lower side of the delivery line member 132. Accordingly, the transmission scraper member 131 is engaged with both the first and second engagement teeth 173 and 174, and the first engagement tooth portion 174 and the second engagement tooth portion 174 are engaged with each other, 173 and the second hooking teeth 174 push the transmission scraper member 131 at the same time, the transmission scraper member 131 can be prevented from being deformed and damaged.

The line member support 177 connects the first engagement tooth portion 173 and the second engagement tooth portion 174 such that the transmission line member 132 is supported. The line member supporter 177 connects the first engagement tooth portion 173 and the second engagement tooth portion 174 which correspond to each other with respect to the longitudinal direction of the transfer rotary shaft 175, The bending of the transmission scraper member 131 and the transmission line member 132 is minimized when the transmission line member 132 is wound on the transmission pulley, Separation can be prevented.

The residual dispersion plate 178 is coupled to the transfer rotary shaft 175 such that the residue transferred by the transfer scraper member 131 is dispersed and dropped. The residue distribution plate 178 is disposed below the second engagement pulley 172. The residue dispersion plate 178 is formed with a number of residue discharge holes through which the residue passes.

Accordingly, the residue conveyed by the transfer scraper member 131 can fall into the residue dispersion plate 178 and pass through the residue discharge hole, so that the residue can be dispersed. In addition, the residue can be transferred in lumps as it contains moisture. Such lump-shaped residues may fall and collide with the residue dispersion plate 178 while falling to be able to disperse the residues.

The collecting module 100 includes a collecting impeller 150 rotatably coupled to the residue guiding body 122 and a collecting impeller 150 rotatably coupled to the collecting body 121, And an impeller driving unit 160 that rotates the collecting impeller 150 to push the collecting impeller 150 to a predetermined position.

The collecting impeller 150 includes an impeller shaft portion that is axially coupled to the impeller driving portion 160 and an impeller shaft portion that is connected to the impeller driving portion 160 so as to push the residue to be transferred to the residue guiding body 122 into the residue collecting body 121. [ And a wing portion that protrudes from the circumferential surface of the base portion.

As the collecting impeller 150 is rotated, the residue transferred to the residue guiding body 122 is pushed into the residue collecting body 121, so that even if the residue containing water is collected in the residue collecting body 121, And can be stably received in the body 121.

The conveying module 200 includes an evacuation housing 210 disposed above the belt conveyor 300 to transfer the residues collected in the collecting module 100 to the belt conveyor 300, A hollow conveyance pipe 220 for connecting the discharge chamber 210 and the discharge chamber 210 to form a closed loop and a closed loop formed in the conveyance pipe 220 to collect (210) for conveying residues collected in the collection module (100) to the discharge housing (210), and a discharge unit And a conveyance drive unit 240 for circulating the closed loop of the conveyance unit 230 in a state where the conveyance unit 230 is in a state of being opened.

And the delivery unit 230 is passed through the discharge housing 210. Accordingly, in order to discharge the residue transferred to the inside of the discharge housing 210, the discharge housing 210 may be provided with a residue discharge portion 211. The residue discharge unit 211 may be formed at the lower portion of the discharge housing 210 or at a lower portion of the discharge housing 210 in the form of a hopper.

The discharge drive unit 240 may be installed in the discharge housing 210. Accordingly, in order to stably support the transportation drive unit 240, the discharge housing 210 may be provided with a support partition 212. The support partition wall 212 divides the inside of the discharge housing 210 into two parts. Any one of the internal spaces defined by the support partition wall 212 may allow residues transferred by the transport unit 230 to be accommodated and the other one of the internal spaces partitioned by the support partition wall 212 And the bevel gear assembly 244 is mounted.

The transfer tube 220 may form a transfer path for the residues collected in the collection housing 120 between the collection housing 120 and the discharge housing 210. The transfer tube 220 may form a path through which the transfer unit 230 is moved between the collecting housing 120 and the discharge housing 210.

The transfer pipe 220 is made of a metal material. The present invention is not limited thereto, and the conveyance pipe 220 may be formed of a non-metallic material. In addition, the transfer pipe 220 may have a circular cross-section. The present invention is not limited thereto, and the cross-sectional shape of the transfer pipe 220 may have a polygonal shape including a rectangular shape.

The conveying unit 230 includes a plurality of conveying scraper members 231 that are inserted into the conveying pipe 220 while being spaced apart from each other and a plurality of conveying line members 231 that connect the conveying scraper members 231 to form a closed loop, (232).

The conveyance unit 230 may further include a conveyor line member engaging part 233 disposed at the center of the conveying scraper member 231 and coupled to the conveyor line member 232.

The carrying scraper member 231 is shaped like an end face of the conveyance pipe 220 and the conveyor line member 232 passes through the coupling portion of the conveyor line member 232, .

Then, since the conveying unit 230 forms one closed loop, the conveying unit 230 is continuously and cyclically moved along one closed loop by the conveying drive unit 240. The transfer unit 230 may be moved along the inside of the transfer tube 220 to transfer the residue collected in the collection housing 120 to the discharge housing 210.

The conveying scraper member 231 shows the shape of the circular plate corresponding to the sectional shape of the conveyance pipe 220 and can be made of a urethane material. The shape of the conveying scraper member 231 may be shaped so as to correspond to the shape of the cross section of the conveying pipe 220. The conveying scraper member 231 may be formed in a shape corresponding to the shape of the conveying scraper member 231, (Not shown).

For example, when the conveyance pipe 220 is made of a metal material, the conveyance scraper member 231 is made of a plastic material to minimize friction noise due to friction between the conveyance scraper member 231 and the conveyance pipe 220, It is possible to prevent the conveyance pipe 220 from being broken due to the friction between the scraper members 231 and to prevent the residue from leaking from the conveyance pipe 220.

The conveyor line member 232 may be made of a metal material, for example, a steel material. The present invention is not limited to this, and the conveyor line member 232 may be made of another kind of metal material or plastic material.

The conveying scraper member 231 and the conveyor line member 232 may be integrally formed of the same material.

The conveyance drive unit 240 includes a conveying pulley 241, a guide pulley 242, and a conveying path portion 243.

The delivery pulley 241 is rotatably coupled to the discharge housing 210. The conveying pulley 241 may be rotatably coupled to the support partition 212. The conveying pulley 241 is engaged with the conveying scraper member 231 in a state in which at least a part of the conveying line member 232 is wound. To this end, the conveying pulley 241 is formed with a first conveying scraper engaging portion 245 which is engaged with the conveying scraper member 231 along the circumferential direction.

The guide pulley 242 is rotatably coupled to the discharge housing 210 while being separated from the conveying pulley 241. The guide pulley 242 may be rotatably coupled to the support bulkhead 212. The guide pulley 242 guides the conveying scraper member 231 to the conveying pipe 220 in a state where at least a part of the conveying line member 232 is wound.

Although not shown, the guide pulley 242 may be provided with a carrying unit support (not shown) for supporting the carrying unit 230 while setting a circulating movement path of the carrying unit 230 along the circumferential direction . The carrying unit supporting part (not shown) may be inclined at the circumferential surface of the guide pulley 242 to support a part of the carrying scraper member 231. In addition, the carrying unit supporting part (not shown) may be formed in a ring shape along the circumferential surface of the guide pulley 242 so that a part of the carrying scraper member 231 is inserted and seated.

At this time, the rotation center axis at which the conveying pulley 241 is rotated has a predetermined inclination angle with the central axis at which the guide pulley 242 is rotated. In other words, the imaginary plane in which the conveying pulley 241 is rotated and the imaginary plane in which the guide pulley 242 is rotated are mutually intersecting or parallel to each other. Accordingly, when the closed loop of the conveyance unit 230 is circulated within the discharge housing 210, the crossing conveyance units 230 are prevented from interfering with each other, So that the closed loop is smoothly circulated.

In other words, the inlet-side transfer pipe 220a of the transfer pipe 220 is connected to one side of the discharge housing 210 to transfer the transfer unit 230 to the inside of the discharge housing 210. [ An outlet side transfer pipe 220b of the transfer pipe 220 is connected to the other side of the discharge housing 210 to discharge the transfer unit 230 transferred to the inside of the discharge housing 210. The outlet-side transfer pipe 220b may be connected to the collection housing 120 to transfer the transfer unit 230 to the collection housing 120.

Here, a certain angle of inclination may be formed between the center axis of the conveying pulley 241 and the center axis of the guide pulley 242. In other words, the lengthwise direction of the inlet-side transfer pipe 220a corresponds to the longitudinal direction of the outlet-side transfer pipe 220b and the longitudinal direction of the outlet-side transfer pipe 220b corresponds to a virtual plane in which the conveyor pulley 241 and the guide pulley 242 are rotated. Intersect, or parallel with each other.

The conveying unit 230 is circulated in a spiral form inside the discharge housing 210 to thereby stably transfer the residue conveyed by the conveying unit 230 to the inside of the discharge housing 210 .

The delivery port 243 rotates the conveying pulley 241.

The transport driving unit 240 may further include a bevel gear assembly 244. [ The bevel gear assembly 244 connects the conveying pulley 241 and the conveying path moving part 243 to transmit rotational force generated in the conveying path moving part 243 to the conveying pulley 241. The bevel gear assembly 244 may include a coupling structure of bevel gears such that the rotating shafts cross each other.

The bevel gear assembly 244 is attached to the conveyance drive unit 240 so that the conveyance mouth portion 243 protrudes from the support partition wall 212 in a direction intersecting the circulating movement direction of the conveyance unit 230 The space for installing the outlet opening portion 243 in the discharge housing 210 can be made compact and the internal space of the discharge housing 210 can be used optimally.

The conveyance drive unit 240 rotates the conveyance pulley 241 in accordance with the operation of the conveyance carriage 243 so that the conveyance drive unit 240 continuously moves the conveyance unit 230 repeatedly . The conveyance drive unit 240 can circulate the closed loop of the conveyance unit 230. [

The transport module 200 may further include a path conversion unit 250 provided in the transport pipe 220 to change the movement path of the residue.

The path conversion unit 250 includes a hollow bending pipe 251 bent in correspondence with the movement path of the conveyance line member 232 to change the circulation path of the conveyance unit 230, A conversion housing 252 integrally provided with the conversion housing 252 and a path conversion pulley 253 rotatably coupled inside the conversion housing 252. [

The conveying pipe 220 is coupled to the bending pipe 251. The conveying pipe 220 is connected to both ends of the bending pipe 251. The conveying unit 230 is bent and passed through the bending pipe 251.

The conversion housing 252 communicates with the inside of the bending pipe 251. A communication area 257 is formed between the bending pipe 251 and the conversion housing 252.

The path-changing pulley 253 is engaged with the conveying scraper member 231. To this end, the path-changing pulley 253 is formed with a second carrying scraper engaging portion 255 to which the carrying scraper member 231 is engaged along the circumferential direction.

Although not shown, the path-changing pulleys 253 are stacked and supported in a state that a plurality of the path-changing pulleys 253 are spaced apart from each other along the longitudinal direction of the rotating shaft to prevent interference with the residuals, have.

Then, the path changing pulley 253 is rotated in a state supporting the transportation scraper member 231 according to the movement of the transportation unit 230, thereby changing the circulation path of the residue.

The supply side transfer pipe 220c of the transfer pipe 220 is connected to one side of the bending pipe 251 to transfer the transfer unit 230 to the inside of the bending pipe 251. [ A discharge side transfer pipe 220d of the transfer pipe 220 is connected to the other side of the bending pipe 251 to discharge the transfer unit 230 transferred to the inside of the bending pipe 251.

At this time, the supply side transfer pipe 220c is inserted into one side of the bending pipe 251. The end of the supply side transfer pipe 220c protrudes into the communication area 257 inside the bending pipe 251. [ The discharge side transfer pipe 220d is inserted into the other side of the bending pipe 251. The end of the discharge side transfer pipe 220d is prevented from protruding into the communication area 257 within the bending pipe 251. [ Accordingly, when the residue moves from one side of the bending pipe 251 to the other side of the bending pipe 251, the residue can be inhibited or prevented from penetrating into the conversion housing 252.

According to the above-described apparatus for processing a residue for a belt conveyor, residues falling downwardly of the belt conveyor 300 can be collected and re-supplied to the belt conveyor 300 quickly and efficiently.

In addition, it is possible to prevent the conveying units 230 from interfering with each other at the intersection of the conveying units 230, and to smooth the closed loop circulation movement of the conveying units 230.

It is also possible to prevent residues from remaining in the bending pipe 251 and the conversion housing 252 and to prevent the residue from interfering with the rotation of the path-changing pulley 253, Can be prevented from being increased.

In addition, residues falling down from the belt conveyor 300 can be easily collected in the collection housing 120.

It is also possible that the residue transferred to the collecting housing 120 is stably transferred to the residue collecting body 121 and the residue is smoothly transferred from the residue collecting body 121 to the transferring tube 220 . In addition, even if the residues contain water in the form of a lump, the lump-shaped residues can be disrupted and transferred to the residue collecting body 121.

Also, closed loop circulation movement of the transfer unit 130 and the transfer unit 230 can be smoothly performed.

In addition, the transfer scraper member 131 can be prevented from tilting in the closed loop circulation movement of the transfer unit 130, and the transfer line member 132 can be stably supported.

It is also possible to crush the residues delivered to the collection housing 120 in lump form and to evenly distribute the residues to the collection housing 120.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, Modify or modify the Software.

100: collection module 110: residue receiver 111:
112: residue-receiving groove 120: collecting housing 121: residue collecting body
122: residue guide body 130: transfer unit 131: transferring scraper member
132: transmission line member 133: transmission line member coupling portion 140: transmission drive unit
141: first transmission pulley 142: second transmission pulley 145:
171: first engaging pulley 172: second engaging pulley 173: first engaging tooth portion
174: second engagement tooth portion 175: transmission rotation shaft 176: shaft support bracket
177: line member support 178: residue distribution plate 200: transport module
210: discharge housing 211: residue discharge part 212: support partition wall
220: conveying pipe 220a: inlet-side conveying pipe 220b: outlet-side conveying pipe
220c: feed side feed pipe 220d: discharge side feed pipe 230:
231: conveying scraper member 232: conveying line member 233: conveying line member engaging portion
240: conveying drive unit 241: conveying pulley 242: guide pulley
243: Transporting section easer 244: Bevel gear assembly 250: Path converting unit
251: Bending tube 252: Conversion housing 253: Path conversion pulley
245: first conveying scraper catching portion 255: second conveying scraper catching portion
257: communicating area 300: belt conveyor

Claims (7)

A collection module for collecting residues falling down the belt conveyor; And
And a conveying module for conveying the collected collected to the collecting module to the belt conveyor,
Wherein the transport module comprises:
An outlet housing disposed above the belt conveyor for transferring residues collected in the collecting module to the belt conveyor;
A hollow conveying pipe connecting the collecting module and the discharge housing to form a closed loop and forming a conveying path of the collected material to the collecting module;
A conveying unit including a plurality of conveying scraper members inserted into the conveying pipe while being spaced apart from each other, and a conveying line member connecting the conveying scraper members to form a closed loop; And
And a conveyance drive unit for circulating the closed loop of the conveying unit in a state of being coupled to the discharge housing for conveying the residue collected in the collecting module to the discharge housing,
The transportation drive unit includes:
A conveying pulley rotatably coupled to the discharge housing, the conveying pulley engaging the conveying scraper member in a state in which at least a portion of the conveying line member is wound;
A guide pulley rotatably coupled to the discharge housing in a state spaced apart from the conveying pulley and guiding the conveying scraper member to the conveying pipe in a state where at least a part of the conveying line member is wound; And
And a conveying port portion for rotating the conveying pulley,
Wherein the rotation center axis at which the conveying pulley is rotated has a predetermined inclination angle with the central axis at which the guide pulley is rotated. The method according to claim 1,
Wherein the transport module comprises:
And a path changing unit provided in the transfer tube for changing the path of movement of the residue,
Wherein the path conversion unit comprises:
A hollow bending pipe bent in correspondence with a movement path of the carrier string to be changed and to which the transfer tube is coupled;
A conversion housing provided integrally with the bending pipe and communicating with the inside of the bending pipe; And
And a path-changing pulley rotatably coupled to the conversion housing and engaged with the conveying scraper member. 3. The method according to claim 1 or 2,
Wherein the acquisition module comprises:
A residue receptacle on which the residue falling downwardly of the belt conveyor is seated and on which a residue sinking groove is formed on which the residue falling below the belt conveyor is formed;
A collecting housing disposed at both ends of the residue holder to collect residues that are seated in the residue receiving grooves;
A transfer unit for forming a closed loop in a state of being inserted into the residue receiving groove; And
And a transfer drive unit for circulating the closed loop of the transfer unit to transfer the residue seated in the residue receiving groove to the collecting housing. The method of claim 3,
The collecting housing comprises:
A residue collecting body through which the delivery conveyed by the delivery unit is collected and through which the delivery unit passes; And
And a residue guiding body for guiding the residue transferred by the transfer unit to the residue collecting body,
Wherein the acquisition module comprises:
A collection impeller rotatably coupled to the residue guide body; And
And an impeller driving unit for rotating the collecting impeller to push the residue transferred to the residue guiding body into the residue collecting body. 5. The method of claim 4,
The transmission unit includes:
A transfer scraper member inserted and disposed in the residue receiving grooves so as to be spaced apart from each other; And
And a transmission line member connecting the transmission scraper member to form a closed loop,
The transfer drive unit includes:
A transfer pulley mating with the transfer scraper member in a state in which at least a portion of the transferring strand member is wound corresponding to the collecting housing; And
And a transmission driving unit for rotating the transmission pulley. 6. The method of claim 5,
The transmission pulley,
A transmission rotary shaft rotated by the transmission driving unit;
A first engagement pulley coupled to the transmission rotation shaft and protruding from the first engagement tooth portion to which the transmission scraper member is engaged; And
A second engaging pulley coupled to the transmission rotation shaft in a state spaced apart from the first engaging pulley and having a second engaging tooth portion protruding from the first engaging tooth portion to engage with the first engaging tooth portion; And
And a line member support for connecting the first engagement tooth portion and the second engagement tooth portion so that the transmission line member is supported. The method according to claim 6,
The transmission pulley,
Further comprising a residual dispersion plate coupled to the transmission rotation axis such that residues conveyed by the transmission scraper member are dispersed and dropped off.

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