Dividing machine applied to corrugated carton printing and forming linkage line

Abstract

The utility model relates to the technical field of corrugated carton processing, in particular to a distributing machine applied to a corrugated carton printing and forming linkage line, which comprises a main frame, upper conveying suspension beams and lower conveying suspension beams, and a plurality of groups of upper conveying suspension beams are arranged at the top end of the top of the main frame. A plurality of groups of upper conveying suspension beams are arranged at the bottom end of the interior of the main rack, a plurality of groups of lower conveying suspension beams are arranged at the bottom end of the interior of the main rack, the main transmission assembly is slidably connected with the plurality of groups of upper conveying suspension beams and the plurality of groups of lower conveying suspension beams, the shunting transmission assembly is slidably connected with the plurality of groups of lower conveying suspension beams, and a transverse conveying assembly is arranged on the left side of the main rack; products which can be linked are guided to a folding part for continuous linkage according to production requirements, and products which do not meet the linkage requirements pass through a bypass, are guided out of the machine and then are stacked or flow to other single machines matched with the machine in process.

Description

Technical Field

[0001] The utility model relates to the technical field of corrugated paper box processing, in particular to a diverter applied to a corrugated paper box printing and forming linkage line. Background Art

[0002] As the name suggests, the printing, slotting and box forming linkage line completes multiple serial processes in a linkage environment, thereby saving labor and improving work efficiency. After years of development, the linkage line has become very mature.

[0003] However, the design of a linkage line cannot meet multiple molding requirements or size range requirements, while the printing press that matches it fully meets the needs of various product pre-processes. Under this contradictory and constrained state, the linkage line can only become a professional equipment to handle products with a certain process or size range. The average utilization efficiency is low, resulting in the common phenomenon of low equipment utilization rate and input-output ratio. Utility Model Content

[0004] In order to solve the above technical problems, the utility model provides a diverter and a production method for use in a corrugated paper box printing and forming linkage line, which improve processing efficiency.

[0005] The utility model discloses a diverter applied to a corrugated cardboard box printing and forming linkage line, comprising a longitudinal conveying assembly and a transverse conveying assembly, wherein the longitudinal conveying assembly is arranged in such a manner that: the longitudinal conveying assembly is connected in series between the printing machine and the folding part of the linkage line; the transverse conveyor is arranged below the folding beam of the linkage line, and its belt conveying direction is perpendicular to the walking direction of the linkage line; the upper and lower belt movements of the plane conveying unit of the longitudinal conveying assembly form a motion combination with the folding frame belt to complete the linkage work; the sinking belt and the transverse conveyor complete the motion combination, comprising a main frame, an upper conveying suspension beam and a lower conveying suspension beam, a plurality of groups of upper conveying suspension beams are arranged at the top end of the main frame, and a plurality of groups of lower conveying suspension beams are arranged at the inner bottom end of the main frame, and is characterized in that the longitudinal conveying assembly also comprises a main transmission assembly, a diverter transmission assembly The main transmission assembly is slidably connected to multiple groups of upper conveying suspension beams and multiple groups of lower conveying suspension beams respectively, and the diverter transmission assembly is slidably connected to multiple groups of lower conveying suspension beams. A transverse conveying assembly is provided on the left side of the main frame. The longitudinal conveying frame is arranged between the printing press and the linkage line. The conveying plane is basically the same, and the transverse conveying assembly is arranged below the folding beam of the linkage line. The conveying direction is perpendicular to the main transmission direction; in the actual production process, the plane conveyor belt accelerates and accurately conveys the incoming materials from the printing press to the folding part of the linkage line, completing its own linkage production function; and the sinking conveyor belt guides the incoming materials from the first brush machine downward and enters the transverse turning machine arranged below the folding beam of the linkage line. Under the constraint and sorting action of the baffle, the transverse belt runs to export the diverted cardboard, which can be connected with other logistics devices to realize the classified post-processing of the printing press products.

[0006] In the actual production process, there are two working modes: linkage and diversion. The intermediate transmission part is realized by plane conveying and sinking conveying respectively. When producing products that meet the linkage conditions, the PLC controls the servo motor to arrange the horizontal conveying (upper and lower) belts in the appropriate position according to the paper specifications, while the sinking belt stays at the most (not limited to left and right) side. The plane conveying motor starts and its speed is controlled by the PLC to synchronize with the printing machine and linkage line, thereby meeting the conveying requirements of the original linkage line and completing fully automatic linkage production;

[0007] On the contrary; when the linkage line cannot meet the requirements of the printed product, the system starts the switching function and drives the flat conveyor belt to the side (not limited to left or right) to make room for conveying. The sinking conveyor belt is arranged according to the size requirements of the production materials until it is appropriate. At the same time, the baffle for the horizontal conveying is also arranged (the position instruction is given by the PLC operation. The servo motor pushes the sinking belt bracket according to the instruction) to the appropriate position. After the configuration is completed, wait for the printing press to receive materials. The horizontal conveying of the sinking belt conveyor is automatically synchronized with the printing speed. In order to ensure that the horizontal conveyor arranged under the folding part has enough conveying distance, the horizontal conveyor can be driven by the travel motor to move in the conveying direction on the track when performing work. In addition, the folding conveyor belt also needs to be opened to increase the conveying distance.

[0008] After the diversion mode ends, the horizontal moving component is driven by the mobile motor to retract to the static waiting position, and the folding conveyor belt is retracted. This ensures that the channels around the production line are unobstructed in the normal linkage mode.

[0009] The top of the main frame is provided with multiple groups of upper conveying suspension beams, and the inner bottom of the main frame is provided with multiple groups of lower conveying suspension beams. The longitudinal conveying assembly also includes a main transmission assembly and a shunt transmission assembly. The main transmission assembly is slidably connected with the multiple groups of upper conveying suspension beams and the multiple groups of lower conveying suspension beams respectively, and the shunt transmission assembly is slidably connected with the multiple groups of lower conveying suspension beams. A transverse conveying assembly is provided on the left side of the main frame. When in use, when the cardboard coming out of the printing press needs to be automatically boxed after coming out, the cardboard is conveyed to the nailing and gluing linkage line through the main transmission assembly. When the cardboard coming out of the printing press does not need to be automatically boxed, the main transmission assembly is on the main transmission assembly. The inside of the frame moves forward, and then the diverter transmission assembly is operated to move forward inside the main frame, so that the diverter transmission assembly is on the left side of the printing press, and then the transverse conveying assembly is adjusted to move forward. After that, the cardboard coming out of the printing press is transmitted to the transverse conveying assembly through the diverter transmission assembly. After that, the transverse conveying assembly will convey the cardboard that does not need to be automatically boxed to other conveyor lines, realizing the series connection between the printing press and the folding machine in the linkage line. According to production needs, the products that can be linked are guided to the folding part to continue the linkage, while the products that do not meet the linkage requirements are bypassed, and after being exported from the machine, they are stacked or flowed to other single machines that match their processes.

[0010] Preferably, the main transmission assembly includes a main transmission motor, an upper power shaft, a lower power shaft, a plane conveying upper plate, a plane conveying lower plate, a plane conveying upper belt, a plane conveying lower belt, a plane conveying plate synchronous adjustment motor, a plane conveying upper plate adjustment screw, a plane conveying lower plate adjustment screw, multiple groups of plane conveying upper plates are respectively slidably connected to multiple groups of upper conveying suspension beams, multiple groups of plane conveying lower plates are respectively slidably connected to multiple groups of lower conveying suspension beams, each group of plane conveying upper plates is respectively provided with a group of plane conveying upper belts, each group of plane conveying lower plates is respectively provided with a group of plane conveying lower belts, the upper power shaft and the lower power shaft are respectively rotatably mounted on Inside the main frame, the upper power shaft drives the multi-set plane conveying upper belt to rotate, and the multi-set plane conveying upper belt can move forward and backward along the upper power shaft, and the lower power shaft drives the multi-set plane conveying lower belt to rotate, and the multi-set plane conveying lower belt can move forward and backward along the lower power shaft. A main transmission motor is provided on the main frame, and the main transmission motor drives the upper power shaft and the lower power shaft to rotate synchronously in the opposite direction through the chain and sprocket. Multiple sets of plane conveying upper plate adjustment screws and multiple sets of plane conveying lower plate adjustment screws are provided on the main frame, and the multiple sets of plane conveying upper plate adjustment screws are all threadedly connected to the multiple sets of plane conveying upper plates. The lower plate adjustment screws are all threadedly connected with multiple sets of plane conveying lower plates. A plane conveying plate synchronous adjustment motor is provided on the main frame. The plane conveying plate synchronous adjustment motor drives multiple sets of plane conveying upper plate adjustment screws and multiple sets of plane conveying lower plate adjustment screws to rotate synchronously in the same direction through chain sprockets; when the cardboard coming out of the printing press needs to be automatically boxed, the main transmission motor is started, so that the upper power shaft and the lower power shaft rotate synchronously in opposite directions, so that the multiple sets of plane conveying upper belts and the multiple sets of plane conveying lower belts rotate in opposite directions, and one set of plane conveying upper belts and the plane conveying lower belts just below cooperate with each other to transport the cardboard to the nailing and gluing linkage line. When the cardboard coming out of the printing press does not need to be automatically boxed, the plane conveyor plate synchronous adjustment motor is started. The plane conveyor plate synchronous adjustment motor drives multiple sets of plane conveyor upper plate adjustment screws and multiple sets of plane conveyor lower plate adjustment screws to rotate synchronously in the same direction with the cooperation of the chain sprocket. Since the multiple sets of plane conveyor upper plates are threadedly connected with the plane conveyor upper plate adjustment screws, and the multiple sets of plane conveyor lower plates are threadedly connected with the multiple sets of plane conveyor lower plate adjustment screws, the multiple sets of plane conveyor upper plates and the multiple sets of plane conveyor lower plates can be moved forward synchronously, thereby preventing the plane conveyor upper belt and the plane conveyor lower belt from conveying the cardboard to the nailing and gluing linkage line.

[0011] Preferably, the diverter transmission assembly includes a sinking conveyor belt, a diverter longitudinal conveyor plate, a diverter transmission motor, a diverter transmission shaft, a diverter plate adjustment motor, a diverter plate adjustment screw and a paper stopper. Multiple groups of diverter longitudinal conveyor plates are slidingly arranged on multiple groups of lower conveying suspension beams. Each group of diverter longitudinal conveyor plates is respectively provided with a group of sinking conveyor belts. A diverter transmission motor is provided on the main frame. A diverter transmission shaft is provided for rotation inside the main frame. The diverter transmission shaft drives the multiple groups of sinking conveyor belts to rotate while the sinking conveyor belts slide back and forth on the diverter transmission shaft. A diverter plate adjustment motor is provided on the main frame, and a diverter plate adjustment screw is provided at the output end of the diverter plate adjustment motor. The diverter plate adjustment screw is threadedly connected to the multi-group diverter longitudinal conveyor plate, and a paper stop is provided on the diverter longitudinal conveyor plate; when multiple groups of sinking conveyor belts are needed to convey cardboard that does not need to be automatically boxed, the diverter plate adjustment motor is started, so that the diverter plate adjustment screw drives the multi-group diverter longitudinal conveyor plate and the sinking conveyor belt to be conveyed forward with the cooperation of the multiple groups of lower conveying suspension beams, so that the multiple groups of sinking conveyor belts are on the left side of the printing press, and then the diverter transmission motor is started, so that the diverter transmission shaft drives the multiple groups of sinking conveyor belts to rotate, and the cardboard coming out of the printing press is conveyed to the horizontal conveying component through the multiple groups of sinking conveyor belts under the guidance of the paper stop, thereby realizing diversion.

[0012] There is a collecting box on opposite at case shell inlet, and its side has individual small size motor to drive a conveyer belt support on two guide wheels, and a guide wheel is near collecting box top, and another guide wheel is in presses roller tangential port position up and down, and a guide wheel is in presses roller tangential port position up and down. One end of the plane conveyor shaft is connected, and the rear end of the sub-frame is hingedly provided with a folding conveyor belt, and a folding conveyor belt adjustment cylinder is arranged inside the sub-frame, and the moving end of the folding conveyor belt adjustment cylinder is hinged to the bottom end of the folding conveyor belt, and a paper stop rod adjustment motor is arranged inside the sub-frame, and a paper stop rod adjustment motor is arranged at the output end of the paper stop rod adjustment motor; when it is necessary to use multiple sets of plane conveyor belts to convey cardboard, the whole machine moving motor is started to rotate the whole machine moving screw, and the whole machine moving screw drives the sub-frame forward with the cooperation of the whole machine moving nut, the whole machine moving roller and the whole machine moving ground rail, and then the folding conveyor belt adjustment cylinder is operated to extend, thereby adjusting the conveying angle of the folding conveyor belt, and then the plane conveying motor is started to rotate the multiple sets of plane conveyor belts, and when the multiple sets of sinking conveyor belts convey the cardboard, the paper stop rod blocks the cardboard, so that the cardboard falls on the plane conveyor belt, and the multiple sets of plane conveyor belts convey the cardboard horizontally to other production lines with the cooperation of the folding conveyor belts, thereby improving flexibility.

[0013] Compared with the prior art, the beneficial effects of the present invention are as follows: the printing press is the most expensive equipment in the post-production equipment of corrugated boxes, and its production efficiency directly affects the production cost and the efficiency of equipment depreciation. The linkage line does shorten the process route and improves production efficiency when meeting its production conditions. However, the average of carton products on the market that meet the requirements of the linkage line is less than 30%. It is obvious that on the one hand, an expensive equipment is used to solve the problem of high-speed automated production of a small part of the material, while most products cannot be produced by this type of equipment, resulting in the factory needing to be equipped with a linkage line plus multiple non-linked printing presses. The average utilization rate of most equipment is limited by the product structure.

[0014] As mentioned above, the present invention fundamentally solves the problem of insufficient utilization efficiency of the most expensive equipment, increases the utilization efficiency of the printing presses on the linkage line from less than 50% to 100%, and provides a new equipment solution for the industry.

[0015] When in use, when the cardboard coming out of the printing press needs to be automatically boxed after coming out, the cardboard is transported to the nailing and gluing linkage line through the main transmission assembly. When the cardboard coming out of the printing press does not need to be automatically boxed, the main transmission assembly moves forward inside the main frame, and then the diverter transmission assembly is operated to move forward inside the main frame, so that the diverter transmission assembly is on the left side of the printing press, and then the horizontal conveying assembly is adjusted to move forward. After that, the cardboard coming out of the printing press is transmitted to the horizontal conveying assembly through the diverter transmission assembly, and then the horizontal conveying assembly conveys the cardboard that does not need to be automatically boxed to other conveyor lines, realizing a series connection between the printing press and the folding machine in the linkage line, and guiding the products that can be linked to the folding part to continue the linkage according to production needs, while the products that do not meet the linkage requirements are bypassed, and after being exported from the machine, they are stacked or flow to other single machines that match their processes. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 This is an axonometric structural diagram of the longitudinal conveying assembly of the present utility model;

[0017] Figure 2 It is an enlarged structural diagram of the structure of the plane conveying upper plate adjustment screw and the plane conveying plate synchronous adjustment motor;

[0018] Figure 3 It is an enlarged structural diagram of the paper stopper and the diverter plate adjustment motor and other structures;

[0019] Figure 4 This is a first axonometric structural diagram of the transverse conveying assembly of the present utility model;

[0020] Figure 5 It is a structural diagram of the transverse conveying assembly of the utility model;

[0021] Figure 6 This is a second axonometric structural diagram of the transverse conveying assembly of the present invention;

[0022] Figure 7 This is a first axonometric structural diagram of the linkage line state of the utility model;

[0023] Figure 8 This is a second axonometric structural diagram of the linkage line state of the utility model;

[0024] Figure 9 This is a third axonometric structural diagram of the linkage line state of the utility model;

[0025] Figure 10This is a first axonometric structural diagram of the linkage line in the shunting state of the utility model;

[0026] Figure 11 This is a second axonometric structural diagram of the utility model in the linkage line diversion state;

[0027] Figure 12 This is a third axonometric structural diagram of the linkage line in the shunting state of the utility model;

[0028] Markings in the accompanying drawings: 101, main frame; 102, upper conveying suspension beam; 103, lower conveying suspension beam; 201, main drive motor; 202, upper power shaft; 203, lower power shaft; 204, plane conveying upper plate; 205, plane conveying lower plate; 206, plane conveying upper belt; 207, plane conveying lower belt; 208, plane conveying plate synchronous adjustment motor; 209, plane conveying upper plate adjustment screw; 210, plane conveying lower plate adjustment screw; 301, sinking conveying belt; 302, diverter longitudinal conveyor plate; 303, diverter drive motor; 304, diverter drive shaft; 305, Manifold adjustment motor; 306, manifold adjustment screw; 307, paper stop; 401, sub-frame; 402, support plate; 403, whole machine moving ground rail; 404, whole machine moving motor; 405, whole machine moving screw; 406, whole machine moving nut; 407, flat conveyor shaft; 408, flat conveyor motor; 409, flat conveyor belt; 410, transmission timing belt; 411, transmission timing pulley; 412, folding conveyor belt adjustment cylinder; 413, folding conveyor belt; 414, paper stop rod adjustment motor; 415, paper stop rod; 416, whole machine moving roller; 501, paperboard; DETAILED DESCRIPTION

[0029] To facilitate understanding of the present invention, a more comprehensive description of the present invention will be provided below with reference to the accompanying drawings. The present invention can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to provide a more thorough and comprehensive understanding of the present invention.

[0030] Example 1

[0031] like Figures 1 to 6As shown, the utility model is a diverter applied to a corrugated cardboard box printing and forming linkage line, comprising a longitudinal conveying assembly and a transverse conveying assembly, wherein the arrangement of the longitudinal conveying assembly is as follows: the longitudinal conveying assembly is connected in series between the printing machine and the folding part of the linkage line; the transverse conveyor is arranged below the folding beam of the linkage line, and its belt conveying direction is perpendicular to the walking direction of the linkage line; the upper and lower belt movements of the plane conveying unit of the longitudinal conveying assembly form a motion combination with the folding frame belt to complete the linkage work; the sinking belt and the transverse conveyor complete the motion combination, and the longitudinal conveying assembly includes a main frame 101, an upper conveying suspension beam 102 and a lower conveying suspension beam 103, the top end of the main frame 101 is provided with multiple groups of upper conveying suspension beams 102, and the inner bottom end of the main frame 101 is provided with multiple groups of lower conveying suspension beams 103, and also includes a main transmission assembly and a diverter transmission assembly, the main transmission assembly is respectively slidably connected with the multiple groups of upper conveying suspension beams 102 and the multiple groups of lower conveying suspension beams 103, the diverter transmission assembly is slidably connected with the multiple groups of lower conveying suspension beams 103, and a transverse conveying assembly is provided on the left side of the main frame 101.

[0032] The main transmission assembly includes a main transmission motor 201, an upper power shaft 202, a lower power shaft 203, a plane conveying upper plate 204, a plane conveying lower plate 205, a plane conveying upper belt 206, a plane conveying lower belt 207, a plane conveying plate synchronous adjustment motor 208, a plane conveying upper plate adjustment screw 209, and a plane conveying lower plate adjustment screw 210. Multiple groups of plane conveying upper plates 204 are respectively slidably connected to multiple groups of upper conveying suspension beams 102, and multiple groups of plane conveying lower plates 205 are respectively slidably connected to multiple groups of lower conveying suspension beams 103. Each group of plane conveying upper plates 204 is respectively provided with a group of plane conveying upper belts 206, and each group of plane conveying lower plates 205 is respectively provided with a group of plane conveying lower belts 207. The upper power shaft 202 and the lower power shaft 203 are respectively rotatably installed inside the main frame 101. The upper power shaft 202 drives the multiple groups of plane conveying upper belts 206 to rotate, and the multiple groups of plane conveying upper belts 206 can move forward along the upper power shaft 202 The movement of the rear position, the lower power shaft 203 drives the multiple sets of plane conveying lower belts 207 to rotate, and the multiple sets of plane conveying lower belts 207 can move the front and rear positions along the lower power shaft 203. A main transmission motor 201 is provided on the main frame 101, and the main transmission motor 201 drives the upper power shaft 202 and the lower power shaft 203 to rotate synchronously in opposite directions through chains and sprockets. Multiple sets of plane conveying upper plate adjusting screws 209 and multiple sets of plane conveying lower plate adjusting screws 210 are rotatably provided on the main frame 101, and the multiple sets of plane conveying upper plate adjusting screws 209 are all threadedly connected to the multiple sets of plane conveying upper plates 204, and the multiple sets of plane conveying lower plate adjusting screws 210 are all threadedly connected to the multiple sets of plane conveying lower plates 205. A plane conveying plate synchronous adjustment motor 208 is provided on the main frame 101, and the plane conveying plate synchronous adjustment motor 208 drives the multiple sets of plane conveying upper plate adjusting screws 209 and the multiple sets of plane conveying lower plate adjusting screws 210 to rotate synchronously in the same direction through chains and sprockets;When in use, when the cardboard out of the printing press needs to be automatically boxed after coming out, when the cardboard out of the printing press needs to be automatically boxed, the main transmission motor 201 is started, so that the upper power shaft 202 and the lower power shaft 203 rotate synchronously in opposite directions, so that the multiple sets of plane conveying upper belts 206 and the multiple sets of plane conveying lower belts 207 rotate in opposite directions, and one set of plane conveying upper belts 206 and the plane conveying lower belts 207 just below cooperate with each other to convey the cardboard to the nailing and gluing linkage line. When the cardboard out of the printing press does not need to be automatically boxed, the plane conveying plate synchronous adjustment motor 208 is started, and the plane conveying plate synchronous adjustment motor 208 drives the multiple sets of plane conveying upper plate adjustment screws 209 and the multiple sets of plane conveying lower plate adjustment screws 210 to rotate synchronously in the same direction with the cooperation of the chain sprocket. Since the multiple sets of plane conveying upper plates 204 are threadedly connected with the plane conveying upper plate adjustment screws 209, the multiple sets of plane conveying lower plates 205 and the multiple sets of plane conveying lower plate adjustment screws The entire lead screw 210 is threadedly connected, thereby achieving the synchronous forward movement of multiple sets of planar conveying upper plates 204 and multiple sets of planar conveying lower plates 205, thereby preventing the planar conveying upper belt 206 and the planar conveying lower belt 207 from conveying the cardboard to the nailing and gluing linkage line. When the cardboard from the printing press does not need to be automatically boxed, the main transmission assembly moves forward inside the main frame 101, and then the shunt transmission assembly is operated to move forward inside the main frame 101, so that the shunt transmission assembly is directly to the left of the printing press. The lateral conveying assembly is then adjusted to move forward. The cardboard from the printing press is then transmitted to the lateral conveying assembly through the shunt transmission assembly. The lateral conveying assembly then conveys the cardboard that does not need to be automatically boxed to other conveyor lines, realizing a series connection between the printing press and the folder in the linkage line. According to production requirements, products that can be linked are guided to the folding section for continued linkage, while products that do not meet the linkage requirements are bypassed, discharged from the machine, and stacked or flowed to other single machines that match their processes.

[0033] Example 2

[0034] On the basis of Example 1, Figures 1 to 6As shown, the utility model is a diverter applied to the corrugated box printing and forming linkage line, the diverter transmission assembly includes a sinking conveyor belt 301, a diverter longitudinal conveyor plate 302, a diverter transmission motor 303, a diverter transmission shaft 304, a diverter plate adjustment motor 305, a diverter plate adjustment screw 306 and a paper stopper 307, multiple groups of lower conveying suspension beams 103 are slidably provided with multiple groups of diverter longitudinal conveyor plates 302, each group of diverter longitudinal conveyor plates 302 is respectively provided with a group of sinking conveyor belts 301, and a diverter is provided on the main frame 101. A transmission motor 303 is provided with a diverter drive shaft 304 for rotation inside the main frame 101. The diverter drive shaft 304 drives the multiple groups of sinking conveyor belts 301 to rotate, and the sinking conveyor belts 301 slide back and forth on the diverter drive shaft 304. A diverter plate adjustment motor 305 is provided on the main frame 101. A diverter plate adjustment screw 306 is provided at the output end of the diverter plate adjustment motor 305. The diverter plate adjustment screw 306 is threadedly connected to the multiple groups of diverter longitudinal conveyor plates 302. A paper stopper 307 is provided on the diverter longitudinal conveyor plate 302.

[0035] The lateral conveying assembly includes a sub-frame 401, a supporting plate 402, a whole-machine moving ground rail 403, a whole-machine moving motor 404, a whole-machine moving screw 405, a whole-machine moving nut 406, a plane conveying shaft 407, a plane conveying motor 408, a plane conveying belt 409, a transmission synchronous belt 410, a transmission synchronous pulley 411, a transmission folding conveyor belt adjustment cylinder 412, a folding conveyor belt 413, a paper stop rod adjustment motor 414, a paper stop rod 415 and a whole-machine moving roller 416. A plurality of sets of plane conveying shafts 407 are rotatably arranged on the sub-frame 401, and two adjacent sets of plane conveying shafts 407 are provided with plane conveying belts 409. The two adjacent sets of plane conveying belts 409 are driven by the transmission synchronous belt 410 and the transmission synchronous pulley 411. The bottom end of the sub-frame 401 is provided with a whole-machine moving roller 416, and the top of the supporting plate 402 is provided with a whole-machine moving ground rail 403. Rail 403, the whole machine moving roller 416 is in contact with the whole machine moving ground rail 403 roller, the whole machine moving motor 404 is provided at the top of the supporting plate 402, the whole machine moving motor 404 is provided with a whole machine moving screw 405, the whole machine moving nut 406 is provided on the sub-frame 401, the whole machine moving screw 405 is threadedly connected to the whole machine moving nut 406, a plane conveying motor 408 is provided on the sub-frame 401, the output end of the plane conveying motor 408 is connected to one end of a group of plane conveying shafts 407, the rear end of the sub-frame 401 is hingedly provided with a folding conveyor belt 413, a folding conveyor belt adjustment cylinder 412 is provided inside the sub-frame 401, the moving end of the folding conveyor belt adjustment cylinder 412 is hinged to the bottom end of the folding conveyor belt 413, a paper stop rod adjustment motor 414 is provided inside the sub-frame 401, and the output end of the paper stop rod adjustment motor 414 is provided with a paper stop rod 415;When multiple sets of sinking conveyor belts 301 are needed to convey cardboards that do not need to be automatically boxed, the diverter plate adjustment motor 305 is started, so that the diverter plate adjustment screw 306 drives the multiple sets of diverter longitudinal conveyor plates 302 and the sinking conveyor belts 301 to be conveyed forward under the cooperation of the multiple sets of lower conveying suspension beams 103, so that the multiple sets of sinking conveyor belts 301 are on the left side of the printing press, and then the diverter transmission motor 303 is started, so that the diverter transmission shaft 304 drives the multiple sets of sinking conveyor belts 301 to rotate, and the cardboards coming out of the printing press are conveyed to the horizontal conveying assembly through the multiple sets of sinking conveyor belts 301 under the guidance of the paper stop 307, and the whole machine moving motor 404 is started, so that the whole machine The moving screw 405 rotates, and the whole machine moving screw 405 drives the sub-frame 401 forward in cooperation with the whole machine moving nut 406, the whole machine moving roller 416, and the whole machine moving ground rail 403. The folding conveyor belt adjustment cylinder 412 is then operated to extend, thereby adjusting the conveying angle of the folding conveyor belt 413. The flat conveyor motor 408 is then activated, causing the multiple sets of flat conveyor belts 409 to rotate. When the multiple sets of sinking conveyor belts 301 convey the cardboard, the paper stop rod 415 blocks the cardboard, causing it to fall onto the flat conveyor belt 409. The multiple sets of flat conveyor belts 409, in cooperation with the folding conveyor belt 413, transport the cardboard horizontally to other production lines.

[0036] The utility model provides a chain sprocket for a diverter used in a corrugated cardboard box printing and forming linkage line. The chain sprocket is purchased on the market, and technicians in the industry only need to install and operate it according to the accompanying instruction manual without the need for creative work by technicians in this field.

[0037] The above is only a preferred embodiment of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the technical principles of the present invention. These improvements and modifications should also be regarded as the scope of protection of the present invention.

Claims

1. A diverter used in a corrugated cardboard box printing and forming linkage line, comprising a longitudinal conveying assembly and a transverse conveying assembly, wherein the longitudinal conveying assembly is arranged in a manner as follows: the longitudinal conveying assembly is connected in series between the printing machine and the folding part of the linkage line; the transverse conveyor is arranged below the folding beam of the linkage line, and its belt conveying direction is perpendicular to the running direction of the linkage line; the upper and lower belt movements of the plane conveying unit of the longitudinal conveying assembly form a motion combination with the folding frame belt to complete the linkage work; the sinking belt and the transverse conveyor complete the motion combination, comprising a main frame (101), an upper conveying suspension beam (102) and a lower conveying suspension beam (103), the top end of the main frame (101) is provided with multiple groups of upper conveying suspension beams (102), and the inner bottom end of the main frame (101) is provided with multiple groups of lower conveying suspension beams (103), characterized in that The longitudinal conveying assembly further comprises a main transmission assembly and a diversion transmission assembly. The main transmission assembly is respectively slidably connected to the plurality of upper conveying suspension beams (102) and the plurality of lower conveying suspension beams (103). The diversion transmission assembly is slidably connected to the plurality of lower conveying suspension beams (103). A transverse conveying assembly is provided on the left side of the main frame (101).

2. A diverter used in a corrugated box printing and forming line according to claim 1, characterized in that: The main transmission assembly comprises a main transmission motor (201), an upper power shaft (202), a lower power shaft (203), a plane conveying upper plate (204), a plane conveying lower plate (205), a plane conveying upper belt (206), a plane conveying lower belt (207), a plane conveying plate synchronous adjustment motor (208), a plane conveying upper plate adjustment screw (209), and a plane conveying lower plate adjustment screw (210). Multiple sets of plane conveying upper plates (204) are respectively connected to multiple sets of upper conveying suspension beams (102) in a sliding manner. Multiple sets of plane conveying lower plates (205) are connected to multiple sets of upper conveying suspension beams (102). 05) are respectively connected to the plurality of lower conveying suspension beams (103) in a sliding manner, each set of plane conveying upper plates (204) is respectively provided with a set of plane conveying upper belts (206), each set of plane conveying lower plates (205) is respectively provided with a set of plane conveying lower belts (207), the upper power shaft (202) and the lower power shaft (203) are respectively rotatably mounted inside the main frame (101), the upper power shaft (202) drives the plurality of plane conveying upper belts (206) to rotate, and the plurality of plane conveying upper belts (206) can rotate along the upper power shaft (202 ) to move forward and backward, the lower power shaft (203) drives multiple sets of plane conveying lower belts (207) to rotate, and the multiple sets of plane conveying lower belts (207) can move forward and backward along the lower power shaft (203). A main transmission motor (201) is provided on the main frame (101), and the main transmission motor (201) drives the upper power shaft (202) and the lower power shaft (203) to rotate synchronously in the opposite direction through a chain and a sprocket. The main frame (101) is provided with multiple sets of plane conveying upper plate adjustment screws (209) and multiple sets of plane conveying lower plate adjustment screws (209) and multiple sets of plane conveying lower plate adjustment screws (209) to rotate. The plate adjusting screw (210) is provided, and the plurality of sets of plane conveying upper plate adjusting screws (209) are all threadedly connected with the plurality of sets of plane conveying upper plates (204), and the plurality of sets of plane conveying lower plate adjusting screws (210) are all threadedly connected with the plurality of sets of plane conveying lower plates (205). A plane conveying plate synchronous adjusting motor (208) is provided on the main frame (101), and the plane conveying plate synchronous adjusting motor (208) drives the plurality of sets of plane conveying upper plate adjusting screws (209) and the plurality of sets of plane conveying lower plate adjusting screws (210) to rotate synchronously in the same direction through a chain sprocket.

3. A diverter used in a corrugated box printing and forming line as claimed in claim 2, characterized in that: The diversion transmission assembly comprises a sinking conveying belt (301), a diversion longitudinal conveying plate (302), a diversion transmission motor (303), a diversion transmission shaft (304), a diversion plate adjustment motor (305), a diversion plate adjustment screw (306) and a paper stopper (307); a plurality of groups of diversion longitudinal conveying plates (302) are slidably arranged on the plurality of groups of lower conveying suspension beams (103); each group of diversion longitudinal conveying plates (302) is respectively provided with a group of sinking conveying belts (301); a diversion transmission motor (303) is provided on the main frame (101); and the main frame (101) is provided with a plurality of groups of diversion longitudinal conveying plates (302). The main frame (101) is provided with a diversion drive shaft (304) for rotating. The diversion drive shaft (304) drives the multiple groups of sinking conveying belts (301) to rotate, and the sinking conveying belts (301) slide back and forth on the diversion drive shaft (304). The main frame (101) is provided with a diversion plate adjustment motor (305). The output end of the diversion plate adjustment motor (305) is provided with a diversion plate adjustment screw (306). The diversion plate adjustment screw (306) is threadedly connected to the multiple groups of diversion longitudinal conveying plates (302). A paper stopper (307) is provided on the diversion longitudinal conveying plate (302).

4. A diverter used in a corrugated box printing and forming line as claimed in claim 3, characterized in that: The transverse conveying assembly includes a sub-frame (401), a supporting plate (402), a whole machine moving ground rail (403), a whole machine moving motor (404), a whole machine moving lead screw (405), a whole machine moving nut (406), a plane conveying shaft (407), a plane conveying motor (408), a plane conveying belt (409), a transmission synchronous belt (410), a transmission synchronous pulley (411), a transmission folding conveyor belt adjustment cylinder (412), a folding conveyor belt (413), a paper stop rod adjustment motor (414), and a transmission synchronous belt pulley (415). 14), a paper stop rod (415) and a whole machine moving roller (416), a plurality of plane conveying shafts (407) are rotatably provided on the auxiliary frame (401), two adjacent plane conveying shafts (407) are provided with plane conveying belts (409), and the two adjacent plane conveying belts (409) are driven by a transmission synchronous belt (410) and a transmission synchronous pulley (411), the bottom end of the auxiliary frame (401) is provided with a whole machine moving roller (416), and the top end of the supporting plate (402) is provided with a whole machine moving roller (416). The ground rail (403) is provided, and the whole machine moving roller (416) contacts the whole machine moving ground rail (403) roller. The top of the supporting plate (402) is provided with a whole machine moving motor (404). The output end of the whole machine moving motor (404) is provided with a whole machine moving screw (405). The auxiliary frame (401) is provided with a whole machine moving nut (406). The whole machine moving screw (405) is threadedly connected to the whole machine moving nut (406). The auxiliary frame (401) is provided with a plane conveying motor (408). The output end of the machine (408) is connected to one end of a group of plane conveying shafts (407); the rear end of the sub-frame (401) is hingedly provided with a folding conveyor belt (413); a folding conveyor belt adjusting cylinder (412) is provided inside the sub-frame (401); the movable end of the folding conveyor belt adjusting cylinder (412) is hingedly connected to the bottom end of the folding conveyor belt (413); a paper stop rod adjusting motor (414) is provided inside the sub-frame (401); and a paper stop rod (415) is provided at the output end of the paper stop rod adjusting motor (414).

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