CN112758386B

CN112758386B - Method for removing foam cotton on surface of glass

Info

Publication number: CN112758386B
Application number: CN202011582922.XA
Authority: CN
Inventors: 利英豪; 余玉龙; 康小家
Original assignee: Guangdong XG Intelligent System Co Ltd
Current assignee: Guangdong XG Intelligent System Co Ltd
Priority date: 2020-12-28
Filing date: 2020-12-28
Publication date: 2021-09-24
Anticipated expiration: 2040-12-28
Also published as: CN112758386A

Abstract

The invention provides a method for removing foam cotton on the surface of glass, which is realized by adopting a device for removing the foam cotton on the surface of the glass, wherein the device for removing the foam cotton on the surface of the glass is arranged on a glass warehousing line body and comprises a scraper knife and a lifting mechanism, the scraper knife is positioned below the glass warehousing line body, the lifting mechanism comprises a support, a rotating rod, a driving part and a photoelectric switch, the support is fixed on the glass warehousing line body, the rotating rod is rotatably arranged on the support, one end of the rotating rod is connected with the scraper knife, the other end of the rotating rod is connected with the driving part arranged on the glass warehousing line body, the photoelectric switch is used for detecting the position of the glass on the glass warehousing line body, and the driving part responds to the detection information of the photoelectric switch to drive the rotating rod to deflect so that the scraper knife is close to or far away from the upper surface of the glass warehousing line body. The scraper knife is used for scraping and cleaning the foam cotton on the surface of the glass, and additional manual cleaning is not needed, so that the labor intensity is reduced, the labor cost is saved, and the construction efficiency is improved.

Description

Method for removing foam cotton on surface of glass

Technical Field

The invention relates to the technical field of glass sorting and packaging, in particular to a method for removing foam cotton on the surface of glass.

Background

Glass is at the in-process of packing transportation, because can produce the collision between glass and the glass for form the vacuum easily between glass and the glass, because under the atmospheric pressure environment, make between two glass be difficult to separate, then when carrying monolithic glass, carry two glass simultaneously easily, it is very inconvenient to follow-up monolithic glass's packing transportation.

Therefore, in order to avoid the above situation, in the prior art, foam cotton is usually added between the glass and the glass to avoid the generation of a vacuum environment. However, the foam cotton is adhered to the surface of the glass, and the foam cotton needs to be manually removed from the glass before being packaged, so that a large amount of manpower and material resources are consumed in the process, and the construction efficiency is low.

Disclosure of Invention

The invention aims to provide a method for shoveling foam cotton adhered to the surface of glass automatically, which reduces labor intensity and has high construction efficiency.

The invention provides a method for removing foam cotton on the surface of glass, which is realized by adopting a device for removing the foam cotton on the surface of the glass, wherein the device for removing the foam cotton on the surface of the glass is arranged on a glass warehousing line body, the device for removing the foam cotton on the surface of the glass comprises a scraper knife and a lifting mechanism, the scraper knife is positioned below the glass warehousing line body, the lifting mechanism comprises a support, a rotating rod, a driving part and a photoelectric switch, the support is fixed on the glass warehousing line body, the rotating rod is rotatably arranged on the support, one end of the rotating rod is connected with the scraper knife, the other end of the rotating rod is connected with the driving part arranged on the glass warehousing line body, the photoelectric switch is used for detecting the position of the glass on the glass warehousing line body, the driving part responds to the detection information of the photoelectric switch to drive the rotating rod to deflect so that the scraper knife is close to or far away from the upper surface of the glass warehousing line body, the shoveling method comprises the following steps:

when glass passes through the scraper knife and is close to the photoelectric switch at the front end of the glass warehousing line body, the photoelectric switch responds to the glass, so that the driving part drives the rotating rod to rotate to lift the scraper knife to the upper surface of the glass warehousing line body, and the scraper knife carries out scraping on foam cotton on the surface of the glass;

when the glass passes through the scraper knife and is close to the photoelectric switch at the rear end of the glass warehousing line body, the photoelectric switch responds, so that the driving part drives the rotating rod to rotate to enable the scraper knife to descend away from the upper surface of the glass warehousing line body.

Furthermore, the end part of the rotating rod connected with the driving part is provided with a sliding groove extending along the length of the rotating rod, the driving part comprises a driving cylinder, and the extending end of a piston rod of the driving cylinder is provided with a push block which is inserted into the sliding groove and slides in the sliding groove to push the rotating rod.

Furthermore, a plurality of groups of the scraper knives, the rotating rods corresponding to the scraper knives and the support are arranged along the conveying direction of the glass warehousing line body, the extending end of the piston rod of the driving cylinder is connected with a push rod along the conveying direction of the glass warehousing line body, and a plurality of push blocks which are arranged in one-to-one correspondence with the plurality of rotating rods are arranged on the push rod.

The glass pressing mechanism comprises a pressing wheel and a driving motor, the pressing wheel comprises an inner wheel, an outer wheel and a plurality of connecting rods arranged between the inner wheel and the outer wheel and arranged along the circumferential direction, the pressing wheel is made of PU materials, the pressing wheel is coaxially arranged along the conveying direction perpendicular to the glass warehousing line body, the pressing wheels are coaxially connected with concentric shafts, and rotating shafts of the driving motor are connected with the concentric shafts through synchronous belts;

glass hold-down mechanism is still including being used for adjusting the altitude mixture control subassembly of pinch roller height, altitude mixture control subassembly is including being equipped with altitude mixture control support, regulation pole and regulating block, be equipped with the movable groove that vertical direction or the non-horizontal direction of slope extend in the altitude mixture control support, the regulating block is located the movable groove and with concentric hub connection, it includes the edge to adjust the pole the groove of movable groove is to the screw rod that extends, adjust the pole with altitude mixture control support threaded connection, just the tip of screw rod rotationally with the regulating block is connected and is driven the regulating block reaches the groove of concentric groove is to removing, be equipped with on the regulating block with altitude mixture control support complex guide way.

Furthermore, the photoelectric switches are respectively correspondingly positioned at two end sides of the scraper knife along the conveying direction of the glass warehousing line body.

Furthermore, an inclined hopper is arranged below the scraper knife, and a recovery disc is arranged at the discharge outlet of the inclined hopper.

The scraper is positioned below the glass warehousing line body and arranged in the rotation tangent direction of the scraper knife, and a flexible part is detachably connected to the scraper.

Furthermore, the scraper blade is hollow structure and it is connected with the air pump through the breather pipe, the scraper blade is close to the one side that is equipped with the flexible member and is equipped with a plurality of ventholes.

Further, when the photoelectric switch responds, the cylinder piston rod of the driving part extends out of or retracts into the cylinder barrel so as to drive the rotating rod to rotate.

Compared with the prior art, the scheme of the invention has the following advantages:

1. in the device is eradicated to glass surface foam cotton of this application, it is clean to eradicate the foam cotton on glass surface through the spiller, and the glass's of being convenient for follow-up work need not artifical clearance in addition to reduce intensity of labour, saved the human cost, help improving the efficiency of construction.

2. In the glass surface foam cotton shoveling device of this application, the cooperation through dwang and drive division forms the lift of lever structure in order to realize the spiller, simple structure for the spiller can change different height under the construction scene of difference in order to realize different functions: when the scraper knife is lifted, the scraper knife is contacted with the surface of the glass so as to achieve the purpose of cleaning foam cotton on the surface of the glass; when the scraper knife descends, the interference to the glass conveying process can be reduced, the scraper knife rotates around the circumference, and in the descending process, the residual foam cotton scraps on the scraper knife can slide down under the action of gravity, so that the influence on the subsequent glass cleaning operation due to the foam cotton existing in the scraper knife is avoided.

Additional aspects and advantages of the invention will be set forth in part in the description which follows, and in part will be obvious from the description, or may be learned by practice of the invention.

Drawings

The foregoing and/or additional aspects and advantages of the present invention will become apparent and readily appreciated from the following description of the embodiments, taken in conjunction with the accompanying drawings of which:

FIG. 1 is a general view of the structure of the intelligent glass feeding and sorting line of the present invention;

FIG. 2 is a schematic structural view of a foam cotton removing device for glass surface according to the present invention;

FIG. 3 is an enlarged view of portion A of FIG. 2;

FIG. 4 is a schematic side view of the foam cotton removing device for glass surface according to the present invention;

FIG. 5 is an enlarged view of the portion B of FIG. 4;

FIG. 6 is a schematic structural view of a glass warehouse-out sorting device according to the present invention;

FIG. 7 is a side view of the glass warehouse-out sorting device according to the present invention;

FIG. 8 is an enlarged view of section C of FIG. 7;

FIG. 9 is an enlarged view of section D of FIG. 7;

FIG. 10 is a schematic perspective view of a glass packing buffer device according to the present invention;

FIG. 11 is a schematic side view of a glass packing buffer device according to the present invention;

fig. 12 is a schematic diagram of a glass packaging buffer device for illustrating a lifting and transplanting mechanism in the invention.

In the figure, 1, a feeding robot; 2. glass warehousing line bodies; 21. warehousing supports; 22. warehousing conveying rollers; 23. a rotating part; 231. rotating the motor; 232. a rotating shaft; 233. a large synchronizing wheel and a small synchronizing wheel; 234. a first synchronization belt; 24. taking a material level; 3. erecting a warehouse; 4. a glass ex-warehouse line body; 41. receiving a material level by a robot; 5. a finished product conveyor line body; 6. bundling the belt machine; 7. a foam cotton shoveling device for the glass surface; 71. a scraper knife; 711. a drive shaft; 72. a lifting mechanism; 721. a support; 722. rotating the rod; 7221. a chute; 7231. a driving cylinder; 7232. a push block; 7233. a push rod; 73. inclining the hopper; 74. a recovery tray; 75. a photoelectric switch; 76. a glass pressing mechanism; 761. a pinch roller; 7611. an inner wheel; 7612. an outer wheel; 7613. a connecting rod; 762. concentric shafts; 763. a drive motor; 7631. a synchronous belt; 764. a height adjustment assembly; 7641. a height adjustment bracket; 7642. an adjusting block; 7643. adjusting a rod; 8. a glass warehouse-out sorting device; 811. a material receiving frame; 812. a lifting mechanism; 8121. a linkage rod; 8122. a power member; 82. a second glass conveyor line body; 83. a first transplanting mechanism; 84. a carton conveyor line body; 841. a discharge slide rail; 842. a discharging cylinder; 843. a pulley; 85. a carton jacking and transplanting mechanism; 851. a delivery carriage; 852. a conveyor belt; 853. a scissor lifting frame; 8531. a scissor support; 8532. a push-pull cylinder; 8533. a guide bar; 9. a glass packaging buffer device; 91. a transplanting conveying mechanism; 92. a lifting transplanting mechanism; 921. a lifting assembly; 9211. a lifting cylinder; 9212. a scissor supporting frame; 922. transplanting the assembly; 9221. a third transplanting support; 9222. a third transplanting belt; 9223. a travel switch; 93. a glass buffer mechanism; 931. a cache station; 932. a limiting cylinder; 933. a pulley; 94. a packing workbench; 941. a lifting part; 95. and (5) jacking and transplanting mechanisms.

Detailed Description

Reference will now be made in detail to embodiments of the present invention, examples of which are illustrated in the accompanying drawings, wherein like or similar reference numerals refer to the same or similar elements or elements having the same or similar function throughout. The embodiments described below with reference to the drawings are illustrative only and should not be construed as limiting the invention.

Referring to fig. 1 to 12, the present application relates to an intelligent glass feeding and sorting line, which comprises a feeding robot 1, a glass warehousing line 2, a sorting robot (not shown), a vertical warehouse 3, a glass ex-warehouse line 4, a finished product conveying line 5 and a belt bundling machine 6, and further adopts a data processing system of MES and LCS, wherein the MES system can distribute data information of each piece of glass according to order information, the LCS system converts the data information of the MES system into data information which can be identified by the robot, and meanwhile, the LCS system can distribute position information of each piece of glass according to the number of glass warehoused every day and the number of all pieces of glass in the vertical warehouse 3, so as to match the intelligent glass feeding and sorting line of the present application through the MES system and the LCS system, realize data exchange and butt joint from the glass warehousing to the ex-warehouse, and communicate data of the glass feeding and sorting, thereby reduce production line artificial intervention, improve the production process controllability, make this application under information-based overall planning and PLC control to utilize each transfer line body to carry out the categorised transport with the plate, combine the robot to carry out the glass letter sorting, the plate is carried the letter sorting and is real-time, accurate, stable, and automation, intelligent degree are high, can practice thrift manpower and material resources by a wide margin, have reduced intensity of labour, have improved the efficiency of construction.

Firstly, glass is conveyed to a feeding robot 1 by a manual forklift, the feeding robot 1 is started, a scanner arranged on the feeding robot 1 scans and identifies bar code information of each piece of glass, and the glass is transferred to a glass warehousing line body 2.

Referring to fig. 1 to 5, the glass warehousing line 2 includes a warehousing support 21 and warehousing conveying rollers 22, the warehousing conveying rollers 22 extend in a direction perpendicular to a conveying direction of the glass warehousing line 2, and a plurality of the warehousing conveying rollers are arranged in the conveying direction of the glass warehousing line 2, two ends of the glass warehousing line 2 are rotatably connected to the warehousing support 21, and meanwhile, one end of the warehousing conveying roller 22 is connected to a rotating portion 23 for driving the glass warehousing line to rotate.

Preferably, the rotating unit 23 includes a rotating motor 231 and a rotating shaft 232, a motor shaft of the rotating motor 231 is connected to the rotating shaft 232, the rotating shaft 232 extends along the conveying direction of the glass-warehousing line body 2, and an end of each warehousing conveyor roller 22 is connected to the rotating shaft 232 through a first synchronization belt 234.

Further, a large synchronizing wheel 233 and a small synchronizing wheel 233 are arranged between the motor shaft of the rotating motor 231 and the rotating shaft 232, and the rotating speed ratio between the rotating shaft 232 and the rotating motor 231 can be adjusted through the large synchronizing wheel 233 and the small synchronizing wheel 233, so that the purpose of adjusting the rotating shaft 232 to adjust the rotating speed of the warehousing conveying roller 22 is achieved.

In addition, in this embodiment, the end of the glass warehousing line body 2 close to the loading robot 1 is the front end of the glass warehousing line body 2, and the other end is the rear end of the glass warehousing line body 2.

In addition, the front end of the glass warehousing line body 2 is provided with a glass surface foam cotton shoveling device 7 to shovel foam cotton on the glass, so that the phenomenon that the glass jumps and deviates in the conveying process of the glass warehousing line body 2 can be prevented.

The device 7 for removing foam cotton on the surface of glass comprises a shovel blade 71 and a lifting mechanism 72, wherein the shovel blade 71 is positioned below the glass warehousing line 2 and extends along the direction perpendicular to the conveying direction of the glass warehousing line 2, and the lifting mechanism 72 can drive the shovel blade 71 to be close to or far away from the upper surface of the glass warehousing line 2. Meanwhile, photoelectric switches 75 are further arranged on two sides of the scraper knife 71 along the conveying direction of the glass warehousing line body 2, the photoelectric switches 75 are installed on a base of the glass warehousing line body 2, the photoelectric switches 75 are used for detecting the conveying position of glass on the glass warehousing line body 2, and when the glass respectively responds through the photoelectric switches 75 on the two sides of the scraper knife 71, the scraper knife 71 respectively correspondingly realizes ascending and descending so as to achieve the effect of scraping foam cotton on the glass passing through the station 7 of the glass surface foam cotton scraping device.

Specifically, the lifting mechanism 72 includes a support 721, a rotating rod 722 and a driving portion, wherein the support 721 is fixed on the base of the glass warehousing line 2, the rotating rod 722 is hinged to the support 721, one end of the rotating rod 722 is connected to the scraper 71, the other end of the rotating rod 722 is connected to the driving portion, and the driving portion is also installed on the base of the glass warehousing line 2, so that the rotating rod 722 can be driven by the driving portion to deflect to drive the scraper 71 to rotate, and the purpose that the scraper 71 is close to or away from the upper surface of the glass warehousing line 2 is achieved.

Further, a sliding groove 7221 extending in the length direction is formed at the end of the rotating rod 722 connected to the driving part, the driving part preferably adopts a driving cylinder 7231, the cylinder of the driving cylinder 7231 is fixed on the base of the glass warehousing line body 2, the extending end of the piston rod is provided with a push block 7232, and the push block 7232 is inserted into the sliding groove 7221 and can slide in the sliding groove 7221, so that the rotating rod 722 is pushed to deflect. Meanwhile, the end part of the rotating rod 722 connected with the scraper 71 is provided with a transmission shaft 711 extending along the length direction of the scraper 71, and the scraper 71 is connected with the transmission shaft 711, so that the rotating stability of the scraper 71 can be ensured.

Furthermore, a plurality of the scrapers 71 are arranged side by side along the conveying direction of the glass warehousing line body 2, a plurality of groups of the supporting seats 721 and the rotating rods 722 of the lifting mechanisms 72 are correspondingly arranged with the plurality of the scrapers 71 one by one, the extending ends of the piston rods of the cylinders are connected with push rods 7233 extending along the conveying direction of the glass warehousing line body 2, and a plurality of push blocks 7232 corresponding to the rotating rods 722 one by one are arranged on the push rods 7233, so that the synchronous operation of the plurality of the scrapers 71 can be realized by adopting a group of driving parts, the construction efficiency is improved, and the cost is reduced. In addition, three sets of the scraper knives 71, the corresponding supports 721 and the corresponding rotating rods 722 are arranged in the embodiment, so that the glass can fully remove foam cotton on the surface of the glass by sequentially passing through the three sets of the scraper knives 71, and the removing efficiency is further improved.

The device 7 for removing foam cotton on the surface of glass further comprises a glass pressing mechanism 76 arranged above the glass warehousing line body 2, wherein the glass pressing mechanism 76 comprises a pressing wheel 761 and a driving motor 763. Wherein, pinch roller 761 is used for compressing tightly glass, and it includes interior wheel 7611, foreign steamer 7612 and locates between the two and along many connecting rods 7613 of circumference setting, just pinch roller 761 adopts the PU material to make, and the PU material is the polyurethane material, has good physical properties, resistant tortuous, the compliance is good, tensile strength is big to pinch roller 761 adopts the mode that inside and outside wheel 7612 and connecting rod 7613 are connected, under guaranteeing pinch roller 761 structural strength and stability, still can reduce the use of pinch roller 761 material, reaches and subtracts heavy and reduce cost's purpose. Because the pinch roller 761 is made of PU material, has certain elastic deformation ability to can compatible glass of different thickness, make glass bottom surface and spiller 71 keep certain distance all the time, avoid glass to take place the condition of beating when glass warehouse entry line body 2 carries simultaneously, with the foam cotton of the clean glass bottom surface of shovel.

The driving motor 763 is used for driving the pressing wheel 761 to rotate so as to press the glass and drive the glass to be conveyed forwards. Specifically, a plurality of pressing wheels 761 are coaxially arranged in a direction perpendicular to the conveying direction of the glass warehousing line body 2, the pressing wheels 761 are coaxially connected with a concentric shaft 762, and a rotating shaft of the driving motor 763 is connected with the concentric shaft 762 through a synchronous belt 7631, so that the contact area between the pressing wheels 761 and the glass can be increased, and the normal conveying of the glass is ensured.

The glass pressing mechanism 76 further comprises a height adjusting assembly 764 for adjusting the height of the pressing wheel 761, wherein the height adjusting assembly 764 comprises a height adjusting bracket 7641, an adjusting rod 7643, and an adjusting block 7642, a movable groove (not shown, the same below) extending in a vertical direction or an inclined non-horizontal direction is provided in the height adjusting bracket 7641, the adjusting block 7642 is located in the movable groove and connected to the concentric shaft 762, the adjusting rod 7643 comprises a screw rod extending along the groove of the movable groove, the adjusting rod 7643 is in threaded connection with the height adjusting bracket 7641, and an end of the screw rod is rotatably connected to the adjusting block 7642 and drives the adjusting block 7642 and the concentric shaft 762 to move along the groove of the movable groove, and a guide groove (not shown, the same below) is provided on the adjusting block 7642 and cooperates with the height adjusting bracket 7641. Therefore height adjustment subassembly 764 can further adjust the high position of pinch roller 761, specifically through making adjust pole 7643 rotates, because adjust pole 7643 with height adjustment support 7641 threaded connection, then adjust pole 7643 can be when rotating along the groove of movable groove is to reciprocating motion, thereby drive regulating block 7642 is to reciprocating motion along the groove of movable groove, then reach the regulation the purpose of coaxial 762 and pinch roller 761 high position, simple structure, it is convenient to adjust, thereby can further improve this application glass hold-down mechanism 76 to the application range of the glass of different specifications, ensure to the compress tightly effect of the glass of 7 stations of device is shoveled to the foam cotton on glass surface, then improve the removal effect to glass bottom surface foam cotton.

In addition, in a preferred embodiment, the glass surface foam cotton shoveling device 7 further includes a suction nozzle (not shown in the drawings) near the rear end of the glass warehousing line 2 (i.e. in front of the conveying direction), the top of the suction nozzle is lower than the upper surface of the glass warehousing line 2, the suction nozzle is connected with a fan for sucking air to the suction nozzle, air in the fan is rapidly exhausted from the fan by the high-speed rotation of an impeller of the fan, and air at the suction nozzle is continuously supplemented into the fan, so that a higher pressure difference is formed, and when glass passes through the suction nozzle, foam cotton chips remaining on the glass can be sucked into the suction nozzle for collection, so as to further improve the cleanliness of the glass surface. It should be noted that the suction force of the suction nozzle is small, and the normal conveying of the glass cannot be influenced.

In addition, in other embodiments, a scraper (not shown in the drawings) may be further disposed below the glass warehousing line 2, the scraper is located in a tangential direction of a rotation path of the scraper 71, and foam cotton chips remaining on the surface of the scraper 71 can be scraped off by the scraper, so as to avoid influence of the foam cotton remaining on subsequent glass shoveling. The scraper blade can be detachably connected with a flexible part, preferably, the flexible part is made of sponge, and damage to the scraper blade 71 caused by rigid contact between the scraper blade and the scraper blade 71 can be avoided. Furthermore, the flexible piece and the scraper blade can be detachably connected through a velcro tape, and the flexible piece can be replaced when damaged, so that the cleaning effect of the flexible piece on the surface of the scraper blade 71 is ensured.

The inside of scraper blade can set up to hollow structure, and its inside is connected with the air pump through the trachea, the scraper blade is close to one side of flexure is equipped with a plurality of ventholes, then passes through the air pump blows outside through the venthole of scraper blade, can blow off the cotton piece of foam on scraper blade and flexure surface then, and this air current also can blow off remaining foam cotton piece on spiller 71, in order to further improve scraper blade and flexure are right spiller 71's clean effect.

Moreover, in this embodiment, the scraper blades are provided with a plurality of scraper blades which are in one-to-one correspondence with the scraper blades 71, so that the scraper blades can be cleaned in one-to-one correspondence, the cleaning effect of the scraper blades on the residual foam cotton on the scraper blades 71 is ensured, and the scraping effect of the scraper blades 71 on the foam cotton on the glass surface is improved.

In this embodiment, an inclined hopper 73 is further disposed below the scraper 71, the inclined hopper 73 is disposed obliquely downward, and a recovery tray 74 is disposed at a bottom discharge port of the inclined hopper 73, so that the foam entering the inclined hopper 73 can be collected at the bottom discharge port of the inclined hopper 73 under the action of gravity and discharged into the recovery tray 74, so that a worker can collect and recover the foam.

Then, according to the foregoing, the construction method of the foam wool removing device 7 for glass surface in the present application includes the following steps:

firstly, glass is transferred to a glass warehousing line body 2 from a feeding robot 1 for transportation, when the glass is transported to a station of the glass surface foam cotton shoveling device 7, the shovel blade 71 is close to a photoelectric switch 75 at the front end of the glass warehousing line body 2 for response, and the lifting mechanism 72 lifts the shovel blade 71 to the upper surface of the glass warehousing line body 2 so that the shovel blade 71 is in contact with the glass surface, and foam cotton adhered to the glass surface is shoveled. When the glass passes through the scraper knife 71 and approaches the photoelectric switch 75 at the rear end of the glass warehousing line body 2, the lifting mechanism 72 drives the rotating rod 722 to rotate so as to drive the scraper knife 71 to descend, and the foam cotton hung on the scraper knife 71 can fall off under the action of gravity, so as to avoid influencing the scraping of the next glass.

Specifically, when the scraper 71 responds to the photoelectric switch 75 located at the front end of the glass warehousing line 2, the driving part pushes and pulls the rotating rod 722 to deflect, so that the rotating rod 722 is erected to drive the scraper 71 to rotate and move up to the upper surface of the glass warehousing line 2, and foam cotton on the glass surface passing through the station of the glass surface foam cotton shoveling device 7 is shoveled.

When the scraper knife 71 responds to the photoelectric switch 75 which is positioned at the rear end of the glass warehousing line body 2, the driving part pushes and pulls the rotating rod 722 to deflect, so that the rotating rod 722 is arranged at an acute angle with the horizontal direction, the rotating rod 722 drives the scraper knife 71 to descend to be far away from the upper surface of the glass warehousing line body 2, so that glass can smoothly pass through a station of the glass surface foam cotton shoveling device 7, and meanwhile, the scraper knife 71 descends to enable foam cotton scraps remained on the surface of the scraper knife to fall into the inclined hopper 73 under the action of gravity to be collected, so that subsequent treatment of workers is facilitated.

The glass to be subjected to the glass surface foam cotton shoveling device 7 to shovel off the glass cotton is continuously conveyed by the glass warehousing line body 2 and is respectively conveyed to the material taking positions 24 correspondingly, and preferably three material taking positions 24 are arranged in the embodiment, so that the glass warehousing efficiency is improved. When the glass is correspondingly conveyed to the material taking position 24, the sorting robot transfers the glass from the material taking position 24 to the vertical warehouse 3, so that the warehousing of the glass is completed.

And then, the sorting robot puts the glass in the vertical warehouse 3 on the glass delivery line body 4 according to the order information of the LCS system to perform glass packaging operation. Glass ex-warehouse line body 4 departments are equipped with glass sorting device 8 that goes out the warehouse, through glass sorting device 8 realizes glass's reposition of redundant personnel packing, has realized glass's high-efficient letter sorting packing operation.

Specifically, referring to fig. 6 to 9, the glass ex-warehouse sorting device 8 includes a first glass conveying line, a second glass conveying line 82, a first transplanting mechanism 83 and a carton conveying line 84, wherein the glass ex-warehouse line 4 in the embodiment is also used as the first glass conveying line to save space and construction cost. In addition, the first glass conveyor line body, the second glass conveyor line body 82 and the carton conveyor line body 84 are parallel, the second glass conveyor line body 82 is located right below the carton conveyor line body 84, the first glass conveyor line body and the second glass conveyor line body 82 are located at the same horizontal height, and the first transplanting mechanism 83 is connected with the first glass conveyor line body and the second glass conveyor line body 82 and vertically extends from the first glass conveyor line body to the second glass conveyor line body 82. Moreover, the second glass conveying line body 82 is provided with a plurality of glass packaging discharging positions (not marked) along the conveying direction thereof, and the carton conveying line body 84 is provided with a plurality of carton discharging positions (not marked) corresponding to the plurality of glass packaging discharging positions one by one.

Preferably, the first glass conveying line body, the second glass conveying line body 82 and the carton conveying line body 84 each include a material conveying roller (not marked) arranged along the length direction of the first glass conveying line body, the second glass conveying line body and a driving component (not marked) for driving the material conveying roller to rotate, that is, the material conveying roller extends along the direction perpendicular to the length direction, the driving component includes a motor and a synchronizing shaft, the motor is connected with the synchronizing shaft, and the end of the material conveying roller is provided with a second synchronizing belt wound on the synchronizing shaft, so that the synchronizing shaft is driven to rotate by the motor, and the material conveying roller is driven to rotate by the second synchronizing belt. This application can realize the synchronous rotation of whole defeated material rollers on the same line body through a set of motor and synchronizing shaft, and transmission efficiency is high to manufacturing cost has been saved.

And a robot receiving position 41 is arranged on the first glass conveying line body, so that the sorting robot can convey the glass to be delivered out of the warehouse to the first glass conveying line body. The robot material receiving position 41 is provided with a material receiving frame 811 and a lifting mechanism 812, the lifting mechanism 812 comprises a linkage rod 8121 hinged to a frame of the first glass conveying line body (namely, a glass warehouse-out sorting line body), one end of the linkage rod 8121 is connected with the material receiving frame 811, and the other end of the linkage rod 8121 is connected with a power part 8122 used for driving the linkage rod 8121 to rotate so as to realize the lifting of the material receiving frame 811, so that the purpose that the material receiving frame 811 is close to or far away from the first glass conveying line body is achieved through a lever structure formed by the linkage rod 8121.

Preferably, the power part 8122 of this embodiment preferably employs an air cylinder, an extending end of an expansion rod of the air cylinder is hinged to the linkage rod 8121, a cylinder barrel of the air cylinder is hinged to a frame of the first glass conveying line body, the linkage rod 8121 includes a first rod segment (not shown in the figure) and a second rod segment (not shown in the figure) which are integrally formed, the first rod segment is hinged to the material receiving frame 811, the second rod segment is hinged to an expansion rod of the air cylinder, a hinged position of the linkage rod 8121 and the frame of the first glass conveying line body is located at a connection position of the first rod segment and the second rod segment, and the first rod segment and the second rod segment form an obtuse angle. Therefore, the linkage rod 8121 is pushed to rotate through the air cylinder, so that the material receiving frame 811 can ascend and descend, and the structure is simple and the operation is convenient. And adopt the gangbar 8121 that is the obtuse angle setting, can increase the turned angle of gangbar 8121, increase the lift scope who connects work or material rest 811 then.

Further, the material receiving frame 811 comprises a plurality of material receiving rods extending along the length direction of the conveying roller, the distance between two adjacent material receiving rods is larger than the diameter of one material conveying roller, and the width of one material receiving rod is smaller than the distance between two adjacent material conveying roller pieces, so that when the material receiving frame 811 is close to the first glass material conveying line, the material receiving rods of the material receiving frame 811 and the material conveying rollers are arranged at intervals. When the glass is placed on the first glass conveying line body through the material receiving frame 811, the material receiving rod of the material receiving frame 811 can move to the lower part of the first glass conveying line body through the gap of the material conveying roller of the first glass conveying line body, so that the glass is completely placed on the first glass conveying line body.

Photoelectric switches (not marked) are arranged on the material receiving frame 811 and the first glass conveying line body and are used for detecting whether glass exists on the material receiving frame 811 and the first glass conveying line respectively, and when the photoelectric switches detect that glass exists on the material receiving frame 811, the power part 8122 responds to enable the material receiving frame 811 to descend so that the glass descends on the first glass conveying line, and otherwise, the glass ascends. When the photoelectric switch 75 on the first glass conveying line detects glass, the first glass conveying line can be driven to work, so that the glass is transported to the first transplanting mechanism 83.

The first transplanting mechanism 83 is used for transferring the glass from the first glass conveying line body to the second glass conveying line body 82. Specifically, the first transplanting mechanism 83 specifically includes a first transplanting support, the first transplanting support extends from a first glass conveying line to the second glass conveying line 82, a first driving wheel and a first driven wheel are respectively arranged at two ends of the first transplanting support along the length direction (i.e. the conveying direction), a first transplanting belt connected end to end is wound on the first driving wheel and the first driven wheel, and a first motor for driving the first transplanting mechanism to rotate is further connected to the first driving wheel.

Further, the widths of the first transplanting support and the first transplanting belt are smaller than the distance between two adjacent material conveying rollers, the first transplanting frame is provided with a plurality of transplanting supports side by side along the conveying direction of the first glass conveying line body and the second glass conveying line body 82, the transplanting supports are arranged between the material conveying rollers of the first glass conveying line body and the second glass conveying line body 82 at intervals, a first connecting shaft 846 is coaxially arranged between the first driving wheels on the transplanting supports, and the first motor is connected with the first connecting shaft 846, so that synchronous rotation of the transplanting belts can be realized through one connecting shaft, and the stability in the glass transplanting process is ensured.

Furthermore, the bottom of the first transplanting bracket is connected with a jacking mechanism (not shown in the figure) for driving the first transplanting bracket to lift along the vertical direction, at least two groups of jacking mechanisms are arranged, each group of jacking mechanism comprises a jacking seat and a jacking cylinder, a telescopic rod of each jacking cylinder is connected with the first transplanting bracket, when the first transplanting mechanism 83 is used, the first transplanting mechanism 83 can be lifted to be higher than the upper surfaces of the first glass conveying line body and the second glass conveying line body 82 by a lifting mechanism, thereby facilitating the transportation of the glass on the first transplanting mechanism 83, after the glass is transferred from the first glass conveying line body to the second glass conveying line body 82, the jacking cylinder enables the first transplanting mechanism 83 to descend to be lower than the first glass conveying line body and the second glass conveying line body 82, so that glass is placed on the second glass conveying line body 82 for next operation. Through setting up climbing mechanism makes transplanting mechanism can break away from the transfer line body when the operation, reduces the interference, ensures glass's normal transport operation.

In addition, in a preferred embodiment, a limiting member (not shown, the same applies below) is disposed at an end of the first transplanting mechanism 83 close to the second glass conveying line body 82, and can be used for blocking the glass to prevent the glass from being flushed out of the second glass conveying line body due to inertia during transportation. Specifically, the limiting member includes a limiting plate extending along the length direction of the second glass conveying line body 82, the limiting plate is disposed above the second glass conveying line body 82, and a jog switch is disposed at the bottom of the limiting plate, so that when the first transplanting mechanism 83 rises to contact with the bottom of the limiting plate, the jog switch at the bottom of the limiting plate is triggered, and at this time, the first transplanting mechanism 83 starts to operate to transplant glass from the first glass conveying line body onto the second glass conveying line body 82, and the limiting plate can block the glass to prevent the glass from sliding off the transplanting mechanism under the action of inertia, so that the glass is protected.

Further, the limiting plate is of a double-layer plate structure, a buffer piece and a jog switch are arranged between the double-layer plate structures, the buffer piece can be a rubber layer or a spring, the buffer protection effect can be achieved when glass touches the baffle, the jog switch is arranged on one of the double-layer plate, the glass touches the baffle, so that the two plates of the double-layer plate structure are close to touch the jog switch, the jacking mechanism drives the first transplanting mechanism to descend, the glass falls on the second glass conveying line body 82, and then the second glass conveying line body 82 is used for processing the glass and transporting the glass to the position of a glass packaging discharging position.

While glass is transported, the carton conveyor line body 84 can also transport cartons and accessories synchronously, and a carton jacking and transplanting mechanism 85 is arranged at the end of the carton conveyor line body 84 so as to transfer cartons and accessory packages onto the carton conveyor line body 84. Specifically, the carton lifting and transplanting mechanism 85 includes a conveying support 851, a conveyor belt 852 and a scissors lifting frame 853, the scissors lifting frame 853 is disposed below the conveying support 851 and connected thereto, the conveyor belt is disposed on the conveying support 851, and the rotation conveying direction of the conveyor belt 852 is the same as the conveying direction of the carton conveyor line body 84.

The scissor lift 853 comprises a scissor support 8531 and a push-pull cylinder 8532, wherein the extending end of a piston rod of the push-pull cylinder 8532 is hinged to one of the two support rods of the scissor support 8531, and the connection position of the piston rod is close to the hinge position of the two support rods of the scissor support 8531. When the piston cylinder of the push-pull cylinder 8532 extends out of the cylinder barrel, the supporting rod of the cross support 8531 contracts in the vertical direction, so that the purpose of lifting the conveyor belt 852 is achieved; when the piston rod of the push-pull cylinder 8532 retracts into the cylinder, the strut of the scissors strut 8531 retracts in the horizontal direction, and the conveyor 852 descends. Meanwhile, the conveying support 851 is further connected with a guide rod 8533 extending in the vertical direction, the guide rod 8533 is preferably an expansion rod, the bottom of the expansion rod is fixed with the ground, and the top of the expansion rod is connected with the conveying support 851, so that the guide and limiting effects are achieved in the lifting process of the conveying support 851, and the lifting stability of the conveying support 851 is improved.

Further, rollers (not labeled) arranged along the conveying direction of the conveyor belt 852 are further arranged on two sides of the conveyor belt 852 so as to reduce friction between the cartons and two sides of the conveyor belt 852, and the conveyor belt 852 is convenient for transferring the cartons to the carton conveying line body 84.

The fitments and cartons can be manually placed onto the carton lift-up and transplanting mechanism 85 and the information on the fitments and cartons scanned to input the relevant information into the system. Subsequently, accessory and carton are transported to carton material outlet position department respectively by carton transfer line body 84, and the workman of being convenient for takes carton and accessory and packs glass.

The carton conveying line body 84 is provided with an inclined downward extending discharging slide rail 841 and a discharging cylinder 842 at the carton discharging position, the extending end of the piston rod of the discharging cylinder 842 is connected with a push plate (not shown), the carton reaching the carton discharging position can be pushed into the discharging slide rail 841, and the discharging slide rail 841 is provided with a plurality of pulleys (not shown) so as to facilitate the movement of the carton. In addition, be equipped with baffle (not shown) in the bottom of ejection of compact slide rail 841 to prevent that the carton from sliding from ejection of compact slide rail 841, and through set up outside extension ejection of compact slide rail 841 in carton material discharge position department, can be used as the effect of temporary storage carton, realize many baling lines's synchronous operation, avoid occupying carton conveyor line body 84, improve work efficiency.

The discharging slide rails 841 are also provided with photoelectric switches 75 for detecting whether the discharging slide rails 841 at the discharging position of the carton are filled with materials, and when the photoelectric switches 75 detect that no carton is on the discharging slide rails 841, the subsequent carton to be distributed can be correspondingly conveyed on the discharging slide rails 841 at the discharging position of the carton and can be replenished with cartons; when the photoelectric switch 75 detects that a carton exists on the discharging slide rail 841, the to-be-distributed on the carton conveying line body 84 can be distributed to the discharging slide rail 841 without other cartons, the intelligent degree is high, and the glass packaging operation is greatly optimized.

The construction method of the glass warehouse-out sorting device 8 comprises the following steps:

firstly, a power part 8122 drives a linkage rod 8121 to rotate and lift a material receiving frame 811 so as to receive glass transported by a sorting robot; then, the power part 8122 drives the linkage rod 8121 to rotate so that the material receiving frame 811 descends, and the glass on the material receiving frame 811 is placed on the first glass conveying line body; then, the first glass conveying line body is started to convey the glass to the first transplanting mechanism 83, the first transplanting mechanism 83 is started to convey the glass to the second glass conveying line body 82 through the first glass conveying line body, and then the second glass conveying line body 82 conveys the glass to the glass packing discharge port.

Meanwhile, the carton jacking and transplanting mechanism 85 conveys cartons and accessories to the carton conveying line body 84, the carton conveying line body 84 conveys the cartons and the accessories to the carton discharging position, and the discharging cylinder 842 at the carton discharging position is started to push the cartons to the discharging slide rails 841 for packing.

The glass sorting device 8 that goes out of warehouse of this application sets two independent transportation line bodies respectively with glass letter sorting and carton letter sorting for glass letter sorting can go on in step with the carton letter sorting, improves the preparation work efficiency of glass packing then. And the structure staggered arrangement of the mechanism of the glass sorting part and the structure of the carton sorting part can avoid the interference between the glass sorting and the carton sorting, the two parts do not influence each other, the equipment space can be greatly saved, and the processing efficiency is high.

Please refer to fig. 10 to 12, each glass packing outlet is provided with a glass packing buffer device 9, the glass packing buffer devices 9 can reduce the labor intensity of workers, and prevent the workers from being too fatigue to damage the glass due to long-time packing.

Specifically, the glass packaging and caching device 9 comprises a transplanting and conveying mechanism 91, a lifting and transplanting mechanism 92, a glass caching mechanism 93, a packaging workbench 94 and a jacking and transplanting mechanism 95, wherein the transplanting and conveying mechanism 91 is arranged below the glass caching mechanism 93, the packaging workbench 94 and the jacking and transplanting mechanism 95, the transplanting and conveying mechanism 91 is identical in height with a second glass conveying line 82 of the glass warehouse-out sorting device 8 in the application and is perpendicular to the second glass conveying line 82, the transplanting and conveying mechanism 91 extends into the second glass conveying line 82, so that glass transported by the glass warehouse-out sorting device 8 is conveyed to a glass packaging and material-out position through the second glass conveying line 82, and then is conveyed to the glass packaging and caching device 9 through the transplanting and conveying mechanism 91 for packaging. The lifting transplanting mechanism 92 is arranged at one end, far away from the glass packaging discharge hole, of the transplanting conveying mechanism 91, glass is transferred to the glass caching mechanism 93 from the transplanting conveying mechanism 91 through the lifting transplanting mechanism 92, the glass caching mechanism 93, the packaging workbench 94 and the jacking transplanting mechanism 95 are sequentially arranged along the length direction of the transplanting conveying mechanism 91, and the jacking transplanting mechanism 95 is connected with the finished product conveying line body 5 so as to convey packaged glass to the finished product conveying line body 5 for shipment. The transplanting conveying mechanism 91, the glass caching mechanism 93, the packing workbench 94 and the jacking transplanting mechanism 95 are arranged in a vertically stacked staggered manner, so that the structure is compact, and the occupied space of equipment is saved.

Specifically, the transplanting conveying mechanism 91 includes a second transplanting support, and a second driving wheel, a second driven wheel and a second transplanting belt which are arranged on the second transplanting support, the second transplanting support extends along a conveying direction perpendicular to the second glass conveying line body 82, the second driving wheel and the second driven wheel are respectively arranged at two end sides of the second transplanting support in the length direction, the second transplanting belt is wound around the second driving wheel and the second driven wheel in an end-to-end manner, and the second driving wheel is connected with a second motor for driving the second driving wheel to rotate.

Further, since the transplanting conveying mechanism 91 extends to the second glass conveying line body 82, the transplanting conveying mechanism 91 includes a plurality of groups of second transplanting supports (not marked) and second transplanting belts (not marked) which are arranged side by side along the conveying direction of the second glass conveying line body 82, and the width of each second transplanting support is smaller than the distance between two adjacent conveying rollers, so that each second transplanting support can be embedded between two adjacent conveying rollers of the second glass conveying line body 82, and the glass can be conveniently conveyed from the second glass conveying line body 82 to the glass packing and caching device 9.

In addition, in other embodiments, the second action wheel accessible second connecting axle on the support is transplanted to a plurality of seconds that set up side by side carries out coaxial coupling, the second motor with the second connecting axle is connected and can be realized the synchronous rotation of many seconds that set up side by side and transplant the belt, guarantees that the belt pivoted uniformity is transplanted to the second, ensures the stability of glass transportation on transplanting conveying mechanism 91 to adopt a set of synchronous rotation that transplants driving motor and can realize a plurality of second action wheels, work efficiency is high, has reduced manufacturing cost.

Furthermore, at least one group of transplanting conveying mechanisms 91 are arranged in parallel along the conveying direction, the number of transplanting conveying mechanisms 91 can be determined according to the lengths of the glass caching mechanisms 93, the packing workbench 94 and the jacking transplanting mechanisms 95 above the transplanting conveying mechanisms, and the length of the transplanting conveying mechanisms 91 can be increased to increase the caching amount of the glass packing caching devices 9.

The lifting transplanting mechanism 92 comprises a lifting component 921 and a transplanting component 922, the transplanting component 922 is used for receiving glass transferred by the transplanting conveying mechanism 91, the lifting component 921 is supported below the transplanting component 922, and the glass is transferred to the glass caching mechanism 93 by the transplanting conveying mechanism 91 through the lifting motion of the lifting component 921. Specifically, the lifting assembly 921 includes a lifting cylinder 9211, the lifting cylinder 9211 is connected with the transplanting assembly 922 to realize the lifting of the transplanting assembly 922 through the telescopic motion of the lifting cylinder 9211 piston cylinder. Simultaneously, lifting unit 921 still includes scissors support frame 9212, scissors support frame 9212 can strengthen the vertical support intensity to transplanting subassembly 922 to improve the stability of support to transplanting subassembly 922.

Transplant subassembly 922 includes that support 9221 and third transplanting belt 9222 are transplanted to the third, the third is transplanted and also is equipped with the action wheel (not marking) and follows the driving wheel (not marking) on the support 9221, belt 9222 is transplanted to the third end to end around establishing at the action wheel and following driving wheel on, just the action wheel is connected with driven motor (not marking), play the effect of support from the driving wheel, then pass through the motor drive action wheel rotates, it rotates along with it to transplant the belt, transplant the direction of delivery of belt and transplant conveying mechanism 91 and glass buffer memory mechanism 93 unanimously to make glass transport glass buffer memory mechanism 93 by transplanting the belt on.

In addition, the periphery of the lifting and transplanting mechanism 92 is provided with a guard rail (not shown) to prevent the glass from sliding off the lifting and transplanting mechanism in the transportation process, and the safety of glass transportation is ensured.

Travel switches 9223 are respectively arranged at two ends of the lifting transplanting mechanism 92 along the conveying direction, the travel switches 9223 arranged on one side, far away from the transplanting conveying mechanism 91, of the lifting transplanting mechanism 92 are used for sensing whether the glass reaches the lifting transplanting mechanism 92, and when the travel switches 9223 respond, the lifting component of the lifting transplanting mechanism 92 lifts the height of the transplanting component 922 to the glass caching mechanism 93. And the formation switch arranged on one side of the lifting transplanting mechanism 92 close to the transplanting conveying mechanism 91 is used for detecting whether the height of the transplanting assembly 922 reaches the height of the glass cache mechanism 93, when the height of the transplanting assembly 922 reaches the height of the large glass cache mechanism 93, the travel switch 9223 is corresponding, and the transplanting assembly 922 transfers the glass to the glass cache mechanism 93.

The glass buffering mechanism 93 comprises a buffering table 931 extending downwards and obliquely towards the packing table 94, a limiting cylinder 932 is arranged on the end side of the buffering table 931 close to the packing table 94, and the limiting cylinder 932 plays a role in blocking glass so as to prevent the glass entering the buffering table 931 from sliding away from the buffering table 931 under the action of gravity.

Further, pulleys (not shown) arranged along the conveying direction of the buffering table 931 are arranged on the buffering table 931, so that friction between the glass and the table surface of the buffering table 931 can be reduced, and the glass can slide conveniently.

In addition, a switch which can manually control the ascending and descending of the limit cylinder 932 is arranged on one side of the buffering table 931, when the glass is packed, a worker can make the limit cylinder 932 descend through the switch, and the glass on the buffering table 931 slides into the packing table 94 under the gravity of the glass.

The workman carries out the assembly of accessory to glass in packing workstation 94 department, packing hunch seat platform bottom is equipped with lift 941 to the workman of highly being convenient for of adjusting packing workstation 94 packs glass.

Preferably, the lifting portion 941 includes an air cylinder extending and retracting in the vertical direction, and the packing table 94 is provided with air cylinders on both end sides in the conveying direction thereof, and then the stability of the packing table 94 can be ensured by providing air cylinders on both end sides of the packing table 94.

In addition, in other embodiments, the extending end of the piston rod of the air cylinder is hinged with the packing workbench 94, so that the packing workbench 94 can move relative to the air cylinder, and the extending amount of the piston rod of the air cylinder at the two end sides of the packing workbench 94 is respectively adjusted to adjust the inclination of the packing workbench 94. Since the buffering table 931 is disposed obliquely and has a large curvature change from the horizontal plane, when the glass slides from the buffering table 931 to the packing table 94, the glass may hit the packing table 94, which may result in damage to the glass. Thus, in the present embodiment, by adjusting the piston rod extension amounts of the air cylinders on both end sides of the packing table 94, the inclination of the packing table 94 is adapted to the inclination of the buffer table 931, and the curvature change between the packing table 94 and the buffer table 931 is reduced to protect the glass.

Subsequently, the worker lifts the carton transported by the carton conveyor line body 84 of the glass sorting device to the jacking transplanting mechanism 95, the worker puts the glass with the assembled accessories into the carton placed in the jacking transplanting mechanism 95 and packs and encapsulates the glass, then the jacking transplanting mechanism 95 is started, the packed glass finished product is transplanted onto the finished product conveyor line body 5, and the jacking transplanting mechanism 95 is perpendicular to the finished product conveyor line. Specifically, the jacking transplanting mechanism 95 also transports the glass finished product by adopting a transplanting belt (not shown) transportation mode, the transplanting belt of the jacking transplanting mechanism 95 extends into the glass finished product conveying line, a jacking cylinder transplanting belt (not shown) is arranged at the bottom of the transplanting belt and used for lifting the transplanting belt, and the glass can be prevented from being interfered in the process of transplanting the glass to the glass finished product conveying line body 5 by the glass packaging caching device 9. When the finished glass products do not need to be transported, the transplanting belt can be lowered to a position below the horizontal height of the finished glass conveying line body through the jacking cylinder, so that the transplanting belt is prevented from affecting normal transportation of the finished glass conveying line body 5.

The construction method of the glass packaging cache device 9 comprises the following steps:

firstly, the glass at the glass packaging discharge port is transported to the lifting and transplanting mechanism 92 through the transplanting conveying mechanism 91, and when the travel switch 9223 of the lifting and transplanting mechanism 92 responds, the glass is transferred to the glass caching mechanism 93 through the lifting and transplanting mechanism 92. Subsequently, the worker can lower the limit cylinder 932 through the switch, thereby contacting the limit of the glass buffer mechanism 93 to the glass, and the glass slides into the packing table 94 under the action of gravity. And then, the worker packs and encapsulates the glass and the carton, after the glass is packed, the finished glass is placed on the jacking transplanting mechanism 95, and the finished glass is transported to the finished product conveyor line body 5 by the jacking transplanting mechanism 95.

The glass packaging caching device 9 caches before glass packaging, and brings convenience to intermittent operation of workers, so that the labor intensity of the workers is reduced, and the improvement of the working efficiency is facilitated. Meanwhile, the packaging cache device has a large replacing amount, so that the phenomenon that glass is saturated and workers cannot pack normally is avoided.

And finally, conveying the packaged glass finished product to a belt bundling machine 6 by a finished product conveying line body 5 for bundling, and discharging the glass after bundling to finish the delivery of the glass.

In addition, in order to improve the utilization rate of the equipment, the structures of the glass warehousing line body, the glass ex-warehouse line body, the second glass conveying line body, the carton conveying line body and the finished product conveying line body in the embodiment are the same, and the structure of the transplanting structure in the embodiment is also the same, so that the production processing line can be adaptively assembled and used according to different use environments.

The utility model provides a compact structure of glass intelligence material loading letter sorting line can realize that glass's transport letter sorting is real-time, accurate, stable, automatic, and intelligent degree is high, reduces workman's intensity of labour, has saved the cost of manpower and material resources, greatly optimizes the construction operation of glass letter sorting packing.

The foregoing is only a partial embodiment of the present invention, and it should be noted that, for those skilled in the art, various modifications and decorations can be made without departing from the principle of the present invention, and these modifications and decorations should also be regarded as the protection scope of the present invention.

Claims

1. A method for removing foam cotton on the surface of glass is realized by adopting a device (7) for removing the foam cotton on the surface of the glass, the device (7) for removing the foam cotton on the surface of the glass is arranged on a glass warehousing line body (2), the device (7) for removing the foam cotton on the surface of the glass comprises a scraper knife (71) and a lifting mechanism (72), the scraper knife (71) is positioned below the glass warehousing line body (2), the lifting mechanism (72) comprises a support (721), a rotating rod (722), a driving part and a photoelectric switch (75), the support (721) is fixed on the glass warehousing line body (2), the rotating rod (722) is rotatably arranged on the support (721), one end of the rotating rod (722) is connected with the scraper knife (71), and the other end of the rotating rod is connected with the driving part arranged on the glass warehousing line body (2), the photoelectric switch (75) is used for detecting the position of glass on the glass warehousing line body (2), and the driving part responds to the detection information of the photoelectric switch (75) to drive the rotating rod (722) to deflect so that the scraper knife (71) is close to or far away from the upper surface of the glass warehousing line body (2), and the scraping method is characterized by comprising the following steps:

when glass passes through the scraper knife (71) and is close to the photoelectric switch (75) at the front end of the glass warehousing line body (2), the photoelectric switch (75) responds, so that the driving part drives the rotating rod (722) to rotate to lift the scraper knife (71) to the upper surface of the glass warehousing line body (2), and the scraper knife (71) scrapes foam cotton on the surface of the glass;

when the glass passes through the scraper knife (71) and is close to the photoelectric switch (75) at the rear end of the glass warehousing line body (2), the photoelectric switch (75) responds, so that the driving part drives the rotating rod (722) to rotate to enable the scraper knife (71) to descend away from the upper surface of the glass warehousing line body (2).

2. The method for removing foam wool from a glass surface according to claim 1, wherein the end of the rotating rod (722) connected to the driving part is provided with a sliding groove (7221) extending along the length thereof, the driving part comprises a driving cylinder (7231), and the protruding end of the piston rod of the driving cylinder (7231) is provided with a push block (7232) inserted into the sliding groove (7221) and sliding therein to push the rotating rod (722).

3. The method for removing foam cotton on the surface of glass according to claim 2, wherein a plurality of groups of the scraper knife (71), the rotating rod (722) and the support (721) corresponding to the scraper knife are arranged along the conveying direction of the glass warehousing line body (2), the extending end of the piston rod of the driving cylinder (7231) is connected with a push rod (7233) along the conveying direction of the glass warehousing line body (2), and a plurality of push blocks (7232) which are arranged corresponding to the rotating rods (722) one by one are arranged on the push rod (7233).

4. The method for removing foam cotton on the surface of glass according to claim 1, further comprising a glass pressing mechanism (76) arranged above the glass warehousing line body (2), wherein the glass pressing mechanism (76) comprises a pressing wheel (761) and a driving motor (763), the pressing wheel (761) comprises an inner wheel (7611), an outer wheel (7612) and a plurality of connecting rods (7613) arranged between the inner wheel and the outer wheel and arranged along the circumferential direction, the pressing wheel (761) is made of PU (polyurethane) material, the pressing wheels (761) are coaxially arranged along the conveying direction perpendicular to the glass warehousing line body (2), the plurality of pressing wheels (761) are coaxially connected with a concentric shaft (762), and a rotating shaft of the driving motor (763) is connected with the concentric shaft (762) through a synchronous belt (7631);

the glass pressing mechanism (76) also comprises a height adjusting component (764) for adjusting the height of the pressing wheel (761), the height adjusting component (764) comprises a height adjusting bracket (7641), an adjusting rod (7643) and an adjusting block (7642), a movable groove extending in the vertical direction or the inclined non-horizontal direction is arranged in the height adjusting bracket (7641), the adjusting block (7642) is positioned in the movable groove and is connected with the concentric shaft (762), the adjusting rod (7643) comprises a screw rod extending along the groove direction of the movable groove, the adjusting rod (7643) is in threaded connection with the height adjusting bracket (7641), the end part of the screw rod is rotatably connected with the adjusting block (7642) and drives the adjusting block (7642) and the concentric shaft (762) to move along the groove direction of the movable groove, the adjusting block (7642) is provided with a guide groove matched with the height adjusting support (7641).

5. The method for removing foam cotton on the surface of glass according to claim 1, wherein the photoelectric switches (75) are respectively correspondingly located on two end sides of the scraper knife (71) along the conveying direction of the glass warehousing line body (2).

6. The method for shoveling foam cotton on the surface of glass according to claim 1, wherein an inclined hopper (73) is arranged below the shovel blade (71), and a recovery disc (74) is arranged at a discharge outlet of the inclined hopper (73).

7. The method for removing foam cotton on the surface of glass according to claim 1, further comprising a scraper, wherein the scraper is located below the glass warehousing line body (2) and arranged in the rotation tangential direction of the scraper knife (71), and a flexible part is detachably connected to the scraper.

8. The method for shoveling foam cotton on the surface of glass according to claim 7, wherein the scraping plate is of a hollow structure and is connected with an air pump through a vent pipe, and a plurality of air outlet holes are formed in the side, close to the side provided with the flexible part, of the scraping plate.

9. The method for removing foam cotton on the surface of glass according to any one of claims 1 to 8, wherein when the photoelectric switch (75) responds, a cylinder piston rod of the driving part extends out of or retracts into the cylinder barrel so as to drive the rotating rod (722) to rotate.