Optical glass raw material sorting device

Abstract

The present invention discloses an optical glass raw material sorting device, including a hopper assembly, a sorting assembly, a material distribution assembly, a lifting assembly, a pusher assembly and a loading support frame, wherein the lifting assembly includes a lifting shuttle arranged between a cutting plate in the sorting assembly and a material receiving funnel in the material distribution assembly, and a third V-shaped groove matching a second V-shaped groove is arranged in the middle of the lifting shuttle, and the lifting shuttle is arranged on the loading support frame through a lifting drive assembly, and can move up and down under the action of the lifting drive assembly; the pusher assembly includes a discharge push plate located above the front end of the cutting plate, and the discharge push plate is arranged on the loading support frame through a discharge push assembly, and can move forward and backward under the action of the discharge push assembly. The lifting assembly and the pusher assembly are added to the original loading machine, so as to effectively ensure that when unloading, only one optical glass enters each position on the glass tray.

Description

Technical Field

[0001] The invention belongs to the technical field of glass processing, and in particular relates to an optical glass raw material sorting device. Background Art

[0002] Chinese patent CN114516719A discloses an intelligent processing production line for optical glass roll forming, and specifically discloses a feeder capable of sorting chaotic glass, wherein the feeder comprises a hopper assembly, a sorting assembly and a material distribution assembly arranged in sequence, wherein the material distribution assembly comprises a receiving funnel, such as Figure 1 As shown, a funnel hole is provided for each second V-shaped groove of the receiving funnel, and the receiving funnel is installed on the funnel seat. A transition conduit passing through the funnel seat downward is provided at the lower end of the receiving funnel corresponding to each funnel hole, and a hose is provided at the lower end of the transition conduit. A hose fixing seat is provided at the front end of the hose, and the hose fixing seat is provided at the front end of the loading support frame through a hose action component. The hose action component can drive the front end of the hose to move up and down. A receiving baffle is provided at the upper end of the receiving funnel corresponding to each funnel hole, and a baffle action component is provided on the receiving baffle. The baffle action component drives the receiving baffle to move forward and backward or up and down. A receiving sensor for detecting whether glass passes through the corresponding funnel hole is provided on the funnel seat through a sensor bracket corresponding to each funnel hole. When the receiving sensor detects that glass passes through the funnel hole, the baffle action component drives the receiving baffle to move and block the funnel hole.

[0003] When the above structure is actually used, there will be a certain time difference between the time when the receiving sensor detects that glass has passed and the time when the receiving baffle plate blocks the funnel hole. When there are many small glasses, it is easy for more glasses to enter the receiving funnel when the receiving baffle plate is in action, so that there may not be only one glass at each position on the glass tray. Summary of the invention

[0004] The present invention intends to provide an optical glass raw material sorting device, which adds a lifting component and a pushing head component to the original loading machine, so as to effectively ensure that only one optical glass enters each position on the glass tray during unloading.

[0005] To this end, the technical solution adopted by the present invention is: an optical glass raw material sorting device, including a hopper assembly, a sorting assembly, a material distribution assembly, a lifting assembly, a pusher assembly and a loading support frame, the material distribution assembly includes a material receiving funnel, a material receiving baffle, a baffle action assembly, a hose, a hose fixing seat and a hose action assembly, the lifting assembly includes a lifting shuttle arranged between a cutting plate in the sorting assembly and a material receiving funnel in the material distribution assembly, a third V-shaped groove matching the second V-shaped groove is arranged in the middle of the lifting shuttle, the lifting shuttle is arranged on the loading support frame through a lifting drive assembly, and can move up and down under the action of the lifting drive assembly; the pusher assembly includes a discharge push plate located above the front end of the cutting plate, the discharge push plate is arranged on the loading support frame through a discharge push assembly, and can move back and forth under the action of the discharge push assembly;

[0006] The upper end of the receiving funnel is arranged on the lifting shuttle, and the lower end of the receiving funnel is fixed on the feeding support frame through the funnel mounting seat. The lower end of the receiving funnel can move up and down in the funnel mounting seat. The baffle action component is arranged in front of the receiving funnel, and the receiving baffle can move forward into the third V-shaped groove under the action of the baffle action component.

[0007] In the initial state, the material receiving baffle is located in the third V-shaped groove, and the distance between the material receiving baffle and the cutting plate matches the length of the optical glass. When the optical glass rolls from the cutting plate to the third V-shaped groove, the lifting shuttle is lifted upward under the action of the lifting drive assembly, and then the material receiving baffle retreats to the front end of the material receiving funnel. The discharge push plate moves forward under the action of the discharge push assembly to push the optical glass in the third V-shaped groove into the material receiving funnel, and then the discharge push plate and the material receiving baffle return to their positions, and finally the lifting shuttle returns to their positions.

[0008] As a preferred embodiment of the above scheme, a pressing assembly capable of pressing the optical glass in the third V-shaped groove is provided at the upper end of the lifting shuttle, the pressing assembly comprises a movable pressing cone capable of moving up and down and corresponding to the third V-shaped groove, a pressing cone groove for the movable pressing cone to move up and down is provided in the lifting shuttle, a pressing cone guide column connected to the upper end of the movable pressing cone is provided in the pressing cone groove, a pressing cone connecting plate is provided on the upper end of the pressing cone guide column after passing through the pressing cone groove, the pressing cone connecting plate is provided on the telescopic end of the pressing cone movable cylinder, and the pressing cone movable cylinder is moved by the pressing cone cylinder. The fixed plate is arranged on the lifting shuttle, and the outer sleeve of the pressure cone guide column is provided with a press spring located in the pressure cone groove, the lower end of the press spring abuts against the upper end of the movable pressure cone, and the upper end of the press spring abuts against the upper inner wall of the pressure cone groove; in the initial state, the distance between the movable pressure cone and the third V-shaped groove is greater than the height of the optical glass, when the optical glass is located in the third V-shaped groove, the movable pressure cone moves downward under the action of the pressure cone movable cylinder to press on the optical glass, and when the discharge push plate starts to move forward, the movable pressure cone returns to its original position under the action of the pressure cone movable cylinder.

[0009] The lifting of the ...

[0010] The cam is configured to move the first V-shaped groove around the top of the guide plate and form a first, second V-shaped groove around the top of the guide plate. The cam is configured to move the first V-shaped groove around the top of the guide plate and form a first, second V-shaped groove around the top of the guide plate. The cam is configured to move the first V-shaped groove around the top of the guide plate and form a first, second V-shaped groove around the top of the guide plate.

[0011] Further preferably, the material channel limiting assembly includes a limiting cylinder arranged on the material channel mounting plate, the telescopic end of the limiting cylinder is arranged on the material channel stop block connecting piece, the rear end of the material channel stop block connecting piece is provided with a material channel limiting plate, the material channel limiting plate is provided with a material channel stop block matching the first V-groove slope without the first notch, the upper end of the material channel limiting plate is provided with a material channel guide plate, the material channel mounting plate is provided with a guide groove extending up and down corresponding to each material channel guide plate, a limiting slide groove is provided in the guide groove, the upper end of the material channel guide plate is located in the guide groove and is passed through the limiting slide groove by a bolt, and the material channel mounting plate is provided with a material channel pressure plate that can press the upper ends of all material channel guide plates.

[0012] Further preferably, a cutting plate is horizontally arranged at the front end of the guide plate, a second V-shaped groove corresponding to the first V-shaped groove is arranged on the cutting plate, a second notch is arranged on the upwardly convex part of each second V-shaped groove at the front middle part of the cutting plate, a second residual material hopper for holding optical glass dropped from the second notch is arranged at the front lower middle part of the cutting plate, a vibration component fixed on the loading support frame is arranged at the rear lower middle part of the cutting plate, the vibration component drives the cutting plate to move forward and backward, and a confirmation component for confirming whether there is glass in the second V-shaped groove is arranged in the middle part of the cutting plate.

[0013] Further preferably, the lifting drive assembly includes a lifting cylinder, the lifting cylinder is arranged on the loading support frame through a lifting cylinder seat, and the lower end of the lifting shuttle is arranged on the telescopic end of the lifting cylinder.

[0014] The beneficial effects of the present invention are as follows: a lifting shuttle and a material receiving baffle are provided, and since the distance between the material receiving baffle and the cutting plate matches that of an optical glass, it can be ensured that only one optical glass enters the third V-shaped groove, and when an optical glass enters the third V-shaped groove, the lifting shuttle can move upward to further prevent the second optical glass from entering the third V-shaped groove at the same time, thereby effectively ensuring that only one optical glass enters the material receiving funnel at a time; since the material receiving baffle can move forward and backward under the action of the baffle action component, the position between the material receiving baffle and the cutting plate can be adjusted, so that the present application can adapt to different sizes of related glasses. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a structural schematic diagram of the present invention.

[0016] Figure 2 It is a schematic diagram of the structure of the hopper assembly and the pusher assembly in the present invention.

[0017] Figure 3 It is a schematic diagram of the feeding support frame in the present invention.

[0018] Figure 4 Schematic diagram of the guide plate on the sorting assembly in the present invention.

[0019] Figure 5 It is a schematic diagram of the material channel limiting component in the present invention.

[0020] Figure 6 It is a schematic diagram of the cutting plate on the sorting component in the present invention.

[0021] Figure 7 The installation diagram of the lifting assembly in the present invention is shown in FIG. Figure 1 .

[0022] Figure 8 The installation diagram of the lifting assembly in the present invention is shown in FIG. Figure 2 .

[0023] Fig. 9 It is a schematic diagram of the installation of the lifting shuttle in the present invention.

[0024] Fig.10 It is a schematic diagram of the movable pressing cone in the present invention.

[0025] Fig.11 It is a schematic diagram of the lifting shuttle in the present invention.

[0026] Fig.12 It is a schematic diagram of the push head assembly in the present invention.

[0027] Fig.13 Schematic diagram of the fabric assembly of the present invention.

[0028] Description of the accompanying drawings: A-hopper assembly, B-sorting assembly, C-feeding assembly, D-feeding support frame, E-pushing assembly, F-lifting assembly, G-pushing head assembly, 1-feeding support bottom plate, 2-feeding support side plate, 3-feeding support reinforcement plate, 4-hopper support plate, 5-hopper, 5a-transition plate, 6-guide plate, 6a-first V-shaped groove, 6b-first missing groove, 7-guide plate support plate, 8-first remaining hopper, 9-remaining hopper Supporting horizontal plate, 10-first residual hopper support plate, 11-channel limiting support plate, 12-channel mounting plate, 12a-guide groove, 12b-limiting slide groove, 13-limiting cylinder, 14-channel block connector, 15-channel limiting plate, 16-channel block, 17-channel guide plate, 18-channel pressure plate, 19-cutting plate, 19a-second V-shaped groove, 19b-second missing groove, 20-second residual hopper, 21-vibration assembly, 22 -vibration mounting seat, 23-vertical plate, 24-second residual hopper support plate, 25-material receiving funnel, 26-material receiving baffle, 27-lifting cylinder seat, 28-hose fixing seat, 29-hose pressing sheet, 30-lifting shuttle, 30a-third V-shaped groove, 30b-pressing cone groove, 31-discharging push plate, 32-funnel mounting seat, 33-baffle connecting plate, 33a-moving groove, 34-baffle mounting plate, 35-baffle cylinder seat, 36-baffle cylinder , 37-lifting limit plate, 38-movable pressure cone, 39-pressure cone guide column, 40-pressure cone connecting plate, 41-pressure cone movable cylinder, 42-pressure cone cylinder fixing plate, 43-pressed spring, 44-push plate mounting seat, 45-push plate cylinder, 46-push plate support plate, 47-push plate connecting plate, 48-push plate supporting plate, 49-push plate receiving plate, 49a-fourth V-groove, 50-push plate guide rod, 51-push plate spring, 52-lifting cylinder. DETAILED DESCRIPTION

[0029] The present invention will be further described below by way of embodiments and in conjunction with the accompanying drawings:

[0030] like Figure 1-13 As shown, an optical glass raw material sorting device is mainly composed of a hopper component A, a sorting component B, a material distribution component C, a feeding support frame D, a lifting component F and a pusher head component G. The feeding support frame D includes a feeding support bottom plate 1, two feeding support side plates 2 are arranged at intervals on both sides of the feeding support bottom plate 1 near the rear end, and a feeding support reinforcement plate 3 is arranged between the middle parts of the two feeding support side plates 2 at the rear end, and a hopper support plate 4 is arranged near the top of the feeding support side plate 2. The hopper assembly A includes a hopper 5 surrounded by a rear side plate, a bottom plate, a left side plate and a right side plate. The hopper 5 is fixedly arranged on the top of the loading support frame D, that is, the hopper 5 is fixedly arranged on the hopper support plate 4, and the upper end of the hopper 5 is flush with the upper end of the loading support side plate 2. In order to facilitate the forward movement of the optical glass in the hopper 5, a pushing assembly E is arranged in the hopper 5. The structure of the pushing assembly E is exactly the same as the structure of the pushing assembly E in Chinese patent CN114516719A, which will not be repeated here.

[0031] The specific structure of the sorting component B includes a guide plate 6 located at the front end of the hopper component A and fixedly arranged, and the guide plate 6 is fixedly arranged in the middle of the feeding support frame D through the guide plate support plates 7 on the left and right sides, and a first V-shaped groove 6a is arranged between the hopper 5 and the guide plate 6, and a first V-shaped groove 6a for diversion is arranged at the front end of the guide plate 6. Since the guide plate 6 is arranged obliquely, a transition plate 5a matching the first V-shaped groove 6a is arranged between the hopper 5 and the guide plate 6. In order to prevent the optical glass in each first V-shaped groove 6a from overlapping, a first notch 6b is arranged in the upward convex part of each first V-shaped groove 6a in the middle of the guide plate 6, and the first notch 6b on the two adjacent first V-shaped grooves 6a are staggered front and back. In order to facilitate the collection of optical glass dropped from the first notch 6b due to overlapping, a first residual hopper 8 fixedly arranged in the middle of the feeding support frame D is arranged at a position directly below the guide plate 6. To facilitate the setting of the first residual material hopper 8, the lower end of the guide plate support plate 7 extends directly downward and is fixed on the loading support bottom plate 1, and a residual material hopper support cross plate 9 extends front and back between the left and right corresponding front loading support side plates 2 and the guide plate support plate 7, and a first residual material hopper support plate 10 is arranged between the two left and right residual material hopper support cross plates 9, and the first residual material hopper 8 is arranged above the first residual material hopper support plate 10.

[0032] A material channel limiting support plate 11 is extended upwardly from the upper end of the guide plate support plate 7, and a material channel mounting plate 12 extending left and right is arranged between the material channel limiting support plates 11 on both sides, and a material channel limiting component for limiting whether the optical glass can pass through the corresponding first V-shaped groove 6a is arranged on the material channel mounting plate 12 corresponding to each first V-shaped groove 6a, and the material channel limiting component is arranged at the front end of the first notch 6b and is arranged vertically to the first V-shaped groove 6a, so that the optical glass in the first V-shaped groove 6a can fall from the first notch 6b into the first residual hopper 8 under the action of the material channel limiting component. Through the arrangement of the material channel limiting component, the entire sorting device can be applicable to various types of optical glass trays.

[0033] The specific structure of the material channel limiting assembly includes a limiting cylinder 13 arranged on the material channel mounting plate 12, and the telescopic end of the limiting cylinder 13 is arranged on the material channel stop block connecting piece 14. In order to realize the limitation of the first V-shaped groove, a material channel limiting plate 15 is arranged at the rear end of the material channel stop block connecting piece 14, and at the same time, a material channel stop block 16 matching the first V-shaped groove inclined surface without the first groove is arranged on the material channel limiting plate 15. In order to ensure that the material channel block 16 can accurately contact the first V-shaped groove when needed, a material channel guide plate 17 is provided at the upper end of the material channel limit plate 15, and a guide groove 12a extending up and down is provided on the material channel mounting plate 12 corresponding to each material channel guide plate 17, and a limited position slide groove 12b is provided in the guide groove 12a. The upper end of the material channel guide plate 17 is located in the guide groove and passes through the limited position slide groove 12b through a bolt. The bolt can provide a certain support to the material channel guide plate 17. In order to further ensure the movement of the material channel guide plate 17, a material channel pressing plate 18 that can press the upper end of all the material channel guide plates 17 is provided on the material channel mounting plate 12. When it is necessary to limit the first V-shaped groove, the limit cylinder works, so that the material channel guide plate, the material channel limit plate and the material channel block move toward the first V-shaped groove together until the material channel block contacts the first V-shaped groove.

[0034] A cutting plate 19 is horizontally arranged at the front end of the guide plate 6, and a second V-shaped groove 19a corresponding to the first V-shaped groove is arranged on the cutting plate 19. In order to prevent the optical glass from overlapping when it changes from an inclined surface to a flat surface, a second notch 19b is arranged on the upwardly convex part of each second V-shaped groove 19a at the front position of the middle part of the cutting plate 19, and a second residual hopper 20 for holding the optical glass dropped from the second notch 19b is arranged at the front lower part of the middle part of the cutting plate 19. In order to realize the movement of the optical glass located on the cutting plate 19, a vibration assembly 21 fixed on the feeding support frame D is arranged at the rear lower part of the middle part of the cutting plate 19, and the vibration assembly 21 drives the cutting plate 19 to move forward and backward. The installation of the vibration assembly 21 is exactly the same as the installation structure of the second vibration assembly of the Chinese patent CN114516719A, and both include a vibration mounting seat 22.

[0035] To achieve the installation of the second residual hopper 20, vertical plates 23 for installing the second residual hopper 20 are provided on the left and right sides of the front end of the vibration mounting seat 22, and a second residual hopper support plate 24 is extended left and right between the two vertical plates 23. The second residual hopper 20 is set on the second residual hopper support plate 24. Since the second residual hopper is used to receive the optical glass dropped from the second notch, the second residual hopper is relatively heavy. In order to better support the vibration mounting seat 22, height adjustment components are provided at the front end of the vibration mounting seat 22 and near the front end.

[0036] A confirmation component for confirming whether there is glass in the second V-shaped groove is provided in the middle of the cutting plate 19. The structure of the confirmation component is exactly the same as the confirmation component structure of Chinese patent CN114516719A. At the same time, the confirmation component also has automatic replenishment control during the movement of the glass, thereby ensuring uniform material distribution during the distribution process and achieving balanced production.

[0037] The material distribution assembly C includes a plurality of material receiving funnels 25 arranged side by side and having funnel holes, a material receiving baffle 26 is arranged above all the material receiving funnels 25, the material receiving baffle 26 is arranged on the baffle action assembly, and the material receiving baffle 26 can move forward and backward under the action of the baffle action assembly, a hose 27 is sleeved on the lower end of each material receiving funnel 25, and the front end of the hose 27 is arranged on a hose fixing seat 28, a hose pressing piece 29 for preventing the hose from falling out is arranged between the hose 27 and the hose fixing seat 28, the hose fixing seat 28 is arranged on the hose action assembly, and the hose action assembly can drive the front end of the hose 27 to move up and down. The structure of the hose action assembly is exactly the same as that of the hose action assembly of Chinese patent CN114516719A.

[0038] The lifting assembly F includes a lifting shuttle 30 disposed between the cutting plate 19 in the sorting assembly B and the receiving funnel 25 in the material distribution assembly C, a third V-shaped groove 30a matching the second V-shaped groove is disposed in the middle of the lifting shuttle 30, and the lifting shuttle 30 is disposed on the loading support frame D through the lifting drive assembly, and can move up and down under the action of the lifting drive assembly. The pusher assembly G includes a discharge push plate 31 located above the front end of the cutting plate 19, and the discharge push plate 31 is disposed on the loading support frame D through the discharge push assembly, and can move forward and backward under the action of the discharge push assembly.

[0039] The upper end of the receiving funnel 25 is arranged on the lifting shuttle 30, and the lower end of the receiving funnel 25 is arranged on the funnel mounting seat 32, and the lower end of the receiving funnel 25 can move up and down in the funnel mounting seat 32. The funnel mounting seat 32 is arranged at the front end of the vertical plate 23, and the baffle action assembly is arranged in front of the receiving funnel 25, and the receiving baffle 26 can move forward into the third V-shaped groove 30a under the action of the baffle action assembly. In order to realize the installation of the baffle action assembly, baffle connecting plates 33 extending forward are arranged on the left and right sides of the lifting shuttle 30, and baffle mounting plates 34 extending left and right are arranged between the baffle connecting plates 33 on both sides, and the baffle action assembly includes a baffle cylinder 36 arranged on the baffle mounting plate 34 through a baffle cylinder seat 35. In order to guide the lifting shuttle 30 when it moves up and down, a moving groove 33 a is provided on the left and right outer sides of the baffle connecting plate 33 , a lifting limit plate 37 is provided in the moving groove 33 a , and the lower end of the lifting limit plate 37 is provided on the vertical plate 23 .

[0040] In order to prevent the optical glass in the third V-shaped groove from falling off when the lifting shuttle 30 moves up and down, a pressing assembly capable of pressing the optical glass in the third V-shaped groove is provided at the upper end of the lifting shuttle 30. The pressing assembly includes a movable pressing cone 38 that can move up and down and corresponds to the third V-shaped groove, a pressing cone groove 30b for the movable pressing cone to move up and down is provided in the lifting shuttle 30, a pressing cone guide column 39 connected to the upper end of the movable pressing cone 38 is provided in the pressing cone groove 30b, and the upper end of the pressing cone guide column 39 passes through the pressing cone groove 30b and is arranged on the pressing cone connecting plate 40, the pressing cone connecting plate 40 is arranged at the telescopic end of the pressing cone movable cylinder 41, and the pressing cone movable cylinder 41 is arranged on the lifting shuttle 30 through the pressing cone cylinder fixing plate 42. To facilitate the rapid descent of the movable pressing cone 38, a press-fit spring 43 located in the pressing cone groove 30b is sleeved outside the pressing cone guide column 39, and the lower end of the press-fit spring 43 abuts against the upper end of the movable pressing cone 38, and the upper end of the press-fit spring 43 abuts against the upper inner wall of the pressing cone groove 30b.

[0041] The specific structure of the discharge pushing assembly includes a push plate cylinder 45 arranged on a push plate mounting seat 44, the push plate mounting seat 44 extends left and right and is arranged on the upper ends of push plate support plates 46 arranged on both sides of the loading support frame D, specifically, the push plate support plates 46 are installed on the funnel mounting seat 32, and the discharge push plate 31 is arranged at the telescopic end of the push plate cylinder 45. In order to prevent the optical glass located in the third V-shaped groove from falling when the discharge push plate moves, a downward push plate support plate 48 is arranged on the push plate mounting seat 44 through a push plate connecting plate 47, and a push plate receiving plate 49 extending forward and used to prevent the optical glass located in the third V-shaped groove from falling is arranged in front of the push plate supporting plate 48, and a fourth V-shaped groove 49a corresponding to the third V-shaped groove is arranged on the push plate receiving plate 49, and the discharge push plate 31 is located in the fourth V-shaped groove 49a, and the front end of the push plate receiving plate 49 is flush with the front end of the cutting plate 19. To ensure that the discharging push plate 31 can move horizontally, push plate guide rods 50 for guiding are arranged between the left and right ends of the discharging push plate 31 and the push plate supporting plate 48. To quickly push out the optical glass, a push plate spring 51 is sleeved on the outside of the push plate guide rod 50. The front end of the push plate spring 51 abuts against the push plate supporting plate 48, and the rear end of the push plate spring 51 abuts against the nut tightened on the push plate guide rod 50.

[0042] The specific structure of the lifting drive assembly includes a lifting cylinder 52, and the lifting cylinder 52 is arranged on the loading support frame D through the lifting cylinder seat 27. Specifically, the lifting cylinder seat 27 is arranged in the middle of the front end of the vibration mounting seat 22, and the lower end of the lifting shuttle 30 is arranged on the telescopic end of the lifting cylinder 52.

[0043] In this embodiment, the lifting assembly F and the push head assembly G work as follows: in the initial state, the distance between the movable pressing cone and the third V-groove is greater than the height of the optical glass, the material receiving baffle is located in the third V-groove, and the distance between the material receiving baffle and the cutting plate matches the length of the optical glass, and the material discharging push plate is located in the fourth V-groove. When the optical glass rolls from the second V-groove to the third V-groove under the action of the vibration assembly, the movable pressing cone moves downward under the action of the pressing cone movable cylinder until it presses on the optical glass, and at the same time, the lifting shuttle is lifted upward under the action of the lifting cylinder until the third V-groove is flush with the fourth V-groove, and then the movable pressing cone returns to its original position under the action of the pressing cone movable cylinder, and at the same time, the material receiving baffle retreats to the front end of the material receiving funnel under the action of the baffle cylinder, and when the material receiving baffle leaves the third V-groove, the material discharging push plate moves forward under the action of the push plate cylinder to push the optical glass in the third V-groove into the material receiving funnel, and then the material discharging push plate and the material receiving baffle return to their positions, and finally the lifting shuttle returns to their positions.

Claims

1. An optical glass raw material sorting device, comprising a hopper assembly, a sorting assembly, a material distribution assembly and a material feeding support frame, wherein the material distribution assembly comprises a material receiving funnel, a material receiving baffle, a baffle action assembly, a hose, a hose fixing seat and a hose action assembly, characterized in that: It also includes a lifting assembly and a pushing head assembly; the lifting assembly includes a lifting shuttle arranged between the cutting plate in the sorting assembly and the receiving funnel in the material distribution assembly, the middle part of the lifting shuttle is provided with a third V-shaped groove matching the second V-shaped groove, the lifting shuttle is arranged on the feeding support frame through the lifting drive assembly, and can move up and down under the action of the lifting drive assembly; the pushing head assembly includes a discharge push plate located above the front end of the cutting plate, the discharge push plate is arranged on the feeding support frame through the discharge push assembly, and can move forward and backward under the action of the discharge push assembly; The upper end of the receiving funnel is arranged on the lifting shuttle, and the lower end of the receiving funnel is fixed on the feeding support frame through the funnel mounting seat. The lower end of the receiving funnel can move up and down in the funnel mounting seat. The baffle action component is arranged in front of the receiving funnel, and the receiving baffle can move forward into the third V-shaped groove under the action of the baffle action component. In the initial state, the material receiving baffle is located in the third V-shaped groove, and the distance between the material receiving baffle and the cutting plate matches the length of the optical glass. When the optical glass rolls from the cutting plate to the third V-shaped groove, the lifting shuttle is lifted upward under the action of the lifting drive assembly, and then the material receiving baffle retreats to the front end of the material receiving funnel. The discharge push plate moves forward under the action of the discharge push assembly to push the optical glass in the third V-shaped groove into the material receiving funnel, and then the discharge push plate and the material receiving baffle return to their positions, and finally the lifting shuttle returns to their positions.

2. The optical glass raw material sorting device according to claim 1, characterized in that: The upper end of the lifting shuttle is provided with a pressing assembly capable of pressing the optical glass in the third V-shaped groove, the pressing assembly includes a movable pressing cone that can move up and down and corresponds to the third V-shaped groove, the lifting shuttle is provided with a pressing cone groove for the movable pressing cone to move up and down, the pressing cone groove is provided with a pressing cone guide column connected to the upper end of the movable pressing cone, the upper end of the pressing cone guide column passes through the pressing cone groove and is provided with a pressing cone connecting plate, the pressing cone connecting plate is provided on the telescopic end of the pressing cone movable cylinder, the pressing cone movable cylinder is provided through the pressing cone cylinder fixing plate On the lifting shuttle, the pressing cone guide column is sheathed with a pressing spring located in the pressing cone groove, the lower end of the pressing spring abuts against the upper end of the movable pressing cone, and the upper end of the pressing spring abuts against the upper inner wall of the pressing cone groove; in the initial state, the distance between the movable pressing cone and the third V-shaped groove is greater than the height of the optical glass, when the optical glass is located in the third V-shaped groove, the movable pressing cone moves downward under the action of the pressing cone movable cylinder to press on the optical glass, and when the discharge push plate starts to move forward, the movable pressing cone returns to its original position under the action of the pressing cone movable cylinder.

3. The optical glass raw material sorting device according to claim 1, characterized in that: The discharging pushing assembly comprises a push plate cylinder which is arranged on a push plate mounting seat, the push plate mounting seat is extended left and right and is arranged on the upper ends of the push plate supporting plates which are arranged on the loading support frame, the discharging push plate is arranged on the telescopic end of the push plate cylinder, the push plate mounting seat is provided with a push plate supporting plate downwardly arranged on the push plate connecting plate through the push plate connecting plate, the front of the push plate supporting plate is provided with a push plate receiving plate which extends forward and is used to prevent the optical glass located in the third V-shaped groove from falling, and the push plate receiving plate is provided with a fourth V-shaped groove corresponding to the third V-shaped groove, the discharging push plate is located in the fourth V-shaped groove, the front end of the push plate receiving plate is flush with the front end of the cutting plate, and push plate guide rods for guiding are arranged between the left and right ends of the discharging push plate and the push plate supporting plate, and the push plate guide rod is sheathed with a push plate spring, the front end of the push plate spring is against the push plate supporting plate, and the rear end of the push plate spring is against the nut tightened on the push plate guide rod.

4. The optical glass raw material sorting device according to claim 1, characterized in that: The sorting component includes a guide plate located at the front end of the hopper component and fixedly arranged, and the guide plate is fixedly arranged in the middle of the loading support frame through the guide plate support plates on the left and right sides, the front end of the guide plate is inclined downward and is provided with a first V-shaped groove for diversion, and each first V-shaped groove in the middle of the guide plate The upwardly protruding part is provided with a first notch, and the first notches on the two adjacent first V-shaped grooves are staggered front and back, and a first residual hopper fixed in the middle of the loading support frame is arranged at a position directly below the guide plate, and a material channel limiting support plate is extended upward at the upper end of the guide plate support plate, and a material channel mounting plate extending left and right is arranged between the material channel limiting support plates on both sides, and a material channel limiting component corresponding to each first V-shaped groove on the material channel mounting plate is provided for limiting whether the corresponding first V-shaped groove can pass through the optical glass, and the material channel limiting component is arranged at the front end of the first notch and is arranged perpendicular to the first V-shaped groove.

5. The optical glass raw material sorting device according to claim 4, characterized in that: The material channel limiting assembly includes a limiting cylinder arranged on a material channel mounting plate, the telescopic end of the limiting cylinder is arranged on a material channel stop block connecting piece, a material channel limiting plate is arranged at the rear end of the material channel stop block connecting piece, a material channel limiting plate is arranged on the material channel limiting plate, a material channel stop block matching the first V-groove inclined surface without the first notch is arranged, a material channel guide plate is arranged at the upper end of the material channel limiting plate, a guide groove extending up and down is arranged on the material channel mounting plate corresponding to each material channel guide plate, a limiting slide groove is arranged in the guide groove, the upper end of the material channel guide plate is located in the guide groove and passes through the limiting slide groove by a bolt, and a material channel pressure plate which can press the upper ends of all material channel guide plates is arranged on the material channel mounting plate.

6. The optical glass raw material sorting device according to claim 4, characterized in that: A cutting plate is horizontally arranged at the front end of the guide plate, and a second V-shaped groove corresponding to the first V-shaped groove is arranged on the cutting plate, and a second notch is arranged on the upwardly convex part of each second V-shaped groove at the front position of the middle part of the cutting plate, and a second residual hopper for holding optical glass dropped from the second notch is arranged at the lower front middle part of the cutting plate, and a vibration component fixed on the loading support frame is arranged at the lower rear middle part of the cutting plate, and the vibration component drives the cutting plate to move forward and backward, and a confirmation component for confirming whether there is glass in the second V-shaped groove is arranged in the middle part of the cutting plate.

7. The optical glass raw material sorting device according to claim 1, characterized in that: The lifting drive assembly comprises a lifting cylinder, which is arranged on a loading support frame through a lifting cylinder seat, and the lower end of the lifting shuttle is arranged on the telescopic end of the lifting cylinder.

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