A glass bead polishing system

Abstract

The present invention discloses a glass bead polishing system, which relates to the technical field of glass bead polishing. It includes a feeding chute, and a feeding component is arranged on one side of the feeding chute. The glass beads are pushed into the chute at the top of the feeding chute through the feeding component; a conveying mechanism is arranged on the other side of the feeding chute. The conveying mechanism includes a turntable and a friction plate. A polishing plate is arranged on the outside of the conveying mechanism, and the polishing plate is fixed to the feeding chute; the opening between the feeding chute and the turntable gradually decreases, and the arc center of the polishing plate coincides with the center of the turntable. The present invention is provided with a feeding chute, a polishing plate, a conveying mechanism and a power component. The conveying mechanism is arranged in a vertical circle. By the power component, the rotation speed of the friction plate is greater than that of the turntable, so as to realize the rotational polishing of a plurality of glass beads in sequence. This device can save processing space better compared with the prior art.

Description

Technical Field

[0001] The present invention relates to the technical field of glass bead polishing, and specifically provides a glass bead polishing system. Background Art

[0002] In the current production and processing of glass beads, it is often necessary to polish the glass beads to improve the gloss of the glass bead surface. The commonly used polishing methods are mainly manual polishing or polishing with polishing equipment.

[0003] Chinese Patent Application Publication No. CN111230650A discloses a polishing device for high-precision glass beads, which relates to the field of polishing devices and includes a device main body and a feed hopper. The feed hopper is fixedly arranged on one side of the top of the device main body. An aggregate turntable is arranged in the inner cavity of the device main body. A plurality of glass bead clamping holes are arranged on the top of the aggregate turntable, and the plurality of glass bead clamping holes are arranged in an arc array on the aggregate turntable. The bottom end of the glass bead clamping hole penetrates through the aggregate turntable and extends to one side of the bottom end of the aggregate turntable. A connecting groove is arranged between adjacent glass bead clamping holes. This structure is simple, easy to operate, safe to use, has high polishing efficiency, and can greatly improve the polishing accuracy of glass beads.

[0004] In addition, Chinese Patent Application Publication No. CN117428661A discloses a hollow glass bead polishing system based on a rotary chain, including a motor a and a rotary chain a and a rotary chain b driven by the motor a. A plurality of clamping components for clamping glass beads are arranged on both the rotary chain a and the rotary chain b. A conveying component for conveying glass beads is arranged on the polishing channel. A slide rail for driving the clamping component to clamp the glass beads is arranged above the clamping component, which solves the problems that the glass beads cannot rotate left and right during polishing, cannot be polished all-round, and multiple polishing will affect the polishing efficiency.

[0005] The glass bead polishing systems in the prior art still have the following problems in practical applications:

[0006] 1. When polishing glass beads, it is not convenient to polish the glass beads all-round. To achieve an all-round polishing effect, the glass beads need to be polished multiple times, resulting in low polishing efficiency.

[0007] 2. The existing polishing systems are generally large in volume and cannot effectively save the processing site. Summary of the Invention

[0008] The purpose of the present invention is to provide a glass bead polishing system to solve the problems raised in the above background art.

[0009] To achieve the above object, the present invention provides the following technical solution: A glass bead polishing system, including a feeding chute, one side of the feeding chute is provided with a feeding component, and the glass beads are pushed into the chute at the top of the feeding chute through the feeding component;

[0010] On the other side of the feeding chute, a conveying mechanism is provided. The conveying mechanism includes a turntable and a friction plate. A polishing plate is arranged outside the conveying mechanism, and the polishing plate is fixed between the feeding chute;

[0011] The opening between the feeding chute and the turntable gradually decreases, and the center of the arc of the polishing plate coincides with the center of the circle of the turntable;

[0012] On one side of the conveying mechanism, a power component is provided, and through the power component, the conveying mechanism and the polishing plate polish the glass beads entering the polishing groove of the polishing plate;

[0013] On both sides of the polishing plate, a plurality of turning components are provided, and the glass beads are rotated through the turning components;

[0014] On one side at the top of the conveying mechanism, a discharging chute is provided. The top plate of the discharging chute is in contact with the top surface of the turntable, and a buffer is arranged at the bottom of the discharging chute. The buffer buffers the glass beads falling along the discharging chute.

[0015] Furthermore, the conveying mechanism further includes a vertical plate, one side of the vertical plate is movably connected with a rotating shaft, and the rotating shaft is fixed to the side surface of the turntable;

[0016] An annular groove is formed on one side of the turntable, the friction plate is movably arranged in the annular groove, and a plurality of equally spaced arc-shaped grooves are formed on the outside of the turntable, and the arc-shaped grooves are communicated with the annular groove;

[0017] The cross-section of the friction plate is U-shaped. During polishing, the top of the glass bead is pressed against the friction plate;

[0018] A support plate is fixed to the side surface of the vertical plate, the rotating shaft movably penetrates through the support plate, a circular tube is formed on the side surface of the friction plate, and the circular tube is movably connected with the support plate.

[0019] Furthermore, the power component includes a roller movably connected to the vertical plate and a first motor fixed to the side surface of the vertical plate. The output end of the first motor is fixed to the end of the roller, a second gear is fixed on the tube body of the circular tube, and a third gear is fixed on the shaft body of the rotating shaft;

[0020] Two first gears are fixed on the shaft body of the roller, and the two first gears are respectively meshed with the second gear and the third gear.

[0021] Furthermore, the tooth ratio of the third gear to the second gear is 2-6:1.

[0022] Furthermore, the flip assembly includes a U-shaped frame and a push head, two connecting shafts are arranged on the side of the U-shaped frame, and the push head is movably plugged with the two connecting shafts;

[0023] A second spring is fixed between the U-shaped frame and the pushing head, an electromagnet is fixed on the plate body of the U-shaped frame, a magnetic conductive block is fixed on the pushing head, and the electromagnet attracts the magnetic conductive block after being energized.

[0024] Furthermore, the pushing head includes a slider and a resistance block, the slider and the resistance block are movably connected, and a plurality of first springs are fixed between the slider and the resistance block.

[0025] Furthermore, the buffer component includes a material drop box, a downwardly inclined buffer plate is fixed in the material drop box, a buffer block is fixed at the bottom end of the material drop box, and a discharge channel is formed between the buffer plate and the buffer block.

[0026] Furthermore, a curved plate that bends upward is formed on the top of the polishing plate.

[0027] Compared with the prior art, the present invention has the following beneficial effects:

[0028] The glass bead polishing system is provided with a feed slide, a polishing plate, a transmission mechanism and a power assembly. The transmission mechanism is a vertical circular arrangement. The power assembly is used to achieve a rotation speed of the friction plate greater than a rotation speed of the turntable, thereby achieving rotational polishing of a plurality of glass beads in sequence. The device has a compact structure, and through reasonable layout and optimized design, the overall size of the equipment is reduced, and compared with the prior art, it can better save processing space.

[0029] At the same time, a flipping component is provided, and two resistance blocks in the flipping component are respectively located at the top and bottom of the glass ball. Since the arc-shaped groove can limit the glass ball laterally, the glass ball can be pushed under the driving force of the two flipping components set at different positions, so that the glass ball is flipped along the tangential direction of its moving trajectory. After flipping once, the circular trajectory on one side of the surface of the glass ball is polished. After flipping multiple times, the glass ball can be polished in all directions, thereby improving the polishing efficiency and improving the product quality.

[0030] In addition, a buffer is provided. The glass beads falling along the discharge chute will first contact the buffer plate, which will initially buffer the impact force of the glass beads. Then the glass beads will fall to the top of the buffer block, which will further buffer the impact force of the glass beads. The glass beads with reduced kinetic energy will finally enter the collecting plate through the discharge channel. The setting of the buffer can effectively prevent the damage of the glass beads due to the collision of the glass beads with each other when the polished glass beads are collected, thereby further improving the product quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1Left axonometric view of the present invention;

[0032] Figure 2 Right axonometric view of the present invention;

[0033] Figure 3 Axonometric view of the conveying mechanism of the present invention;

[0034] Figure 4 Cross-sectional view of the conveying mechanism of the present invention;

[0035] Figure 5 Axonometric view of the power assembly of the present invention;

[0036] Figure 6 Schematic diagram of the working state between the two turning components and the glass beads of the present invention;

[0037] Figure 7 Half-sectional view of the turning component of the present invention;

[0038] Figure 8 Schematic diagram of the working between the two turning components and the glass beads of the present invention;

[0039] Figure 9 Half-sectional view of the buffer of the present invention;

[0040] Figure 10 Axonometric view of the feeding component of the present invention;

[0041] Figure 11 Half-sectional view of the feeding component of the present invention.

[0042] In the figure: 1, conveying mechanism; 101, turntable; 102, arc-shaped groove; 103, friction plate; 104, round tube; 105, vertical plate; 106, support plate; 107, rotating shaft; 2, feeding chute; 3, polishing plate; 301, bent plate; 4, power assembly; 401, roller; 402, first gear; 403, first motor; 404, second gear; 405, third gear; 5, discharging chute; 6, buffer; 601, blanking box; 602, buffer plate; 603, buffer block; 604, discharging channel; 7, collecting plate; 8, feeding component; 801, support box; 802, enclosing plate; 803, rotating plate; 804, cross plate; 805, fixed shaft; 806, arc-shaped pushing plate; 807, side plate; 808, feeding port; 809, tension spring; 810, second motor; 9, turning component; 901, U-shaped frame; 902, slider; 903, connecting shaft; 904, electromagnet; 905, magnetic conductive block; 906, abutting block; 907, first spring; 908, second spring. Detailed implementation manners

[0043] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0044] In the current production and processing of glass beads, it is often necessary to polish the glass beads to improve the gloss of the glass bead surface. The commonly used polishing methods are mainly manual polishing or polishing with a polishing device. However, there are still certain problems in the actual application of the glass bead polishing system in the prior art.

[0045] As Figures 1-11 shown, the present invention provides a technical solution: a glass bead polishing system, including a feeding chute 2 and a controller. On one side of the feeding chute 2, a feeding assembly 8 is provided, and the glass beads are pushed into the chute at the top of the feeding chute 2 through the feeding assembly 8.

[0046] In this solution, the feeding assembly 8 includes a support box 801. The top end of the support box 801 is fixed with an arc-shaped enclosure 802 through a plurality of connecting rods. A rotating plate 803 is movably connected inside the enclosure 802. As Figure 11 shown, the cross-section of the rotating plate 803 is in the shape of an umbrella surface, that is, the height in the middle is higher than the height of its edge. The bottom end of the rotating plate 803 is fixed with a movable shaft, and the movable shaft is movably connected with the support box 801. A second motor 810 is arranged in the support box 801, and the output end of the second motor 810 is fixed to the end of the movable shaft. After the controller controls the second motor 810 to start, the second motor 810 drives the rotating plate 803 to rotate.

[0047] A notch is opened at the top of the enclosure 802. Side plates 807 are fixed on both sides of the notch. A feeding port 808 is opened at the bottom of the side plate 807 close to the arc center side of the enclosure 802. The feeding port 808 is communicated with the channel formed by the two side plates 807. The channel formed by the two side plates 807 is adapted to the chute of the feeding chute 2. A cross plate 804 is fixed in the middle of the top end of the enclosure 802. An arc-shaped pushing plate 806 is movably connected to the middle plate body of the cross plate 804 through a fixed shaft 805, and a tension spring 809 is connected between the cross plate 804 and the arc-shaped pushing plate 806.

[0048] In this way, the glass beads are placed on the top of the rotating plate 803. After the controller controls the second motor 810 to start, the second motor 810 drives the rotating plate 803 to rotate. Under the pull of the tension spring 809, the arc-shaped pushing plate 806 pushes the glass beads to the edge side of the rotating plate 803. In this way, as the rotating plate 803 rotates, the glass beads will enter the channel formed by the two side plates 807 through the feed port 808 in turn, and finally enter the slide groove at the top of the feed slide 2 through the channel to realize the loading of the glass beads.

[0049] A conveying mechanism 1 is arranged on the other side of the feed chute 2, wherein the conveying mechanism 1 includes a turntable 101 and a friction plate 103, and a polishing plate 3 is arranged on the outer side of the conveying mechanism 1, and the polishing plate 3 is fixed to the feed chute 2. It can be understood that the polishing plate 3 and the arc-shaped slide of the feed chute 2 can both be adapted to the glass beads, or the arc-shaped slide of the feed chute 2 can be adapted to the glass beads and the arc-shaped slide of the polishing plate 3 can be slightly larger than the arc-shaped slide of the feed chute 2, as long as it can be ensured that the glass beads can enter the polishing plate 3 from the feed chute 2.

[0050] like Figure 1 As shown, in order to facilitate the glass beads to enter the top of the polishing plate 3, the opening between the feed chute 2 and the turntable 101 is gradually reduced, and the arc center of the polishing plate 3 coincides with the center of the circle of the turntable 101. During polishing, the glass beads are in contact with each other and are located in the arc chute of the feed chute 2.

[0051] A power assembly 4 is disposed on one side of the conveying mechanism 1 , and the conveying mechanism 1 and the polishing plate 3 are used to polish the glass beads entering the polishing groove of the polishing plate 3 .

[0052] Specifically, Figures 3-5 As shown, the conveying mechanism 1 also includes a vertical plate 105, on one side of which a rotating shaft 107 is movably connected, and the rotating shaft 107 is fixed to the side of the turntable 101, and an annular groove is provided on one side of the turntable 101, and the friction plate 103 is movably arranged in the annular groove, and a plurality of equally spaced arc grooves 102 are provided on the outer side of the turntable 101, and the arc grooves 102 are adapted to the glass beads, and the arc grooves 102 are connected to the annular grooves. In this scheme, the cross-section of the friction plate 103 is U-shaped. During polishing, the top of the glass beads is squeezed against the friction plate 103, so that the glass beads are driven to rotate when the friction plate 103 rotates, and then the polishing plate 3 polishes the glass beads.

[0053] It can be known that during polishing, the friction plate 103 drives the glass ball to rotate rapidly. When the glass ball is separated from the polishing plate 3, a "jumping" phenomenon may occur. In order to prevent the glass ball from being separated from the arc groove 102, Figure 1As shown, in this solution, a bent plate 301 that bends upward is formed on the top of the polishing plate 3. In this way, when the glass ball detaches from the polishing plate 3, the bent plate 301 can resist the glass ball, thereby preventing the glass ball from detaching from the arc-shaped groove 102 due to "jumping".

[0054] A support plate 106 is fixed to the side surface of the vertical plate 105. The rotating shaft 107 movably penetrates the support plate 106. A circular tube 104 is formed on the side surface of the friction plate 103, and the circular tube 104 is movably connected to the support plate 106. The purpose of such a setting is to separate the friction plate 103 and the turntable 101 into two separate parts. The power assembly 4 drives the friction plate 103 to rotate rapidly, thereby realizing the polishing of the glass beads.

[0055] As Figure 4 and Figure 5 As shown, the power assembly 4 includes a roller 401 movably connected to the vertical plate 105 and a first motor 403 fixed to the side surface of the vertical plate 105. The output end of the first motor 403 is fixed to the end of the roller 401. A second gear 404 is fixed on the tube body of the circular tube 104, and a third gear 405 is fixed on the shaft body of the rotating shaft 107. Two first gears 402 are fixed on the shaft body of the roller 401. The two first gears 402 are respectively engaged with the second gear 404 and the third gear 405. To achieve that the rotation speed of the friction plate 103 is greater than that of the turntable 101, shorten the polishing distance of the glass beads on the polishing plate 3, and improve the polishing effect and efficiency, the gear ratio of the third gear 405 and the second gear 404 is 2 - 6:1. The gear ratio of the first gear 402 engaged with the third gear 405 and the third gear 405 is 1:2 - 6. The gear ratio of the first gear 402 engaged with the second gear 404 and the second gear 404 is 2 - 3:1. The gear ratio of the first gear 402 engaged with the second gear 404 and the third gear 405 is 1:2 - 3. In this solution, the gear ratio of the second gear 404 and the third gear 405 is preferably 1:4.

[0056] In this way, the controller controls the first motor 403 to start. When the roller 401 rotates, it drives the two first gears 402 to rotate. Since the angular velocities of the two first gears 402 are the same, and because the gear ratios between the two first gears 402, between the two first gears 402 and the third gear 405 and the second gear 404 they are engaged with are different, it can be realized that the angular velocity of the circular tube 104 is greater than the angular velocity of the rotating shaft 107, so that the rotation speed of the friction plate 103 is greater than the rotation speed of the turntable 101. Furthermore, when the friction plate 103 rotates, it can push the glass beads to rotate rapidly in the arc-shaped groove 102, and finally realize the polishing of the glass beads by the polishing plate 3.

[0057] To achieve the full polishing of the glass beads, as Figure 6As shown in the figure, multiple sets of turning components 9 are arranged on both sides of the polishing plate 3, and the turning components 9 are used to rotate the glass beads.

[0058] Specifically, Figure 7 As shown in the figure, the turning component 9 includes a U-shaped frame 901 and a pushing head. Two connecting shafts 903 are arranged on the side surface of the U-shaped frame 901. The pushing head is movably inserted into the two connecting shafts 903. It can be known that the arrangement of the connecting shafts 903 ensures that the pushing head can move vertically along the U-shaped frame 901 without rotation. A second spring 908 is fixed between the U-shaped frame 901 and the pushing head. An electromagnet 904 is fixed on the plate body of the U-shaped frame 901, and a magnetic conductive block 905 is fixed on the pushing head. When the electromagnet 904 is powered on, it attracts the magnetic conductive block 905.

[0059] Among them, the pushing head includes a slider 902 and a contact block 906. The slider 902 and the contact block 906 are movably inserted into each other, and a plurality of first springs 907 are fixed between the slider 902 and the contact block 906. To prevent the middle part of the glass ball from interfering with the movement of the contact block 906, when the contact block 906 pushes the glass ball, the first spring 907 contracts, and the contact block 906 moves towards the slider 902 side.

[0060] It can be understood that this solution describes the structure of one turning component 9 in a group, and the other turning component 9 is the reverse setting of the above turning component 9. Those skilled in the art can know through the appendix Figure 6 It can be known.

[0061] Specifically, the two contact blocks 906 in each group of turning components 9 are respectively located at the top and bottom of the glass ball. As Figure 8 shown, when one contact block 906 moves downward, the driving force formed on the glass ball is F1, and when the other contact block 906 moves upward, the driving force formed on the glass ball is F2. Since the arc-shaped groove 102 can laterally limit the glass ball, under the driving forces of F1 and F2, the glass ball can be pushed to flip along the tangential direction of its moving trajectory. After flipping once, the annular trajectory on one side of the glass ball surface is polished. When flipping multiple times, the comprehensive polishing of the glass ball can be realized.

[0062] Such as Figure 2As shown in the figure, a discharge chute 5 is provided on one side of the top of the conveying mechanism 1. The top plate of the discharge chute 5 is in contact with the top surface of the turntable 101. The discharge chute 5 is inclined along the rotation direction of the turntable 101. Since the bottom of the glass ball is in contact with the arc-shaped groove 102 and the contact surface is small, when the polished glass ball rotates along the turntable 101, the top plate of the discharge chute 5 blocks the bottom of the moving glass ball, so that the glass ball disengages from the arc-shaped groove 102, and then rolls onto the chute of the discharge chute 5 along the top plate of the discharge chute 5. The side plate of the discharge chute 5 blocks the glass ball, enabling the glass ball to roll along the chute of the discharge chute 5 and finally enter the bottom discharge port of the discharge chute 5. Since the conveying mechanism 1 is set at a certain height and in order to save site space, the discharge chute 5 is set to be relatively short. This will result in a relatively large gravitational potential energy for the glass ball to fall. If the glass ball is directly discharged through the bottom discharge port of the discharge chute 5, it may cause damage to the glass ball. To solve the above problems, in this solution, a buffer member 6 is provided at the bottom of the discharge chute 5 to buffer the glass beads falling along the discharge chute 5.

[0063] Specifically, as Figure 9 shown, the buffer member 6 includes a blanking box 601. A buffer plate 602 inclined downward is fixed in the blanking box 601. A buffer block 603 is fixed at the bottom end of the blanking box 601. The buffer plate 602 and the buffer block 603 can be made of rubber material. An outlet channel 604 is formed between the buffer plate 602 and the buffer block 603. The glass beads falling along the discharge chute 5 will first contact the buffer plate 602. The buffer plate 602 initially buffers the impact force of the glass beads. Then the glass beads will fall onto the top of the buffer block 603, and the buffer block 603 further buffers the impact force of the glass beads. The glass beads with reduced kinetic energy finally enter the collecting plate 7 through the outlet channel 604. In this solution, the receiving groove at the top of the collecting plate 7 can be set to have a certain slope, that is, the slope of the receiving groove gradually decreases from the buffer member 6 outward. In this way, the glass balls entering the top of the collecting plate 7 through the outlet channel 604 will roll to the outside of the collecting plate 7, thus preventing the glass balls from staying directly below the outlet channel 604 and avoiding the collision between the falling glass balls and the glass balls on the receiving groove of the collecting plate 7, further improving the product quality.

[0064] The setting of the buffer member 6 can effectively prevent the damage of the glass beads caused by the mutual impact of the glass beads during the collection of the polished glass beads.

[0065] For the supplement of this solution, during polishing, the first motor 403 is started, and the turntable 101 rotates slowly. The glass beads enter the arc-shaped grooves 102 of the turntable 101. The friction plate 103 drives the glass beads to rotate rapidly, and the glass beads are polished by the polishing plate 3. When the glass beads are located between the turning components 9, the controller energizes the electromagnet 904 to make it magnetic. At this time, the second spring 908 contracts, and the slider 902 moves towards the electromagnet 904, thereby pushing the glass ball to cause the glass ball to flip. The polishing plate 3 polishes the flipped side of the glass bead again. After multiple flips, comprehensive polishing of the glass ball can be achieved. When the polishing is completed, the glass ball rotates downward with the turntable 101, and the glass ball falls into the discharge chute 5 and finally falls into the collection plate 7 through the buffering of the buffer member 6 to collect the glass ball.

[0066] It can be understood that with the continuous rotation of the turntable 101, polishing of all glass beads is achieved.

[0067] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended embodiments and their equivalents.

Claims

1. A glass bead polishing system, comprising a feeding chute (2), characterized in that: On one side of the feeding chute (2), a feeding assembly (8) is provided, and glass beads are pushed into the chute at the top of the feeding chute (2) through the feeding assembly (8); On the other side of the feeding chute (2), a conveying mechanism (1) is provided. The conveying mechanism (1) includes a turntable (101) and a friction plate (103). On the outside of the conveying mechanism (1), a polishing plate (3) is provided, and the polishing plate (3) is fixed to the feeding chute (2); The opening between the feeding chute (2) and the turntable (101) gradually decreases, and the center of the arc of the polishing plate (3) coincides with the center of the turntable (101); On one side of the conveying mechanism (1), a power assembly (4) is provided, and through the power assembly (4), the conveying mechanism (1) and the polishing plate (3) polish the glass beads that enter the polishing groove of the polishing plate (3); On both sides of the polishing plate (3), a plurality of turning assemblies (9) are provided, and the glass beads are rotated through the turning assemblies (9); On one side at the top of the conveying mechanism (1), a discharging chute (5) is provided. The top plate of the discharging chute (5) is in contact with the top surface of the turntable (101). At the bottom of the discharging chute (5), a buffer member (6) is provided, and the buffer member (6) buffers the glass beads that fall along the discharging chute (5); The conveying mechanism (1) further includes a vertical plate (105). On one side of the vertical plate (105), a rotating shaft (107) is movably connected, and the rotating shaft (107) is fixed to the side surface of the turntable (101); On one side of the turntable (101), an annular groove is provided. The friction plate (103) is movably arranged in the annular groove. On the outside of the turntable (101), a number of equally spaced arc-shaped grooves (102) are provided, and the arc-shaped grooves (102) communicate with the annular groove; The cross-section of the friction plate (103) is U-shaped. During polishing, the top of the glass bead is pressed against the friction plate (103); On the side surface of the vertical plate (105), a support plate (106) is fixed. The rotating shaft (107) movably passes through the support plate (106). On the side surface of the friction plate (103), a circular tube (104) is formed, and the circular tube (104) is movably connected to the support plate (106).

2. The glass bead polishing system according to claim 1, wherein: The power assembly (4) includes a roller (401) movably connected to the vertical plate (105) and a first motor (403) fixed to the side surface of the vertical plate (105). The output end of the first motor (403) is fixed to the end of the roller (401). A second gear (404) is fixed on the tube body of the circular tube (104), and a third gear (405) is fixed on the shaft body of the rotating shaft (107); On the shaft body of the roller (401), two first gears (402) are fixed, and the two first gears (402) are respectively engaged with the second gear (404) and the third gear (405).

3. A glass bead polishing system according to claim 2, wherein: The tooth ratio of the third gear (405) and the second gear (404) is 2 - 6:

1.

4. A glass bead polishing system according to claim 1, characterized in that: The turning assembly (9) includes a U-shaped frame (901) and a pushing head. On the side surface of the U-shaped frame (901), two connecting shafts (903) are provided, and the pushing head is movably inserted into the two connecting shafts (903); A second spring (908) is fixed between the U-shaped frame (901) and the pushing head, an electromagnet (904) is fixed on the plate body of the U-shaped frame (901), and a magnetic conductive block (905) is fixed on the pushing head. When the electromagnet (904) is energized, it attracts the magnetic conductive block (905).

5. A glass bead polishing system according to claim 4, characterized in that: The pushing head comprises a sliding block (902) and a resisting block (906), the sliding block (902) and the resisting block (906) are movably plugged in each other, and a plurality of first springs (907) are fixed between the sliding block (902) and the resisting block (906).

6. The glass bead polishing system according to claim 1, wherein: The buffer member (6) comprises a material drop box (601), a downwardly inclined buffer plate (602) is fixed in the material drop box (601), a buffer block (603) is fixed at the bottom end of the material drop box (601), and a material discharge channel (604) is formed between the buffer plate (602) and the buffer block (603).

7. A glass bead polishing system according to claim 1, characterized in that: The top of the polishing plate (3) is formed with a bent plate (301) that bends upward.

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