Cleaning machine for glass bead production raw materials

Abstract

The utility model relates to a cleaning machine for glass bead production raw materials. Comprising an installation support, a cleaning water tank with a water outlet formed in the bottom is installed on the installation support, multiple sets of cleaning roller brushes are rotationally connected to an inner cavity of the cleaning water tank, and the cleaning device further comprises a chain wheel transmission structure and a rotation driving structure; a filter screen structure is mounted in an inner cavity of the cleaning water tank, and the two vibration devices are used for driving the filter screen structure to vibrate up and down; a vibration rotating shaft is mounted between the two groups of vibration devices, a cleaning brush is sleeved on the vibration rotating shaft, and a vibration driving piece is further included; the water distribution pipe structure is mounted at the open end of the top of the cleaning water tank, and a plurality of nozzles are mounted on the water distribution pipe structure; a water return pipe and a water pump are arranged between the water outlet of the cleaning water tank and the water inlet of the water distribution pipe structure. The waste broken glass cleaning device can efficiently clean waste broken glass, is high in working efficiency, can filter and recycle waste water, and achieves the purpose of saving water resources.

Description

Technical Field

[0001] This utility model belongs to the field of cleaning equipment technology, and in particular relates to a cleaning machine for raw materials used in the production of glass microspheres. Background Technology

[0002] Glass microspheres are a new type of material with wide applications and special properties that has been developed in recent years. This product has the advantages of being lightweight, having low thermal conductivity, high strength, and good chemical stability. Its surface is specially treated to have oleophilic and hydrophobic properties, making it very easy to disperse in organic material systems. In the production process of glass microspheres, glass is usually crushed by a pulverizer, then sieved, and then passed through a uniform heating zone at a certain temperature, so that the glass particles melt and form microspheres under the action of surface tension.

[0003] In actual work, the glass raw materials need to be cleaned before crushing waste glass. Usually, traditional cleaning equipment is used to clean the waste glass. The water inlet of the water pipe is connected to an external water supply pipe. The external water source provides water for cleaning. The material to be cleaned is fed into the placement box inside the cleaning tank through the feed hopper for cleaning. The external water source sprays water downward through the water pipe and nozzles to cover and spray water downwards to rinse the material to be cleaned in the placement box.

[0004] However, the aforementioned cleaning devices have a relatively simple structure and poor cleaning effect. When the glass raw materials accumulate to a thick layer, the water flow cannot effectively rinse the bottom layer. In actual operation, to thoroughly clean the glass raw materials, workers need to manually turn over the piled-up materials and increase the water flow. This leads to increased labor intensity, significant water waste, and as working hours accumulate, workers' physical strength declines, reducing the efficiency of turning the glass raw materials and ultimately hindering thorough cleaning. Therefore, there is an urgent need to design a cleaning machine for glass microsphere production raw materials to solve these problems. Utility Model Content

[0005] This utility model provides a cleaning machine for glass microsphere production raw materials that has a reasonable structural design, good cleaning effect, and saves water resources, in order to solve the technical problems existing in the prior art.

[0006] The technical solution adopted by this utility model to solve the technical problems existing in the prior art is as follows: A cleaning machine for raw materials for glass microsphere production includes a mounting bracket with multiple sets of casters fixed to the bottom, a cleaning water tank with a water outlet at the bottom mounted on the mounting bracket, multiple sets of cleaning roller brushes arranged horizontally and distributed circumferentially connected to the inner cavity of the cleaning water tank, and a sprocket transmission structure and a rotary drive structure for driving the multiple sets of cleaning roller brushes to rotate synchronously; a filter screen structure located below the multiple sets of cleaning roller brushes is installed in the inner cavity of the cleaning water tank, and two sets of vibrating devices are installed opposite to each other in the inner cavity of the cleaning water tank for driving the filter screen structure to vibrate up and down; a vibrating shaft is installed between the two sets of vibrating devices to transmit power between them, and a cleaning brush is sleeved on the vibrating shaft for cleaning the filter screen structure, and a vibrating drive component is also included for driving the vibrating shaft to rotate; a water distribution pipe structure is installed at the open top end of the cleaning water tank, and several nozzles are installed on the water distribution pipe structure; a return water pipe and a water pump are installed between the water outlet of the cleaning water tank and the water inlet of the water distribution pipe structure.

[0007] The advantages and positive effects of this utility model are as follows: This utility model provides a cleaning machine for raw materials in the production of glass microspheres. By setting up multiple sets of synchronously rotating cleaning rollers and a water distribution pipe structure to spray clean water onto waste glass, it can wash and clean the broken glass poured into the cleaning water tank. At the same time, it can turn over the accumulated waste glass to avoid incomplete cleaning due to material accumulation, thus improving the cleaning effect of waste glass. By setting up a filter screen structure, the wastewater from cleaning waste glass can be filtered, realizing the wastewater recycling and reuse, saving water resources and conforming to environmental protection awareness. By setting up two sets of vibration devices, a vibration shaft, and a vibration drive, the filter screen structure connected to the two sets of vibration devices can be driven to vibrate up and down, preventing the filter screen structure from being blocked by impurities due to long-term static placement. In addition, by setting up cleaning brushes, the filter screen structure can be cleaned, further preventing the filter screen pores from being blocked due to long-term operation, extending the maintenance cycle of the filter screen structure, avoiding frequent machine shutdowns for cleaning due to filter screen blockage during operation, and improving the working efficiency of the cleaning machine.

[0008] Preferably, it further includes a horizontally arranged discharge auger rotatably connected inside the cleaning water tank, a discharge port corresponding to the discharge auger is opened on the side of the cleaning water tank and a discharge end cover is installed at the discharge port, and a discharge slide corresponding to the discharge port is fixedly connected to the side of the cleaning water tank; it also includes a discharge drive unit installed on the cleaning water tank for driving the discharge auger to rotate.

[0009] Preferably, the vibration device includes a guide mounting frame assembly fixedly connected to the inner wall of the cleaning water tank, an intermediate mounting plate fixedly connected to the inner wall of the cleaning water tank is installed in the middle of the guide mounting frame assembly, a reciprocating moving assembly slidably connected to the intermediate mounting plate is installed on the intermediate mounting plate, and a filter screen structure is installed between two sets of reciprocating moving assemblies arranged opposite each other; it also includes an upper buffer frame slidably connected to the upper part of the guide mounting frame assembly, and multiple sets of upper buffer springs are installed between the upper buffer frame and the guide mounting frame assembly; rolling bearings are installed on both the reciprocating moving assembly and the intermediate mounting plate; it also includes a cam shaft rotatably connected to the cleaning water tank, and a vibration cam that rolls in contact with the two sets of rolling bearings is keyed to the cam shaft; the vibration shaft is coaxially connected to the two sets of cam shafts.

[0010] Preferably, the reciprocating moving assembly includes two sets of reciprocating guide rods slidably connected to an intermediate mounting plate via linear bearings. A guide rod connecting plate is fixedly connected to the lower end of the two sets of reciprocating guide rods to connect them as a whole. A filter mounting frame is provided at the upper end of the two sets of reciprocating guide rods and slidably connected thereto. A roller bearing is installed in the middle of the filter mounting frame. A spring abutment sleeve is screwed onto each reciprocating guide rod. The spring abutment sleeve is located above the intermediate mounting plate. A first spring and a second spring are threaded through each reciprocating guide rod. The second spring and the first spring are located above and below the spring abutment sleeve, respectively.

[0011] Preferably, the guide mounting frame assembly includes an upper mounting plate and a lower mounting plate that are arranged vertically and fixedly connected to the inner wall of the cleaning water tank. Two sets of mounting uprights are fixedly connected between the lower mounting plate and the upper mounting plate, and the upper buffer frame slides through the two sets of mounting uprights.

[0012] Preferably, the sprocket drive structure includes a driven sprocket keyed to the outer end of the rotating shaft of each cleaning roller brush, and a drive chain driven by each driven sprocket. The rotary drive structure is driven by the drive chain.

[0013] Preferably, the rotary drive structure includes a mounting bracket fixed to a mounting bracket, a transversely arranged transmission drive shaft rotatably connected to the mounting bracket, a drive sprocket keyed to the inner end of the transmission drive shaft, the drive sprocket being connected to a sprocket transmission structure, and a cleaning motor mounted on the mounting bracket, with a drive pulley pair installed between the output shaft of the cleaning motor and the end of the transmission drive shaft. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the front sectional view of the present invention;

[0015] Figure 2 This is a side sectional view of the vibration device in this utility model;

[0016] Figure 3This is a three-dimensional structural diagram of the sprocket transmission structure and the rotary drive structure in this utility model.

[0017] In the diagram: 1. Casters; 2. Mounting bracket; 3. Cleaning water tank; 4. Vibration device; 4-1. Lower mounting plate; 4-2. Mounting pole; 4-3. Middle mounting plate; 4-4. Guide rod connecting plate; 4-5. Reciprocating guide rod; 4-6. First spring; 4-7. Spring abutment sleeve; 4-8. Second spring; 4-9. Roll bearing; 4-10. Filter mounting bracket; 4-11. Cam shaft; 4-12. Vibrating cam; 4-13. Upper buffer frame; 4-14. Upper buffer spring; 4-15. Upper mounting plate; 5. 1. Filter screen structure; 6. Cleaning brush; 7. Flat-mouth guide shroud; 8. Vibrating shaft; 9. Cleaning roller brush; 10. Discharge chute; 11. Discharge end cover; 12. Discharge drive component; 13. Water distribution pipe structure; 14. Discharge auger; 15. Return water pipe; 16. Sprocket drive structure; 16-1. Driven sprocket; 16-2. Drive chain; 17. Rotary drive structure; 17-1. Cleaning motor; 17-2. Drive pulley pair; 17-3. Drive shaft; 17-4. Drive sprocket; 18. Vibrating drive component. Detailed Implementation

[0018] To further understand the invention content, features, and effects of this utility model, the following embodiments are provided in detail:

[0019] Please see Figure 1 The glass microsphere production raw material cleaning machine of this utility model includes a mounting bracket 2 with multiple sets of casters 1 fixed to the bottom. A cleaning water tank 3 with a water outlet at the bottom is mounted on the mounting bracket 2. Multiple sets of cleaning roller brushes 9 arranged horizontally and distributed circumferentially are rotatably connected to the inner cavity of the cleaning water tank 3. It also includes a sprocket transmission structure 16 and a rotation drive structure 17 for driving the multiple sets of cleaning roller brushes 9 to rotate synchronously. This embodiment also includes a water distribution pipe structure 13 installed at the open top end of the cleaning water tank 3. Several nozzles are installed on the water distribution pipe structure 13. A return water pipe 15 and a water pump are installed between the water outlet of the cleaning water tank 3 and the water inlet of the water distribution pipe structure 13. In addition, the water inlet of the water pump is also connected to a clean water source through a water pipe.

[0020] The aforementioned water distribution pipe structure 13 includes a main pipe connected to the return water pipe 15. The extension direction of the main pipe is parallel to the axial direction of the cleaning roller brush 9. Several branch pipes are connected to the main pipe. Water outlets are provided on both the main pipe and the branch pipes, and nozzles are installed at the water outlets.

[0021] See further Figure 3In this embodiment, the sprocket drive structure 16 includes a driven sprocket 16-1 keyed to the outer end of the rotating shaft of each cleaning roller brush 9, and a drive chain 16-2 driven by each driven sprocket 16-1. The drive chain 16-2 is closed, and the rotation drive structure 17 is driven by the drive chain 16-2.

[0022] The rotary drive structure 17 includes a mounting bracket fixed to the mounting bracket 2, a transversely arranged transmission drive shaft 17-3 rotatably connected to the mounting bracket, a drive sprocket 17-4 keyed to the inner end of the transmission drive shaft 17-3, the drive sprocket 17-4 being connected to the sprocket drive structure 16, and a cleaning motor 17-1 mounted on the mounting bracket 2. A drive pulley pair 17-2 is installed between the output shaft of the cleaning motor 17-1 and the end of the transmission drive shaft 17-3. The drive pulley pair 17-2 includes a drive pulley keyed to the output shaft of the cleaning motor 17-1, and a driven pulley keyed to the end of the transmission drive shaft 17-3. A drive belt is installed between the drive pulley and the driven pulley.

[0023] By setting up multiple sets of synchronously rotating cleaning roller brushes 9, the broken glass poured into the cleaning water tank 3 can be washed and cleaned. At the same time, the accumulated waste glass is turned over, improving the cleaning effect of the waste glass. In actual operation, the cleaning motor 17-1 starts, which drives the drive pulley pair 17-2 connected to its output shaft to run, thereby driving the transmission drive shaft 17-3 to rotate. The rotating transmission drive shaft 17-3 drives the drive sprocket 17-4 connected to its end key to rotate, thereby driving the transmission chain 16-2 connected to it to run. The running transmission chain 16-2 in a closed state drives the multiple sets of driven sprockets 16-1 connected to it to rotate synchronously, thereby driving the multiple sets of cleaning roller brushes 9 to rotate synchronously. This cleans the material accumulated on the multiple sets of cleaning roller brushes 9. At the same time, the accumulated material can also be turned over to avoid incomplete cleaning caused by the accumulation of material.

[0024] like Figure 1 As shown, a filter screen structure 5 is installed below multiple sets of cleaning roller brushes 9 within the inner cavity of the cleaning water tank 3. It also includes two opposing sets of vibration devices 4 installed within the inner cavity of the cleaning water tank 3 to drive the filter screen structure 5 to vibrate up and down. The filter screen structure 5 includes a filter screen mounting frame installed between the two sets of vibration devices 4, with a window in the middle of the frame, and a filter screen element installed at the window. A vibration shaft 8 is installed between the two sets of vibration devices 4 to connect them. A cleaning brush 6 is fitted onto the vibration shaft 8 for cleaning the filter screen structure 5. It also includes a vibration drive component 18 for driving the vibration shaft 8 to rotate. The vibration drive component 18 is a geared motor.

[0025] In addition, such as Figure 1 As shown, this embodiment also includes a flat-mouthed guide shroud 7 installed inside the cleaning water tank 3. The flat-mouthed guide shroud 7 is located between the filter screen structure 5 and the multiple sets of cleaning roller brushes 9, and is used to guide the cleaning fluid to the filter screen structure 5. The size of the filter screen structure 5 is adapted to the outlet of the flat-mouthed guide shroud 7.

[0026] like Figure 2 As shown, the aforementioned vibration device 4 includes a guide mounting frame assembly fixedly connected to the inner wall of the cleaning water tank 3. A middle mounting plate 4-3 fixedly connected to the inner wall of the cleaning water tank 3 is installed in the middle of the guide mounting frame assembly. A reciprocating moving component is slidably connected to the middle mounting plate 4-3. The reciprocating moving component is slidably connected to the middle mounting plate 4-3 through a linear bearing. The filter screen structure 5 is installed between two sets of reciprocating moving components arranged opposite to each other. The vibration device 4 also includes an upper buffer frame 4-13 slidably connected to the upper part of the guide mounting frame assembly. Multiple sets of upper buffer springs 4-14 are installed between the upper buffer frame 4-13 and the guide mounting frame assembly. Roller bearings 4-9 are installed on both the reciprocating moving component and the middle mounting plate 4-3. The device also includes a cam shaft 4-11 rotatably connected to the cleaning water tank 3. A vibration cam 4-12 that rolls in contact with the two sets of roller bearings 4-9 is keyed to the cam shaft 4-11. The vibration shaft 8 is coaxially connected to the two sets of cam shafts 4-11.

[0027] like Figure 2 As shown, the aforementioned guide mounting bracket assembly includes an upper mounting plate 4-15 and a lower mounting plate 4-1, which are arranged vertically and fixedly connected to the inner wall of the cleaning water tank 3. Two sets of mounting uprights 4-2 are fixedly connected between the lower mounting plate 4-1 and the upper mounting plate 4-15. An upper buffer frame 4-13 is slidably mounted on the two sets of mounting uprights 4-2. Two sets of upper buffer springs 4-14 are provided, and the two sets of upper buffer springs 4-14 are respectively mounted on the upper part of the two sets of mounting uprights 4-2.

[0028] like Figure 2As shown, the reciprocating moving assembly includes two sets of reciprocating guide rods 4-5 slidably connected to the intermediate mounting plate 4-3 via linear bearings. A guide rod connecting plate 4-4 is fixedly connected to the lower end of the two sets of reciprocating guide rods 4-5 to connect them as a whole. A filter mounting frame 4-10 is provided at the upper end of the two sets of reciprocating guide rods 4-5 and slidably connected thereto. The filter screen mounting frame in the filter screen structure 5 is installed between the two sets of filter mounting frames 4-10 arranged opposite to each other. A roller bearing 4-9 is installed in the middle of the filter mounting frame 4-10 and is rotatably connected to the filter mounting frame 4-10 via a spindle. A spring abutment sleeve 4-7 is screwed onto each reciprocating guide rod 4-5. The spring abutment sleeve 4-7 is located above the intermediate mounting plate 4-3. A first spring 4-6 and a second spring 4-8 are threaded through each reciprocating guide rod 4-5. The second spring 4-8 and the first spring 4-6 are located above and below the spring abutment sleeve 4-7, respectively.

[0029] By setting up the filter structure 5, the wastewater from cleaning waste glass can be filtered, enabling wastewater recycling and reuse, saving water resources and conforming to environmental awareness. By setting up two sets of vibration devices 4, vibration shaft 8, and vibration drive 18, the filter structure 5 connected to the two sets of vibration devices 4 can be driven to vibrate up and down, preventing the filter structure 5 from being clogged by impurities due to long-term static placement. In addition, by setting up the cleaning brush 6, the filter structure 5 can be cleaned, further preventing the filter holes on the filter structure 5 from becoming clogged due to long-term operation, extending the maintenance cycle of the filter structure 5, and avoiding frequent machine shutdowns for cleaning operations due to clogging of the filter structure 5 during operation.

[0030] like Figure 1 As shown, this embodiment also includes a horizontally arranged discharge auger 14 rotatably connected inside the cleaning water tank 3. A discharge port corresponding to the discharge auger 14 is provided on the side of the cleaning water tank 3, and a discharge end cap 11 is installed at the discharge port. A discharge slide 10 corresponding to the discharge port is fixedly connected to the side of the cleaning water tank 3. It also includes a discharge drive component 12 installed on the cleaning water tank 3 for driving the discharge auger 14 to rotate.

[0031] By setting up the discharge auger 14 and the discharge drive unit 12, after the waste glass cleaning operation is completed, the waste glass accumulated on multiple sets of cleaning roller brushes 9 can be automatically pushed toward the discharge port opened on the cleaning water tank 3, thereby realizing the unloading operation after cleaning. There is no need for the staff to manually perform the discharge operation, which reduces the labor intensity of the staff.

[0032] Work process:

[0033] Large pieces of broken glass to be cleaned are poured into the cleaning water tank 3, and clean water is injected into the water distribution pipe structure 13. Clean water is sprayed into the cleaning water tank 3 through nozzles installed on the water distribution pipe structure 13. At the same time, the cleaning motor 17-1 in the rotary drive structure 17 is started, driving multiple sets of cleaning roller brushes 9 to rotate synchronously, thereby cleaning and turning over the broken glass. Combined with the cleaning liquid sprayed by the nozzles, the waste glass can be cleaned effectively. Meanwhile, during the cleaning process, the filter screen structure 5 can filter the waste water, and the filtered liquid can be reused in the waste glass cleaning process, thereby realizing the recycling and reuse of cleaning wastewater, avoiding the waste of water resources, and conforming to environmental protection awareness.

[0034] Meanwhile, during the cleaning operation, the vibration drive 18 is activated, causing the vibration cam 4-12 in the vibration device 4 to rotate, which in turn causes the reciprocating moving component in the vibration device 4 to move up and down, thereby achieving the purpose of moving the filter screen structure 5 up and down. This avoids the filter screen structure 5 from being statically filtered for a long time, which would cause the filter screen holes to become clogged. At the same time, the vibration drive 18 can drive the vibration shaft 8 to rotate, which in turn drives the cleaning brush 6 installed on it to rotate, thereby achieving the purpose of cleaning the filter screen structure 5. This further avoids the filter screen holes of the filter screen structure 5 becoming clogged, extends the maintenance cycle of the filter screen structure 5, and avoids frequent shutdowns to clean the filter screen structure 5.

Claims

1. A cleaning machine for a glass microsphere production raw material, characterized by: The utility model provides a kind of cleaning device, including the mounting bracket (2) of multiple groups of casters (1) with bottom fixed connection, cleaning water tank (3) with bottom is provided with water outlet is installed on mounting bracket (2), multiple groups of cleaning roller brush (9) are rotatably connected in the inner chamber of cleaning water tank (3) and are transversely arranged and are distributed according to the circumference, further include the sprocket transmission structure (16) and rotary drive structure (17) for driving multiple groups of cleaning roller brush (9) synchronous rotation;Filter screen structure (5) is installed in the inner chamber of cleaning water tank (3) and is located below multiple groups of cleaning roller brush (9), further include the vibration device (4) of relatively arranged two groups installed in the inner chamber of cleaning water tank (3), for driving filter screen structure (5) up and down vibration;Vibration shaft (8) is installed between two groups of vibration device (4) and is transmission connected to both sides, cleaning brush (6) is sleeved on vibration shaft (8), for cleaning filter screen structure (5), further include vibration drive part (18) for driving vibration shaft (8) rotation;Further include water distribution pipe structure (13) installed in the top open end of cleaning water tank (3), a plurality of nozzles are installed on water distribution pipe structure (13);Water return pipe (15) and water pump are installed between the water outlet of cleaning water tank (3) and the water inlet of water distribution pipe structure (13).

2. The cleaning machine for a glass microbead production raw material according to claim 1, wherein: Further include the crosswise arranged discharging auger (14) rotatably connected in cleaning water tank (3), discharging port is opened in the side of cleaning water tank (3) and corresponds with discharging auger (14) and discharging end cover (11) is installed at discharging port, discharging chute (10) is fixedly connected with discharging port on the side of cleaning water tank (3);Further include discharging drive part (12) installed on cleaning water tank (3), for driving discharging auger (14) rotation.

3. The cleaning machine for a glass microbead production raw material according to claim 1, wherein: the cleaning machine is characterized by comprising a plurality of the cleaning units. Vibration device (4) includes guide mounting bracket assembly fixedly connected with the inner wall of cleaning water tank (3), intermediate mounting plate (4-3) is installed in the middle of guide mounting bracket assembly and is fixedly connected with the inner wall of cleaning water tank (3), reciprocating movement assembly is slidably connected with intermediate mounting plate (4-3) on the upper surface of intermediate mounting plate (4-3), filter screen structure (5) is installed between two groups of reciprocating movement assembly;Further include upper buffer frame (4-13) slidably connected with the upper surface of guide mounting bracket assembly, a plurality of upper buffer springs (4-14) are installed between upper buffer frame (4-13) and guide mounting bracket assembly;Rolling bearing (4-9) is installed on reciprocating movement assembly and intermediate mounting plate (4-3), further include cam shaft (4-11) rotatably connected with cleaning water tank (3), vibration cam (4-12) is rollingly contacted with two groups of rolling bearings (4-9) and is keyed connected with cam shaft (4-11) on cam shaft (4-11);Vibration shaft (8) is coaxially connected with two groups of cam shaft (4-11).

4. The cleaning machine for raw materials in glass microsphere production as described in claim 3, characterized in that: reciprocating... The moving assembly comprises two groups of reciprocating guide rods (4-5) slidably connected with the middle mounting plate (4-3) through linear bearings, a guide rod connecting plate (4-4) fixedly connected with the lower ends of the two groups of reciprocating guide rods (4-5) to connect the two groups of reciprocating guide rods (4-5) into one body, a filter mounting rack (4-10) slidably connected with the upper ends of the two groups of reciprocating guide rods (4-5), a roll joint bearing (4-9) mounted in the middle of the filter mounting rack (4-10), a spring abutting sleeve (4-7) screwed on each reciprocating guide rod (4-5), the spring abutting sleeve (4-7) being located above the middle mounting plate (4-3), a first spring (4-6) and a second spring (4-8) penetrating each reciprocating guide rod (4-5), the second spring (4-8) and the first spring (4-6) being located above and below the spring abutting sleeve (4-7) respectively.

5. The cleaning machine for raw materials in glass microsphere production as described in claim 3, characterized in that: The guide mounting rack assembly comprises an upper mounting plate (4-15) and a lower mounting plate (4-1) fixedly connected with the inner wall of the cleaning water tank (3) and distributed in an up-down manner, two groups of mounting vertical rods (4-2) fixedly connected between the lower mounting plate (4-1) and the upper mounting plate (4-15), and an upper buffer rack (4-13) slidably penetrating the two groups of mounting vertical rods (4-2).

6. The cleaning machine for a glass microbead production raw material according to claim 1, wherein: The chain wheel transmission structure (16) comprises driven chain wheels (16-1) keyed connected with the outer ends of the rotating shafts of the cleaning roller brushes (9), transmission chains (16-2) in transmission connection with the driven chain wheels (16-1), and a rotary driving structure (17) in transmission connection with the transmission chains (16-2).

7. The cleaning machine for a glass microbead production raw material according to claim 1, wherein: the cleaning machine is characterized by comprising a plurality of the cleaning units. The rotary driving structure (17) comprises a mounting rack fixedly connected with the mounting support (2), a transmission driving shaft (17-3) transversely rotatably connected with the mounting rack, a driving chain wheel (17-4) keyed connected with the inner end of the transmission driving shaft (17-3), the driving chain wheel (17-4) being in transmission connection with the chain wheel transmission structure (16), a cleaning motor (17-1) mounted on the mounting support (2), and a driving pulley pair (17-2) mounted between the output shaft of the cleaning motor (17-1) and the end of the transmission driving shaft (17-3).

Images