Ex-warehouse flow adjusting device for homogenizing warehouse system in glass industry
By installing a roller-type electronic belt scale and laser speed measuring sensor on the belt machine, combined with a vacuum cleaner component, the problems of inaccurate flow monitoring and dust pollution during the silicon sand transportation process are solved, the reasonable distribution of equipment load and production stability are achieved, and production efficiency and environmental protection are improved.
Patent Information
- Application Number
- CN202510902957.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-07-01
- Publication Date
- 2025-08-19
AI Technical Summary
The prior art is difficult to accurately monitor the instantaneous flow rate and cumulative conveying volume during the silicon sand transportation process, resulting in unbalanced load of the equipment, affecting production efficiency and equipment service life. At the same time, the dust generated during the silicon sand transportation process pollutes the environment and health.
Install a roller-type electronic belt scale and laser speed measuring sensor on the belt machine, and combine it with the vacuum cleaner to realize dynamic monitoring of silicon sand flow and effective collection of dust. The flow rate is synchronously monitored and data summary is performed through multiple roller-type electronic belt scales and belt scale aggregators, and the load is allocated reasonably, and the driving equipment is set to adjust the position of the vacuum cleaner to improve the vacuum cleaner effect.
Accurate monitoring of silicon sand flow and reasonable distribution of loads are achieved, avoiding overload operation of equipment, improving production continuity and stability, reducing equipment failure risks, reducing environmental pollution, and improving production efficiency and product quality.
Smart Images
Figure CN120504117A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the field of homogenization storage systems, and in particular to an outflow regulating device for a homogenization storage system in the glass industry. Background Art
[0002] The homogenization tank is an important component of the raw material system of the photovoltaic rolled glass production line. Silica sand homogenization usually needs to be carried out in the homogenization tank. The purpose of silica sand homogenization is to stabilize the composition, particle size, and moisture content of the silica sand and reduce the impact of raw material fluctuations on production. In the actual production process, in order to ensure a stable supply of silica sand, it is normal to purchase silica sand from multiple manufacturers at the same time. Companies usually store silica sand batches from different manufacturers in corresponding areas of the homogenization tank. When silica sand from a specific manufacturer's batch is needed, a sand rake is used to continuously rake the silica sand from the silica sand pile in the corresponding area onto a belt conveyor. In order to improve the transportation efficiency of silica sand and reduce the impact of single equipment failure on production, some companies will divide the homogenization tank into zones and install sand rakes and belt conveyors in the corresponding areas, and choose to operate them simultaneously or partially according to production needs.
[0003] During the process of silica sand being shipped out of the warehouse, it is necessary to control the load and conveying volume of the belt. Currently, it is common to monitor the current of the belt drive motor. However, the specifications and models of belt drive motors are limited and difficult to customize. Generally, they can only be selected from existing specifications and models based on actual production conditions. Within the working range of the selected belt drive motor, the current and the conveying volume of the belt are not strictly linearly related, and affected by the running state of the belt, the instantaneous flow rate and cumulative conveying volume of silica sand on the belt cannot be accurately monitored. This makes it difficult to accurately adjust the production rhythm according to real-time flow data in actual production, and equipment load imbalance may occur, affecting production efficiency and equipment service life, and may even cause production interruption due to improper flow control. At the same time, when conveying silica sand, the belt conveyor will generate a large amount of dust, and the floating and spreading of dust will pollute the surrounding environment, thereby adversely affecting the health of surrounding workers. Therefore, this application proposes a discharge flow regulating device for a homogenization warehouse system in the glass industry to solve the above problems. Summary of the Invention
[0004] The main purpose of the present invention is to provide a flow rate regulating device for a homogenizing storage system in the glass industry, which can effectively solve the problems in the background technology.
[0005] To achieve the above object, the technical solution adopted by the present invention is: A glass industry homogenization storage system outbound flow regulating device includes No. 3 belt conveyor, No. 4 belt conveyor, and No. 5 belt conveyor, wherein No. 5 belt conveyor is connected to No. 3 belt conveyor and No. 4 belt conveyor, and No. 3 belt conveyor, No. 4 belt conveyor, and No. 5 belt conveyor are respectively fixedly installed with a first roller type electronic belt scale, a second roller type electronic belt scale, and a third roller type electronic belt scale, and the first roller type electronic belt scale, the second roller type electronic belt scale, and the third roller type electronic belt scale are respectively fixedly installed with a laser speed sensor, and the laser speed sensor is located on one side of No. 3 belt conveyor, No. 4 belt conveyor, and No. 5 belt conveyor, and No. 3 belt conveyor, No. 4 belt conveyor, and No. 5 belt conveyor are each fixedly installed with a mounting The bracket is provided with a driving device, and a dust collection assembly is provided on the mounting bracket and the driving device. The dust collection assembly consists of a connecting shell, a bellows, an internal threaded cylinder, a connecting plate, a square tube, a support plate, a sleeve, a shell and a protective net. There are two connecting plates and they are symmetrically fixed on the outer wall of the internal threaded cylinder. There are two square tubes and they are respectively fixed on the outer ends of the two connecting plates. The support plate is fixedly installed on the outer wall of the internal threaded cylinder. The sleeve is fixedly installed on the upper side of the inner end of the support plate. The shell is fixedly inserted in the sleeve. The protective net is fixedly installed on the lower inner wall of the shell. The connecting shell is fixedly inserted on the upper side wall of the connecting shell, and the bellows is fixedly sleeved on the connecting shell.
[0006] Preferably, the No. 3 belt conveyor is connected to a first sand rake, the No. 4 belt conveyor is connected to a second sand rake, and the No. 3, No. 4 and No. 5 belt conveyors are respectively equipped with a first belt scale integrator, a second belt scale integrator and a third belt scale integrator.
[0007] Preferably, the No. 3 belt conveyor, the No. 4 belt conveyor and the No. 5 belt conveyor are all composed of a main body support, a driving roller, a roller assembly and a conveyor belt. There are two driving rollers and both are installed on the main body support. There are multiple roller assemblies and both are fixedly installed on the upper end of the main body support. The roller assembly is located between the two driving rollers at the same time, and the conveyor belt is installed on the driving roller and the roller assembly.
[0008] Preferably, the first roller type electronic belt scale, the second roller type electronic belt scale and the third roller type electronic belt scale are all fixedly mounted on the main body bracket, and the first roller type electronic belt scale, the second roller type electronic belt scale and the third roller type electronic belt scale are simultaneously located between two adjacent roller assemblies. The first roller type electronic belt scale, the second roller type electronic belt scale and the third roller type electronic belt scale are all composed of a bottom bracket, a roller bracket, a weighing roller, a weighing sensor and a support beam. The bottom bracket is fixedly mounted on the main body bracket, the roller bracket has two and is symmetrically fixedly mounted on the upper end of the bottom bracket, the weighing roller is rotatably mounted on the roller bracket, the weighing sensor and the support beam are also fixedly mounted on the bottom bracket, and the weighing sensor and the support beam are simultaneously located between the two roller brackets.
[0009] Preferably, the laser speed sensor is fixedly mounted on the upper end of the sensor bracket, and the sensor bracket is fixedly mounted on the upper end of the bottom bracket.
[0010] Preferably, the mounting bracket is composed of a connecting frame and a square rod, two of the square rod and two of the connecting frame are provided, and the two connecting frames are fixedly mounted on the two ends of the two square rods respectively, and the connecting frames are also fixedly mounted on the main bracket.
[0011] Preferably, the driving device consists of a servo motor and a screw rod, the screw rod is rotatably mounted on two connecting frames, and the screw rod is simultaneously located between two square rods, the output shaft of the servo motor is fixedly connected to the screw rod, and the servo motor is fixedly mounted on the outer end of one of the connecting frames.
[0012] Preferably, the internal threaded barrel on the dust collection assembly is installed on the screw rod, the square tube is slidably installed on the square rod, the shell is located above the conveyor belt, and the bellows is connected to the dust collection equipment.
[0013] Compared with the prior art, the present invention has the following beneficial effects: (1) By installing a roller-type electronic belt scale on the belt conveyor and a laser speed sensor on one side of the belt conveyor, the material mass per unit length on the belt and the belt running speed can be accurately measured, and then the instantaneous flow rate and cumulative conveying volume of the material can be accurately calculated. The device can dynamically monitor the flow rate of silica sand discharged from the homogenization storage system of the glass industry, reasonably distribute and adjust the load on different belts, meet normal production needs while ensuring that the equipment load is within the rated range. In addition, by installing multiple roller-type electronic belt scales and belt scale integrators, the synchronous monitoring and data aggregation of the flow rates of multiple belts are realized, providing an accurate and reliable basis for operators to adjust the raking rate of the sand rake, effectively avoiding the problem of equipment overload operation caused by inaccurate flow monitoring, improving the continuity and stability of production, reducing the risk of equipment failure, and also helping to optimize the production process, improve production efficiency and product quality; (2) By arranging a mounting bracket on the belt conveyor, arranging a driving device on the mounting bracket, and arranging a dust collection component on the mounting bracket and the driving device, and connecting the dust collection component to an external dust collection device, the dust generated during the conveying of silica sand by the belt conveyor can be effectively collected, thereby reducing pollution to the surrounding environment and benefiting the health of surrounding personnel; at the same time, the driving device can drive the dust collection component to adjust its relative position with the belt conveyor, so that the dust collection component can be closer to the dust source, thereby improving the use effect of the dust collection component. BRIEF DESCRIPTION OF THE DRAWINGS
[0014] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic structural diagram of the positional relationship between the belt conveyor, the roller-type electronic belt scale, the mounting bracket, the driving device, the laser speed sensor, and the dust collection assembly of the present invention; Figure 3 This is a schematic structural diagram of the positional relationship between the roller-type electronic belt scale and the laser speed sensor of the present invention; Figure 4 This is a schematic diagram of the positional relationship between the mounting bracket and the driving device of the present invention; Figure 5 It is a structural schematic diagram of the dust collection assembly of the present invention; Figure 6 It is a schematic structural diagram of the data analysis and processing logic flow chart of the present invention.
[0015] Figure: 1. First sand rake; 2. Second sand rake; 3. Conveyor No. 3; 4. Conveyor No. 4; 5. Conveyor No. 5; 6. First roller-type electronic belt scale; 7. Second roller-type electronic belt scale; 8. Third roller-type electronic belt scale; 9. First belt scale integrator; 10. Second belt scale integrator; 11. Third belt scale integrator; 12. Main frame; 13. Drive roller; 14. Roller assembly; 15. Conveyor belt; 16. Connecting shell; 17. Corrugated Tube; 18. Mounting bracket; 19. Drive device; 20. Dust collection assembly; 21. Bottom bracket; 22. Roller bracket; 23. Weighing roller; 24. Weighing sensor; 25. Support beam; 26. Sensor bracket; 27. Laser speed sensor; 28. Connecting frame; 29. Square rod; 30. Servo motor; 31. Screw; 32. Internal threaded barrel; 33. Connecting plate; 34. Square tube; 35. Support plate; 36. Casing; 37. Shell; 38. Protective net. DETAILED DESCRIPTION
[0016] In order to make the technical means, creative features, objectives and effects achieved by the present invention easier to understand, the present invention is further described below in conjunction with specific implementation methods.
[0017] Example 1:
[0018] See also Figures 1-6As shown, a flow regulating device for an outbound flow of a homogenizing storage system in a glass industry comprises a No. 3 belt conveyor 3, a No. 4 belt conveyor 4, and a No. 5 belt conveyor 5. The No. 5 belt conveyor 5 is connected to the No. 3 belt conveyor 3 and the No. 4 belt conveyor 4. The No. 3 belt conveyor 3, the No. 4 belt conveyor 4, and the No. 5 belt conveyor 5 are respectively fixedly installed with a first roller type electronic belt scale 6, a second roller type electronic belt scale 7, and a third roller type electronic belt scale 8. The first roller type electronic belt scale 6, the second roller type electronic belt scale 7, and the third roller type electronic belt scale 8 are respectively fixedly installed with a laser speed sensor 27, and the laser speed sensor 27 is located on one side of the No. 3 belt conveyor 3, the No. 4 belt conveyor 4, and the No. 5 belt conveyor 5. The belt conveyor 5 is fixedly installed with a mounting bracket 18, a driving device 19 is installed on the mounting bracket 18, and a dust collection assembly 20 is installed on the mounting bracket 18 and the driving device 19. The dust collection assembly 20 consists of a connecting shell 16, a bellows 17, an internal threaded cylinder 32, a connecting plate 33, a square tube 34, a support plate 35, a sleeve 36, a shell 37 and a protective net 38. There are two connecting plates 33 and they are symmetrically fixed on the outer wall of the internal threaded cylinder 32. There are two square tubes 34 and they are respectively fixed on the outer ends of the two connecting plates 33. The support plate 35 is fixedly installed on the outer wall of the internal threaded cylinder 32. The sleeve 36 is fixedly installed on the upper side of the inner end of the support plate 35. The shell 37 is fixedly inserted in the sleeve 36. The protective net 38 8 is fixedly installed on the lower inner wall of the shell 37, the connecting shell 16 is fixedly inserted on the upper side wall of the connecting shell 16, and the bellows 17 is fixedly sleeved on the connecting shell 16. By arranging the first roller type electronic belt scale 6, the second roller type electronic belt scale 7, and the third roller type electronic belt scale 8 on the No. 3 belt conveyor 3, the No. 4 belt conveyor 4, and the No. 5 belt conveyor 5, and arranging the laser speed sensor 27 on one side of the No. 3 belt conveyor 3, the No. 4 belt conveyor 4, and the No. 5 belt conveyor 5, the material mass per unit length on the belt and the belt running speed can be accurately measured, and then the instantaneous flow rate and cumulative conveying volume of the material can be accurately calculated. The device can dynamically monitor the silica sand flow rate out of the homogenization storage system in the glass industry, and reasonably allocate and adjust the The load on the same belt meets normal production needs while ensuring that the equipment load is within the rated range. In addition, by setting the first roller type electronic belt scale 6, the second roller type electronic belt scale 7, the third roller type electronic belt scale 8 and the first belt scale integrator 9, the second belt scale integrator 10, and the third belt scale integrator 11, synchronous monitoring and data aggregation of the flow rates of multiple belts are achieved, which provides an accurate and reliable basis for the operator to adjust the raking rate of the first sand rake 1 and the second sand rake 2, effectively avoiding the problem of equipment overload operation caused by inaccurate flow monitoring, improving the continuity and stability of production, reducing the risk of equipment failure, and also helping to optimize the production process, improve production efficiency and product quality.
[0019] Specifically, the No. 3 belt conveyor 3 is connected to the first rake sand machine 1, the No. 4 belt conveyor 4 is connected to the second rake sand machine 2, the No. 3 belt conveyor 3, the No. 4 belt conveyor 4, and the No. 5 belt conveyor 5 are respectively equipped with a first belt scale integrator 9, a second belt scale integrator 10, and a third belt scale integrator 11. The No. 3 belt conveyor 3, the No. 4 belt conveyor 4, and the No. 5 belt conveyor 5 are composed of a main frame 12, a driving roller 13, a roller assembly 14 and a conveyor belt 15. There are two driving rollers 13 and they are all installed on the main frame 12. There are multiple roller assemblies 14 and they are all fixedly installed on the upper end of the main frame 12. The roller assembly 14 is located between the two driving rollers 13 at the same time. The conveyor belt 15 is installed on the driving rollers 13, On the roller assembly 14, the first roller type electronic belt scale 6, the second roller type electronic belt scale 7, and the third roller type electronic belt scale 8 are all fixedly mounted on the main support 12, and the first roller type electronic belt scale 6, the second roller type electronic belt scale 7, and the third roller type electronic belt scale 8 are simultaneously located between two adjacent roller assemblies 14. The first roller type electronic belt scale 6, the second roller type electronic belt scale 7, and the third roller type electronic belt scale 8 are all composed of a bottom bracket 21, a roller bracket 22, a weighing roller 23, a weighing sensor 24, and a support beam 25. The bottom bracket 21 is fixedly mounted on the main support 12, and there are two roller brackets 22 that are symmetrically fixedly mounted on the upper end of the bottom bracket 21. The heavy roller 23 is rotatably mounted on the roller bracket 22, the weighing sensor 24 and the support beam 25 are also fixedly mounted on the bottom bracket 21, and the weighing sensor 24 and the support beam 25 are simultaneously located between the two roller brackets 22, the laser speed sensor 27 is fixedly mounted on the upper end of the sensor bracket 26, and the sensor bracket 26 is fixedly mounted on the upper end of the bottom bracket 21. The first rake 1 continuously rakes the silica sand from the silica sand area A onto the No. 3 belt conveyor 3, the second rake 2 continuously rakes the silica sand from the silica sand area B onto the No. 4 belt conveyor 4, the silica sand on the No. 3 belt conveyor 3 and the No. 4 belt conveyor 4 is collected on the No. 5 belt conveyor 5 and transported to the corresponding silica sand silo; the first roller type electronic belt scale 6 is installed on the No. 3 belt conveyor On the belt conveyor 3, the relative pressure generated by the material is transmitted to the weighing sensor 24 through the weighing roller 23 under the scale frame, and the load value per unit length on the No. 3 belt conveyor 3 is measured. The laser speed sensor 27 above it detects the material running speed. The two signals are processed by the first belt scale integrator 9 to obtain the instantaneous flow and cumulative amount of the No. 3 belt conveyor 3; similarly, the second roller-type electronic belt scale 7 and the second belt scale integrator 10 monitor and process the flow data of the No. 4 belt conveyor 4, and the third roller-type electronic belt scale 8 and the third belt scale integrator 11 monitor and process the flow data of the No. 5 belt conveyor 5. The monitoring data are summarized in the control room, and prompts are output according to the flow judgment logic. The operator adjusts the raking rate of the sand rake accordingly.
[0020] Furthermore, when a belt conveyor is running, the instantaneous material flow rate q(t) is equal to the product of the mass of material per unit length of the belt, p(t), and the belt's linear velocity, V(t): q(t) = p(t)·V(t). The total amount of material passing through the belt conveyor over a period of time, Q(T), is equal to the integral of the instantaneous flow rate q(t) over that period: Q(T) = ∫q(t)·dt.
[0021] The data obtained by monitoring is processed by the first belt scale integrator 9, the second belt scale integrator 10, and the third belt scale integrator 11, and then collected in the sand rake control room. The data is analyzed and processed according to the following logic flow chart: q(5) is the instantaneous flow rate of belt conveyor 5 No. 5, a is the maximum flow rate set for belt conveyor 5 No. 5, q(3) is the instantaneous flow rate of belt conveyor 3 No. 3, b is the maximum flow rate set for belt conveyor 3 No. 3, q(4) is the instantaneous flow rate of belt conveyor 4 No. 4, and c is the maximum flow rate set for belt conveyor 4 No. 4. The belt scale integrator continuously collects data and transmits it to the sand rake control room, makes flow judgments according to the flow chart, and outputs relevant alarm prompts or normal operation prompts. The operator can adjust the rake rate of the first sand rake 1 and the second sand rake 2 according to the alarm prompts to meet normal production needs while ensuring that the loads of belt conveyor 3 No. 3, belt conveyor 4 No. 4, and belt conveyor 5 No. 5 are all within the rated range, avoiding equipment overload operation and ensuring the continuity and stability of production.
[0022] Example 2:
[0023] See also Figure 1-Figure 5As shown, the mounting bracket 18 is composed of a connecting bracket 28 and a square rod 29, two of each of the square rod 29 and the connecting bracket 28 are provided, and the two connecting brackets 28 are fixedly mounted on the two ends of the two square rods 29, and the connecting bracket 28 is fixedly mounted on the main bracket 12 at the same time, and the driving device 19 is composed of a servo motor 30 and a screw rod 31, the screw rod 31 is rotatably mounted on the two connecting brackets 28, and the screw rod 31 is simultaneously located between the two square rods 29, the output shaft of the servo motor 30 is fixedly connected to the screw rod 31, and the servo motor 30 is fixedly mounted on the outer end of one of the connecting brackets 28, the internal threaded cylinder 32 on the dust collection assembly 20 is mounted on the screw rod 31, the square tube 34 is slidably mounted on the square rod 29, the shell 37 is located above the conveyor belt 15, and the bellows 17 is connected to the dust collection device, by arranging the mounting bracket 18 on the No. 3 belt conveyor 3, the No. 4 belt conveyor 4, and the No. 5 belt conveyor 5, arranging the driving device 19 on the mounting bracket 18, and A dust collection assembly 20 is provided on the equipment 19, and the bellows 17 in the dust collection assembly 20 is connected to an external dust collection device, which can effectively collect dust generated during the conveying of silica sand by the belt conveyor, thereby reducing pollution to the surrounding environment and benefiting the health of people around. At the same time, the servo motor 30 and the screw rod 31 in the driving device 19 can drive the dust collection assembly 20 to adjust its relative position with the belt conveyor, so that the shell 37 in the dust collection assembly 20 can be closer to the dust source, thereby improving the use effect of the dust collection assembly 20. During operation, the servo motor 30 drives the screw rod 31 to rotate, driving the internal threaded cylinder 32 to move along the screw rod 31, and the square tube 34 slides on the square rod 29, so that the shell 37 is adjusted to a position close to the dust source of the conveyor belt 15. The dust collection equipment forms a negative pressure in the shell 37 through the bellows 17 and the connecting shell 16. The dust generated during the conveying of silica sand is filtered by the protective net 38 and then sucked into the shell 37 and discharged through the bellows 17, thereby achieving dust removal.
[0024] Obviously, the above embodiments are merely examples for clarity of explanation and are not intended to limit the implementation methods. Those skilled in the art will appreciate that other variations or modifications can be made based on the above description. It is not necessary and impossible to enumerate all implementation methods here. Obvious variations or modifications derived therefrom remain within the scope of protection of the present invention.
Claims
1. A flow rate regulating device for a homogenizing storage system in the glass industry, comprising a No. 3 belt conveyor (3), a No. 4 belt conveyor (4), and a No. 5 belt conveyor (5), wherein the No. 5 belt conveyor (5) is connected to the No. 3 belt conveyor (3) and the No. 4 belt conveyor (4), and characterized in that: The No. 3 belt conveyor (3), the No. 4 belt conveyor (4), and the No. 5 belt conveyor (5) are respectively fixedly mounted with a first roller type electronic belt scale (6), a second roller type electronic belt scale (7), and a third roller type electronic belt scale (8); the first roller type electronic belt scale (6), the second roller type electronic belt scale (7), and the third roller type electronic belt scale (8) are respectively fixedly mounted with a laser speed sensor (27), and the laser speed sensor (27) is located on one side of the No. 3 belt conveyor (3), the No. 4 belt conveyor (4), and the No. 5 belt conveyor (5); the No. 3 belt conveyor (3), the No. 4 belt conveyor (4), and the No. 5 belt conveyor (5) are all fixedly mounted with a mounting bracket (18); a driving device (19) is mounted on the mounting bracket (18); a dust collecting component (20) is mounted on the mounting bracket (18) and the driving device (19); the dust collecting component (20) is fixedly mounted on the mounting bracket (18) and the driving device (19); The assembly (20) consists of a connecting shell (16), a bellows (17), an internally threaded barrel (32), a connecting plate (33), a square tube (34), a support plate (35), a sleeve (36), a shell (37) and a protective net (38), wherein the connecting plates (33) are provided in two pieces and are symmetrically fixedly mounted on the outer wall of the internally threaded barrel (32), the square tubes (34) are provided in two pieces and are respectively fixedly mounted on the outer ends of the two connecting plates (33), the support plate (35) is fixedly mounted on the outer wall of the internally threaded barrel (32), the sleeve (36) is fixedly mounted on the upper side of the inner end of the support plate (35), the shell (37) is fixedly inserted in the sleeve (36), the protective net (38) is fixedly mounted on the lower inner wall of the shell (37), the connecting shell (16) is fixedly inserted on the upper side wall of the connecting shell (16), and the bellows (17) is fixedly sleeved on the connecting shell (16).
2. The outflow regulating device for a homogenizing storage system in the glass industry according to claim 1, characterized in that: The No. 3 belt conveyor (3) is connected to a first sand rake (1), the No. 4 belt conveyor (4) is connected to a second sand rake (2), and the No. 3 belt conveyor (3), the No. 4 belt conveyor (4), and the No. 5 belt conveyor (5) are respectively equipped with a first belt scale integrator (9), a second belt scale integrator (10), and a third belt scale integrator (11).
3. The outflow regulating device for a homogenizing storage system in the glass industry according to claim 2, characterized in that: The No. 3 belt conveyor (3), the No. 4 belt conveyor (4), and the No. 5 belt conveyor (5) are all composed of a main frame (12), a driving roller (13), a roller assembly (14), and a conveying belt (15). There are two driving rollers (13) and both are installed on the main frame (12). There are multiple roller assemblies (14) and both are fixedly installed on the upper end of the main frame (12). The roller assembly (14) is located between the two driving rollers (13) at the same time. The conveying belt (15) is installed on the driving roller (13) and the roller assembly (14).
4. The outflow regulating device for a homogenizing storage system in the glass industry according to claim 3, characterized in that: The first roller type electronic belt scale (6), the second roller type electronic belt scale (7), and the third roller type electronic belt scale (8) are all fixedly mounted on the main support (12), and the first roller type electronic belt scale (6), the second roller type electronic belt scale (7), and the third roller type electronic belt scale (8) are simultaneously located between two adjacent roller assemblies (14), and the first roller type electronic belt scale (6), the second roller type electronic belt scale (7), and the third roller type electronic belt scale (8) are all supported by the bottom support (21), the roller support (22), and the bottom support (21). , a weighing roller (23), a weighing sensor (24) and a support beam (25), the bottom bracket (21) is fixedly mounted on the main bracket (12), the roller bracket (22) has two and is symmetrically fixedly mounted on the upper end of the bottom bracket (21), the weighing roller (23) is rotatably mounted on the roller bracket (22), the weighing sensor (24) and the support beam (25) are also fixedly mounted on the bottom bracket (21), and the weighing sensor (24) and the support beam (25) are simultaneously located between the two roller brackets (22).
5. The outflow regulating device for a homogenizing storage system in the glass industry according to claim 4, characterized in that: The laser speed sensor (27) is fixedly mounted on the upper end of the sensor bracket (26), and the sensor bracket (26) is fixedly mounted on the upper end of the bottom bracket (21).
6. The outflow regulating device for a homogenizing storage system in the glass industry according to claim 5, characterized in that: The mounting bracket (18) is composed of a connecting frame (28) and a square rod (29). Two of the square rod (29) and the connecting frame (28) are provided, and the two connecting frames (28) are fixedly mounted on the two ends of the two square rods (29), respectively. The connecting frame (28) is also fixedly mounted on the main bracket (12).
7. The outflow regulating device for a homogenizing storage system in the glass industry according to claim 6, characterized in that: The driving device (19) is composed of a servo motor (30) and a screw rod (31), wherein the screw rod (31) is rotatably mounted on two connecting frames (28), and the screw rod (31) is simultaneously located between two square rods (29), and the output shaft of the servo motor (30) is fixedly connected to the screw rod (31), and the servo motor (30) is fixedly mounted on the outer end of one of the connecting frames (28).
8. The outflow regulating device for a homogenizing storage system in the glass industry according to claim 7, characterized in that: The internal threaded barrel (32) on the dust collection assembly (20) is mounted on the screw rod (31), the square tube (34) is slidably mounted on the square rod (29), the housing (37) is located above the conveyor belt (15), and the bellows (17) is connected to the dust collection device.