Glass edging sewage treatment integrated equipment
By designing an integrated wastewater treatment equipment for glass edging, the system utilizes a flocculation and caking unit to break up the caking at the bottom of the tank and combines it with a flocculant addition module to precisely add flocculants. This solves the problem of reduced flocculation effect caused by caking in glass edging wastewater, thereby improving wastewater treatment efficiency and the level of equipment intelligence.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- GUANGDONG HONGYUAN ELECTRONIC GLASS CO LTD
- Filing Date
- 2026-01-22
- Publication Date
- 2026-05-01
- Estimated Expiration
- Not applicable · inactive patent
AI Technical Summary
In wastewater from glass edging, some glass powder settles and forms clumps at the bottom of the tank, reducing the flocculation effect and affecting wastewater treatment efficiency.
An integrated wastewater treatment device for glass edging was designed, comprising a flocculation and flocculation unit and a flocculant addition module. The flocculation and flocculation unit breaks up the slab layer at the bottom of the tank, and the flocculant addition module precisely adds flocculant to improve the flocculation effect.
It effectively breaks up the crusting at the bottom of the tank, increases the contact reaction between flocculants and pollutants, improves wastewater treatment efficiency, reduces human error, and lowers operating costs.
Smart Images

Figure CN121948641A_ABST
Abstract
Description
An integrated wastewater treatment equipment for glass edging Technical Field
[0001] This invention relates to the field of water pollution control and treatment technology, and in particular to an integrated wastewater treatment equipment for glass edging. Background Technology
[0002] Wastewater from glass edging is mainly generated during the deep processing of glass, such as cutting, edging, and drilling. Because it contains a large amount of suspended solids, direct discharge without treatment will cause pollution. The core pollutant in wastewater from glass edging is the extremely fine glass powder (silicon micropowder) produced during grinding. Its main chemical component is silicon dioxide, which results in extremely high turbidity and a milky white appearance.
[0003] Glass edging is a mechanical process that grinds the cut edges of flat glass to eliminate sharp corners and rough surfaces, making it safer, more aesthetically pleasing, and meeting installation requirements. Its main purpose is to remove the sharp cutting edges (commonly known as "glass blades") produced after cutting, preventing cuts during handling, installation, and use. At the same time, smooth edges reduce stress concentration, lower the risk of the glass breaking from the edge, improve the overall mechanical strength of the glass, and enhance the product's quality.
[0004] In the current treatment of wastewater from glass edging, a flocculation tank is required for flocculation. However, during flocculation, some glass powder in the wastewater inside the tank will precipitate and form caking at the bottom of the tank. This caking layer blocks the contact between pollutants and flocculants near the bottom of the tank, thereby reducing the flocculation effect of wastewater treatment. Furthermore, the caking requires frequent shutdowns for treatment, which affects the efficiency of wastewater treatment. Summary of the Invention
[0005] This invention discloses an integrated wastewater treatment equipment for glass edging, which aims to solve the technical problem in the prior art where some glass powder in the wastewater inside the tank will precipitate and form a crust at the bottom of the tank, resulting in the crust layer blocking the contact effect between pollutants and flocculants near the bottom of the tank, thereby reducing the flocculation effect of wastewater treatment.
[0006] This invention proposes an integrated wastewater treatment device for glass edging, comprising: a tank support frame, on which a flocculation tank body is mounted, and a side ladder frame is mounted on the flocculation tank body; a discharge pipe, mounted on the flocculation tank body, and a wastewater pipe is also mounted on the flocculation tank body; a flocculation and agglomeration unit, mounted on the flocculation tank body, the flocculation and agglomeration unit including a secondary crushing chamber and an outer crushing frame, the outer crushing frame being mounted on the secondary crushing chamber; and a flocculant addition module, mounted on the flocculation tank body, the flocculant addition module including a liquid level sensor and an adjusting piston plate.
[0007] In a preferred embodiment, the flocculation and agglomeration unit further includes: two linear guide rails, both of which are mounted on the flocculation tank body, each of which is equipped with a movable support, and each of which is equipped with a fixed support; multiple mounting brackets, all mounted on the flocculation tank body, each of which is equipped with a universal motor, the output shafts of which are connected to wire groove reels via couplings; and multiple connecting wire harnesses, each mounted on a wire groove reel, with one end of each connecting wire harness mounted on one of the two movable brackets.
[0008] In a preferred embodiment, the flocculation and caking unit further includes: multiple electric telescopic rods, each mounted on two fixed supports, with the output ends of the multiple electric telescopic rods connected to the same lifting platform; two guide ports, both located on the lifting platform; and a guide rail, mounted on the lifting platform and positioned between the two guide ports.
[0009] In a preferred embodiment, the flocculation and caking unit further includes: a movable frame, which is disposed on the lifting platform and two guide ports, and has multiple shaft members disposed on the movable frame; the secondary crushing chamber is disposed on the movable frame; multiple drive wheels, which are respectively disposed on the multiple shaft members, and the outer walls of the multiple drive wheels are in contact with the outer walls of the guide rail frame; and multiple drive motors, which are all disposed on the movable frame, and the output shafts of the multiple drive motors are respectively connected to one end of the multiple shaft members through couplings.
[0010] In a preferred embodiment, the flocculation and caking unit further includes: multiple mounting shafts, all mounted on the outer crushing frame, with a linkage wheel at one end of each mounting shaft; two linkage belts, each mounted on one of the linkage wheels; and multiple outer crushing rollers, each mounted on one of the mounting shafts.
[0011] In a preferred embodiment, the flocculation and agglomeration unit further includes: two servo motors, both mounted on the outer crushing frame, with the output shafts of the two servo motors respectively mounted on the other end of two mounting shafts via couplings; a fixed shaft, mounted on the secondary crushing chamber, with two crushing frames mounted on the fixed shaft, both located inside the secondary crushing chamber; and a drive motor, mounted on the secondary crushing chamber, with the output shaft of the drive motor mounted on one end of the fixed shaft via a coupling, and the secondary crushing chamber having two inlets.
[0012] In a preferred embodiment, the flocculation and caking unit further includes: a connecting pipe disposed on the secondary crushing chamber, one end of the connecting pipe being provided with a jet chamber having multiple jet holes; and a conveying pump disposed on the connecting pipe.
[0013] In a preferred embodiment, the flocculant addition module further includes: a connecting bracket disposed on the flocculation tank body, the connecting bracket being provided with a fixing plate, and a liquid level sensor disposed on the fixing plate; and a receiving device disposed on the liquid level sensor, the receiving device being provided with a sensing wire harness.
[0014] In a preferred embodiment, the flocculant addition module further includes: a control device, which is mounted on a sensing harness and has two control harnesses, each with an electric actuator at one end, both actuators mounted on a fixed plate; and an addition chamber, which is mounted on the fixed plate and has an addition port, wherein an adjusting piston plate is located at the output end of the two electric actuators and inside the addition chamber.
[0015] In a preferred embodiment, the flocculant addition module further includes: a sealing gasket ring disposed on an adjusting piston plate, the outer wall of the sealing gasket ring being in contact with the inner wall of the addition chamber; and a flocculant pipe disposed on the adjusting piston plate, the flocculant pipe also being equipped with a control valve.
[0016] As can be seen from the above, the integrated glass edging wastewater treatment equipment provided by the present invention has the effect of improving the flocculation treatment effect of wastewater. When performing flocculation treatment of glass edging wastewater, the device can break up the glass powder that is caked at the bottom of the flocculation tank body to improve the contact effect between the caked layer and the flocculant near the bottom of the tank. After breaking up, the device can spray the glass powder and water together to disturb the wastewater in the tank and further increase the flocculation efficiency. Attached Figure Description
[0017] Figure 1 is a schematic diagram of the overall structure of an integrated wastewater treatment equipment for glass edging proposed in this invention; Figure 2 is a schematic diagram of the overall side view of an integrated wastewater treatment equipment for glass edging proposed in this invention; Figure 3 is a schematic diagram of the combined structure of the flocculation tank body and the flocculant module of an integrated wastewater treatment equipment for glass edging proposed in this invention; Figure 4 is a schematic diagram of the flocculation plate unit structure of an integrated wastewater treatment equipment for glass edging proposed in this invention; Figure 5 is a schematic diagram of the combined structure of the guide rail frame and the lifting platform frame of an integrated wastewater treatment equipment for glass edging proposed in this invention; Figure 6 is a schematic diagram of the disassembled structure of the drive wheel and the movable frame of an integrated wastewater treatment equipment for glass edging proposed in this invention; Figure 7 is a schematic diagram of the cross-sectional structure of the secondary crushing chamber of an integrated wastewater treatment equipment for glass edging proposed in this invention; Figure 8 is a schematic diagram of the structure of the flocculant module of an integrated wastewater treatment equipment for glass edging proposed in this invention; Figure 9 is a schematic diagram of the combined structure of the control device and the electric rod of an integrated wastewater treatment equipment for glass edging proposed in this invention; Figure 10 is a schematic diagram of the disassembled structure of the sealing gasket ring and the adjusting piston plate of an integrated wastewater treatment equipment for glass edging proposed in this invention.
[0018] In the diagram: 1. Flocculation tank body; 2. Discharge pipe; 3. Flocculation and caking unit; 301. Linear guide rail; 302. Movable support; 303. Connecting wire harness; 304. Wire groove reel; 305. General motor; 306. Mounting bracket; 307. Electric telescopic rod; 308. Guide rail frame; 309. Movable frame; 310. Lifting platform; 311. Fixed support; 312. Guide port; 313. Active motor; 314. Secondary crushing chamber; 315. External crushing frame; 316. Connecting pipe; 317. Conveying pump; 318. Jet chamber; 319. Drive wheel; 320. Shaft; 321. Drive motor; 322. Jet hole; 32 3. Linkage belt; 324. Linkage wheel; 325. Servo motor; 326. Mounting shaft; 327. Inlet; 328. Fixed shaft; 329. Crushing frame; 330. External crushing roller; 4. Tank side ladder frame; 5. Tank support; 6. Sewage pipe; 7. Flocculant addition module; 701. Connecting bracket; 702. Liquid level sensor; 703. Electric rod; 704. Additive bin; 705. Fixing plate; 706. Controller; 707. Control harness; 708. Flocculant pipe; 709. Control valve; 710. Sensor harness; 711. Sealing gasket; 712. Additive inlet; 713. Adjusting piston plate; 714. Receiving device. Detailed Implementation
[0019] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments.
[0020] The integrated wastewater treatment equipment for glass edging disclosed in this invention is mainly used in scenarios where some glass powder in the wastewater inside the tank will precipitate and form a crust at the bottom of the tank. This crust layer will block the contact between pollutants and flocculants near the bottom of the tank, thereby reducing the flocculation effect of wastewater treatment.
[0021] Referring to Figures 1-10, an integrated wastewater treatment device for glass edging includes: a tank support 5, on which a flocculation tank body 1 is mounted, and a side ladder frame 4 is mounted on the flocculation tank body 1; a discharge pipe 2, mounted on the flocculation tank body 1, and a wastewater pipe 6 is also mounted on the flocculation tank body 1; a flocculation and agglomeration unit 3, mounted on the flocculation tank body 1, comprising a secondary crushing chamber 314 and an outer crushing frame 315, the outer crushing frame 315 being mounted on the secondary crushing chamber 314; and a flocculant addition module 7, mounted on the flocculation tank body 1, comprising a liquid level sensor 702 and an adjusting piston plate 713.
[0022] It should be noted that the side ladder frame 4 of the pool provides operators with a safe and stable path to approach the top of the flocculation pool for routine inspections (such as observing floc formation and checking the agitator's operating status) or emergency handling. At the same time, the platform area facilitates personnel to maintain key equipment above the pool and allows operators to safely collect water samples from specific locations within the pool to assess the flocculation effect.
[0023] Referring to Figures 1-7, in a preferred embodiment, the flocculation and condensation unit 3 further includes: two linear guide rails 301, both of which are mounted on the flocculation tank body 1, each of which is equipped with a movable support 302, and each of which is equipped with a fixed support 311; multiple mounting brackets 306, each of which is mounted on the flocculation tank body 1, each of which is equipped with a universal motor 305, and the output shafts of the multiple universal motors 305 are connected to wire groove reels 304 via couplings; and multiple connecting wire harnesses 303, each of which is mounted on multiple wire groove reels 304, with one end of each connecting wire harness 303 mounted on one of the two movable supports 302.
[0024] In this invention, the flocculation and caking unit 3 further includes: multiple electric telescopic rods 307, which are respectively mounted on two fixed supports 311, and the output ends of the multiple electric telescopic rods 307 are provided with the same lifting platform 310; two guide ports 312, which are both opened on the lifting platform 310; and a guide rail frame 308, which is mounted on the lifting platform 310 and located between the two guide ports 312.
[0025] In this invention, the flocculation and caking unit 3 further includes: a movable frame 309, which is disposed on the lifting platform 310 and two guide ports 312, and a plurality of shaft members 320 are disposed on the movable frame 309; a secondary crushing chamber 314 is disposed on the movable frame 309; a plurality of drive wheels 319, which are respectively disposed on the plurality of shaft members 320, and the outer walls of the plurality of drive wheels 319 are in contact with the outer wall of the guide rail frame 308; and a plurality of drive motors 321, which are all disposed on the movable frame 309, and the output shafts of the plurality of drive motors 321 are respectively connected to one end of the plurality of shaft members 320 through couplings.
[0026] In this invention, the flocculation and caking unit 3 further includes: multiple mounting shafts 326, all of which are mounted on the outer crushing frame 315, and each of the multiple mounting shafts 326 has a linkage wheel 324 at one end; two linkage belts 323, which are respectively mounted on the multiple linkage wheels 324; and multiple outer crushing rollers 330, which are respectively mounted on the multiple mounting shafts 326.
[0027] In this invention, the flocculation and agglomeration unit 3 further includes: two servo motors 325, both of which are mounted on the outer crushing frame 315, and the output shafts of the two servo motors 325 are respectively mounted on the other end of two mounting shafts 326 via couplings; a fixed shaft 328, which is mounted on the secondary crushing chamber 314, and has two crushing frames 329 mounted on it, both of which are located inside the secondary crushing chamber 314; and an active motor 313, which is mounted on the secondary crushing chamber 314, and the output shaft of the active motor 313 is mounted on one end of the fixed shaft 328 via a coupling. The secondary crushing chamber 314 has two inlets 327.
[0028] In this invention, the flocculation and caking unit 3 further includes: a connecting pipe 316, which is disposed on the secondary crushing chamber 314, and one end of the connecting pipe 316 is provided with a jet chamber 318, which is provided with a plurality of jet holes 322; and a conveying pump 317, which is disposed on the connecting pipe 316.
[0029] Specifically, during flocculation, the electric telescopic rod 307 operates, driving the lifting platform 310 to rise and fall, further lowering the movable frame 309, secondary crushing chamber 314, and outer crushing frame 315 until the outer crushing roller 330 contacts the bottom slab layer of the flocculation tank body 1. At this time, the servo motor 325 and the drive motor 313 operate, with the servo motor 325 driving the mounting shaft 326 to rotate. During rotation, the linkage wheel 324 and the linkage belt 323 coordinate with the multiple mounting shafts 326 and the outer crushing roller 330 to operate synchronously, breaking up the slab layer at the bottom of the flocculation tank body 1. Simultaneously, the conveying pump 317 operates, pumping water from the secondary crushing chamber 314 through the connecting pipe 316. The liquid in the secondary crushing chamber 314 is discharged to create a negative pressure state, thereby drawing the initially crushed slab layer from the outer crushing roller 330 into the secondary crushing chamber 314. At this time, the active motor 313 drives the fixed shaft 328 and the crushing frame 329 to rotate, and performs secondary crushing on the drawn-in slab layer. The crushed glass powder and contaminants will further enter the spray chamber 318 with the water flow and be sprayed out through the spray holes 322 to complete the treatment of the slab layer. During the treatment, the drive motor 321 and the general motor 305 operate. The drive motor 321 drives the shaft 320 and the drive wheel 319 to rotate, so that the drive wheel 319 drives the device to move laterally, while the general motor 305 can drive the wire groove reel 3. 04 rotates to tighten and loosen the connecting harness 303, allowing the device to move longitudinally and operate in coordination with the device until the slab layer treatment is completed. In specific application scenarios, the flocculation and slab formation unit 3 is suitable for the glass edging wastewater treatment process. That is, during flocculation treatment, the flocculation and slab formation unit 3 can break up the glass powder slab formed at the bottom of the flocculation tank body 1 through the crushing frame 329 and the outer crushing roller 330, so as to avoid the slab layer blocking the flocculant, thereby improving the contact reaction effect between the slab layer and the pollutants and the flocculant near the bottom of the tank. After crushing, the device can spray the glass powder and water together through the delivery pump 317, the spray chamber 318 and the spray hole 322 to disturb the wastewater in the tank and improve flocculation. The contact and mixing effect between the agent and pollutants such as glass powder further increases the flocculation efficiency and wastewater flocculation treatment effect. It should be noted that the height of the underwater device can be adjusted by the electric telescopic rod 307 to suit the slab layer of different thicknesses, increasing the applicability of the device. At the same time, the underwater position of the device can be adjusted by the connecting wire harness 303, wire groove reel 304, general motor 305, drive motor 321 and drive wheel 319 to increase the treatment effect of the device on the slab layer. After crushing, the operation of the conveying pump 317 can make the interior of the secondary crushing chamber 314 a negative pressure state, so that the slab layer crushed by the outer crushing roller 330 can effectively enter the secondary crushing chamber 314, ensuring the treatment effect of the device.
[0030] Referring to Figures 3, 8, 9 and 10, in a preferred embodiment, the flocculant addition module 7 further includes: a connecting bracket 701, which is disposed on the flocculant tank body 1, and a fixing plate 705 is disposed on the connecting bracket 701, and a liquid level sensor 702 is disposed on the fixing plate 705; and a receiving device 714, which is disposed on the liquid level sensor 702, and a sensing wire harness 710 is disposed on the receiving device 714.
[0031] In this invention, the flocculant addition module 7 further includes: a control device 706, which is disposed on the sensing harness 710, and has two control harnesses 707 disposed on the control device 706. Each of the two control harnesses 707 has an electric rod 703 at one end, and both electric rods 703 are disposed on the fixed plate 705; and an addition chamber 704, which is disposed on the fixed plate 705. The addition chamber 704 has an addition port 712, and an adjusting piston plate 713 is disposed at the output end of the two electric rods 703 and is located inside the addition chamber 704.
[0032] In this invention, the flocculant addition module 7 further includes: a sealing gasket 711, which is disposed on the adjusting piston plate 713, and the outer wall of the sealing gasket 711 is in contact with the inner wall of the addition chamber 704; and a flocculant pipe 708, which is disposed on the adjusting piston plate 713, and a control valve 709 is also disposed on the flocculant pipe 708.
[0033] Specifically, before flocculation, the level sensor 702 operates to monitor the wastewater level and transmits the monitored level data to the receiving device 714. The receiving device 714 then transmits the information to the controller 706 via the sensing harness 710. The controller 706 then controls the operation of the electric lever 703 via the control harness 707. This electric lever 703 moves the adjusting piston plate 713 and the sealing gasket ring 711, changing the space available for flocculant addition inside the additive bin 704 and thus altering the flocculant dosage. The flocculant is then injected into the additive bin 704 through the additive port 712, and the control valve 709 is opened, allowing the flocculant to enter the flocculation tank body 1 through the flocculant pipe 708, completing the flocculant addition. In specific application scenarios, the flocculation additive module 7 is suitable for glass edging wastewater... In the water flocculation treatment stage, the flocculant addition module 7 monitors the wastewater level using the level sensor 702 and adjusts the flocculant dosage accordingly. This ensures precise matching between the dosage and the actual volume of wastewater to be treated, avoiding problems such as "insufficient dosing" (incomplete flocculation, turbid effluent) or "excessive dosing" (waste of chemicals, potential colloidal restabilization, or increased sludge volume) caused by water volume fluctuations. This ensures stable effluent quality and transforms manual experience-based operation into real-time data-driven control and adjustment, reducing human error and operational delays, making the equipment more intelligent and reliable. It should be noted that precise dosing means less chemical reagent enters the subsequent sludge system, helping to reduce sludge production and subsequent sludge treatment load. Furthermore, reducing flocculant consumption further lowers wastewater treatment operating costs and avoids unnecessary waste.
[0034] Working principle: During use, wastewater enters the flocculation tank body 1 through wastewater pipe 6 and undergoes flocculation treatment. After treatment, it is discharged through discharge pipe 2 and enters the next treatment stage. Before flocculation, the level sensor 702 operates to monitor the wastewater level and transmits the monitored level data to the receiving device 714. The receiving device 714 then transmits the information to the control device 706 through the sensing harness 710. Subsequently, the control device 706 controls the operation of the electric lever 703 through the control harness 707, causing the electric lever 703 to move and drive the adjusting piston plate 713 and the sealing gasket ring 711 to rise and fall. The space inside the flocculant addition chamber 704 is altered to change the amount of flocculant added. Then, the flocculant is injected into the addition chamber 704 through the addition port 712, and the control valve 709 is opened to allow the flocculant to enter the flocculation tank body 1 through the flocculant pipe 708, completing the flocculant addition. During flocculation, the electric telescopic rod 307 operates, driving the lifting platform 310 to rise and fall, further lowering the movable frame 309, secondary crushing chamber 314, and outer crushing frame 315 until the outer crushing roller 330 contacts the bottom slab layer of the flocculation tank body 1. At this point, the servo motor 325 and the active motor... When machine 313 operates, servo motor 325 drives mounting shaft 326 to rotate. During rotation, in conjunction with linkage wheel 324 and linkage belt 323, multiple mounting shafts 326 and outer crushing roller 330 operate synchronously to crush the slab layer at the bottom of the flocculation tank body 1. Simultaneously, conveying pump 317 operates, discharging liquid from the secondary crushing chamber 314 through connecting pipe 316, creating a negative pressure state inside the secondary crushing chamber 314. This draws the slab layer initially crushed by the outer crushing roller 330 into the secondary crushing chamber 314. At this time, drive motor 313 drives fixed shaft 328 and crushing frame 329 to rotate. The system further breaks down the inhaled slab layer. The broken glass powder and contaminants are then carried by the water flow into the jet chamber 318 and ejected through the jet holes 322 to complete the treatment of the slab layer. During the treatment, the drive motor 321 and the general motor 305 operate. The drive motor 321 drives the shaft 320 and the drive wheel 319 to rotate, so that the drive wheel 319 drives the device to move laterally. The general motor 305 drives the wire trough reel 304 to rotate, thereby tightening and loosening the connecting wire harness 303, so that the device moves longitudinally, thus coordinating the operation of the device until the slab layer treatment is completed.
[0035] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.
Claims
1. An integrated wastewater treatment equipment for glass edging, characterized in that, include: A pool support (5) is provided on the pool support (5), and a flocculation pool body (1) is provided on the flocculation pool body (1). A pool side ladder frame (4) is provided on the flocculation pool body (1). A discharge pipe (2) is provided on the flocculation pool body (1), and a sewage pipe (6) is also provided on the flocculation pool body (1). A flocculation and slagging unit (3) is provided on the flocculation pool body (1). The flocculation and slagging unit (3) includes a secondary crushing chamber (314) and an outer crushing frame (315). The outer crushing frame (315) is provided on the secondary crushing chamber (314). A flocculant module (7) is provided on the flocculation pool body (1). The flocculant module (7) includes a liquid level sensor (702) and an adjusting piston plate (713).
2. The integrated wastewater treatment equipment for glass edging according to claim 1, characterized in that, The flocculation and condensation unit (3) further includes: two linear guide rails (301), both linear guide rails (301) are set on the flocculation tank body (1), both linear guide rails (301) are provided with movable brackets (302), and both movable brackets (302) are provided with fixed brackets (311); multiple mounting brackets (306), multiple mounting brackets (306) are set on the flocculation tank body (1), multiple mounting brackets (306) are provided with universal motors (305), and the output shafts of multiple universal motors (305) are connected to wire groove reels (304) through couplings; multiple connecting wire harnesses (303), multiple connecting wire harnesses (303) are respectively set on multiple wire groove reels (304), and one end of multiple connecting wire harnesses (303) is respectively set on two movable brackets (302).
3. The integrated wastewater treatment equipment for glass edging according to claim 2, characterized in that, The flocculation and condensation unit (3) further includes: multiple electric telescopic rods (307), which are respectively set on two fixed supports (311), and the output ends of the multiple electric telescopic rods (307) are provided with the same lifting platform (310); two guide ports (312), which are both opened on the lifting platform (310); and a guide rail frame (308), which is set on the lifting platform (310) and is located between the two guide ports (312).
4. The integrated wastewater treatment equipment for glass edging according to claim 3, characterized in that, The flocculation and condensation unit (3) further includes: a movable frame (309), which is set on the lifting platform (310) and two guide ports (312), and a plurality of shaft members (320) are set on the movable frame (309), and the secondary crushing chamber (314) is set on the movable frame (309); a plurality of drive wheels (319), which are respectively set on the plurality of shaft members (320), and the outer walls of the plurality of drive wheels (319) are in contact with the outer wall of the guide rail frame (308); a plurality of drive motors (321), which are all set on the movable frame (309), and the output shafts of the plurality of drive motors (321) are respectively connected to one end of the plurality of shaft members (320) through couplings.
5. The integrated wastewater treatment equipment for glass edging according to claim 4, characterized in that, The flocculation and caking unit (3) further includes: multiple mounting shafts (326), all of which are mounted on the outer crushing frame (315), and each of the multiple mounting shafts (326) is provided with a linkage wheel (324) at one end; two linkage belts (323), which are respectively mounted on the multiple linkage wheels (324); and multiple outer crushing rollers (330), which are respectively mounted on the multiple mounting shafts (326).
6. The integrated wastewater treatment equipment for glass edging according to claim 5, characterized in that, The flocculation and caking unit (3) further includes: two servo motors (325), both of which are mounted on the outer crushing frame (315), and the output shafts of the two servo motors (325) are respectively mounted on the other end of two mounting shafts (326) via couplings; a fixed shaft (328), which is mounted on the secondary crushing chamber (314), and two crushing frames (329) are mounted on the fixed shaft (328), both of which are located inside the secondary crushing chamber (314); and an active motor (313), which is mounted on the secondary crushing chamber (314), and the output shaft of the active motor (313) is mounted on one end of the fixed shaft (328) via couplings, and two inlets (327) are opened on the secondary crushing chamber (314).
7. The integrated wastewater treatment equipment for glass edging according to claim 6, characterized in that, The flocculation and caking unit (3) further includes: a connecting pipe (316), which is installed on the secondary crushing chamber (314), and one end of the connecting pipe (316) is provided with a jet chamber (318), which has multiple jet holes (322); and a conveying pump (317), which is installed on the connecting pipe (316).
8. The integrated wastewater treatment equipment for glass edging according to claim 1, characterized in that, The flocculant addition module (7) further includes: a connecting bracket (701), which is disposed on the flocculant tank body (1), and a fixing plate (705) is disposed on the connecting bracket (701), and a liquid level sensor (702) is disposed on the fixing plate (705); a receiving device (714), which is disposed on the liquid level sensor (702), and a sensing wire harness (710) is disposed on the receiving device (714).
9. The integrated wastewater treatment equipment for glass edging according to claim 8, characterized in that, The flocculant addition module (7) further includes: a control device (706), which is mounted on a sensing harness (710). The control device (706) has two control harnesses (707), each of which has an electric rod (703) at one end. The two electric rods (703) are mounted on a fixed plate (705); an additive chamber (704), which is mounted on a fixed plate (705). The additive chamber (704) has an additive port (712), and the adjusting piston plate (713) is located at the output end of the two electric rods (703). The adjusting piston plate (713) is located inside the additive chamber (704).
10. The integrated wastewater treatment equipment for glass edging according to claim 9, characterized in that, The flocculant addition module (7) further includes: a sealing gasket (711), which is disposed on the adjusting piston plate (713), and the outer wall of the sealing gasket (711) is in contact with the inner wall of the addition chamber (704); and a flocculant pipe (708), which is disposed on the adjusting piston plate (713), and a control valve (709) is also disposed on the flocculant pipe (708).