Concrete wastewater treatment system
By introducing a raw slurry tank, a flotation tank, and a clear water tank into the concrete wastewater treatment system, combined with a concentration sensor and a water pump system, the problem of sediment resource waste was solved, the full reuse of sediment was achieved, and the resource utilization rate was improved.
Patent Information
- Application Number
- CN202423209703.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-24
- Publication Date
- 2025-12-16
- Estimated Expiration
- 2034-12-24
AI Technical Summary
In existing concrete wastewater treatment systems, when separating water and sand, the mud and sand mixed in the sand and gravel are pressed into mud cakes and discarded, resulting in a waste of resources.
The design employs a raw slurry tank, a floating tank, and a clear water tank. A concrete concentration sensor is used to monitor the silt concentration. The silt is reused through the cooperation of water pumps and mixers. A silicate high-alkali waste slurry activation modifier is used to prevent silt solidification. Resource recycling is optimized through water guide holes and a water pump system.
This has enabled the full reuse of sediment, greatly improving resource utilization and significantly reducing resource waste.
Smart Images

Figure CN223674340U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to the field of concrete, in particular, relate to a concrete wastewater treatment system. BACKGROUND
[0002] At present, the patent of China with the authorization announcement number CN220878081U discloses a kind of concrete wastewater treatment system, it includes water collecting pool, water collecting pool inside interval is provided with first baffle and second baffle, first baffle and second baffle sequentially separate water collecting pool into independent filter sand pool, sedimentation tank and clarifier, first baffle and second baffle are respectively provided with first communication port and second communication port for waste water to flow, filter sand pool is provided with filter plate for preliminary filtering large block sandstone and cleaning device for cleaning sandstone accumulated on filter plate, sedimentation tank is provided with filter device for further filtering and cleaning device for removing sandstone deposited in the bottom of sedimentation tank, second filter device includes filter screen, first communication port is located in the side of filter screen away from ground, the aperture of filter plate is greater than the aperture of filter screen.
[0003] This kind of concrete wastewater treatment system has the effect of fully recycling sandstone and water resources in concrete wastewater, reduces resource waste.
[0004] However, this kind of concrete wastewater treatment system completely separates and recycles water and sandstone, but sandstone can be mixed with silt, and silt is discarded by being pressed into mud cake by filter press, so resource waste is caused. UTILITY MODEL CONTENT
[0005] Therefore, the utility model aims at providing a kind of concrete wastewater treatment system, to reduce resource waste.
[0006] In order to solve the above technical problems, the technical scheme of the utility model is: a kind of concrete wastewater treatment system, including raw pulp pool, floating water pool, the raw pulp pool is connected with first baffle between floating water pool, first baffle is provided with first water guide hole, first water guide hole is close to the upper edge of first baffle, further including treatment pool and the activator tank for storing silicate high alkali waste pulp activation modifier, the activator tank is connected with treatment pool by main water pump, the raw pulp pool is connected with treatment pool by first water pump, floating water pool is connected with raw pulp pool by second water pump, the raw pulp pool is connected with concrete concentration sensor, and the concrete concentration sensor is electrically connected with first water pump.
[0007] The mud and sand generated during the flushing of the stirring tank, the stirring building and the stirring vehicle is poured into the raw slurry tank, and the mud and sand is deposited at the bottom of the raw slurry tank; as the amount of the mud and sand poured into the raw slurry tank increases, the water in the mud and sand is floated on the upper layer due to the small density, so that most of the water and a small amount of mud and sand enter the floating water tank from the first water guide hole; at this time, the concentration of the mud and sand in the raw slurry tank gradually increases, the concentration of the mud and sand in the raw slurry tank is monitored through the concrete concentration sensor, and when the concentration of the mud and sand reaches a threshold value, the first water pump is started to pump the mud and sand in the raw slurry tank into the treatment tank; the silicate high-alkali waste slurry activating modifier is injected into the treatment tank through the main water pump, the silicate high-alkali waste slurry activating modifier makes the mud and sand not easy to solidify, and then the mud and sand can be injected into the finished product tank for reuse; then the mud and sand in the floating water tank is guided into the raw slurry tank through the second water pump, and the process is repeated, so that the mud and sand is reused, the filtration process of the filter press is avoided, the mud and sand is fully reusable, the resource utilization rate is greatly improved, and resource waste is greatly reduced.
[0008] As a preferred scheme of the utility model, the utility model also discloses a water tank, the floating water tank is located between the water tank and the raw slurry tank, a second water guide hole is formed in the second partition plate, and the horizontal height of the second water guide hole is lower than that of the first water guide hole.
[0009] The mud and sand in the floating water tank is guided into the raw slurry tank through the second water pump, and the process is repeated, so that the mud and sand is reused, the filtration process of the filter press is avoided, the mud and sand is fully reusable, the resource utilization rate is greatly improved, and resource waste is greatly reduced.
[0010] As a preferred scheme of the utility model, the water tank is connected with the raw slurry tank through a third water pump.
[0011] The mud and sand in the floating water tank is guided into the raw slurry tank through the second water pump, and the process is repeated, so that the mud and sand is reused, the filtration process of the filter press is avoided, the mud and sand is fully reusable, the resource utilization rate is greatly improved, and resource waste is greatly reduced.
[0012] As a preferred scheme of the utility model, the raw slurry tank is fixedly connected with a first stirrer, the first stirrer is connected with a first stirring paddle, and the first stirring paddle extends into the raw slurry tank.
[0013] The first stirring paddle rotates and continuously stirs the mud and sand, so that the mud and sand is prevented from solidifying, and the mud and sand is more uniform, so that the detection of the concentration of the mud and sand by the concrete concentration sensor is more accurate.
[0014] As an optimal scheme of the utility model, the second agitator is fixedly connected on the floating pool, and the second agitator is connected with a second stirring paddle, and the second stirring paddle extends into the floating pool.
[0015] The above technical scheme is realized, so that the silt in the floating pool is not easy to solidify.
[0016] As an optimal scheme of the utility model, the second agitator is fixedly connected on the floating pool, and the second agitator is connected with a second stirring paddle, and the second stirring paddle extends into the floating pool.
[0017] The above technical scheme is realized, so that the silt in the floating pool is not easy to solidify.
[0018] The utility model has the beneficial effects as follows:
[0019] 1, the clear water in the clear water pool can be directly used for washing the mixing truck, and can be injected into the raw slurry pool through the third water pump, so that the concentration of silt in the raw slurry pool is reduced, and the production demand of concrete is met.
[0020] 2, when the concentration of silt in the raw slurry pool reaches a threshold value, the silt is injected into the treatment pool through the first water pump, and the silicate high-alkali waste slurry modification agent is injected into the treatment pool, so that the silt is not easy to solidify and the activity is improved, so that the production demand of concrete is met, and the silt in the treatment pool is injected into the finished product pool for reuse.
[0021] 3, after the silt in the raw slurry pool is pumped away by the first water pump, the silt is pumped from the floating pool into the raw slurry pool by the second water pump.
[0022] 4, when the concentration of silt in the raw slurry pool is too high, the third water pump is started, and the clear water in the clear water pool is injected into the raw slurry pool to reduce the concentration of silt in the raw slurry pool. DRAWINGS
[0023] Figure 1 It is a structural schematic view of the utility model;
[0024] Figure 2 It is a position schematic view of the first water pump;
[0025] Figure 3 It is a position schematic view of the first water guide hole.
[0026] Reference numerals: 1, raw slurry tank; 10, treatment tank; 11, concrete concentration sensor; 2, floating water tank; 3, first partition; 31, first water guide hole; 4, activator tank; 41, main water pump; 51, first water pump; 52, second water pump; 6, clean water tank; 7, second partition; 71, second water guide hole; 8, third water pump; 91, first stirrer; 92, first stirring paddle; 93, second stirrer; 94, second stirring paddle; 100, protective plate; 101, communication hole. DETAILED DESCRIPTION
[0027] The specific embodiments of the utility model are further described in detail below in combination with the drawings, so that the technical scheme of the utility model is easier to understand and master.
[0028] A concrete wastewater treatment system comprises a raw slurry tank 1 and a floating water tank 2. A first partition 3 is fixedly connected between the raw slurry tank 1 and the floating water tank 2, and a first water guide hole 31 is formed in the first partition 3, the first water guide hole 31 being close to the upper edge of the first partition 3. When the mixing tank, mixing building and mixing truck are washed, the generated mud and sand are poured into the raw slurry tank 1.
[0029] A silicate high-alkali waste slurry activator modifier is injected into an activator tank 4. The activator tank 4 is connected with a treatment tank 10 through a main water pump 41. The raw slurry tank 1 is connected with the treatment tank 10 through a first water pump 51. The floating water tank 2 is connected with the raw slurry tank 1 through a second water pump 52. A concrete concentration sensor 11 is connected in the raw slurry tank 1, and the concrete concentration sensor 11 is electrically connected with the first water pump 51.
[0030] The floating water tank 2 is located between a clean water tank 6 and the raw slurry tank 1. A second partition 7 is connected between the clean water tank 6 and the floating water tank 2, and a second water guide hole 71 is formed in the second partition 7, the horizontal height of the second water guide hole 71 being lower than that of the first water guide hole 31.
[0031] When the mixing tank, mixing building and mixing truck are washed, the generated mud and sand are poured into the raw slurry tank 1, and the amount of mud and water in the raw slurry tank 1 increases. A large amount of water and a small amount of mud pass through the first water guide hole 31 and are injected into the floating water tank 2. Subsequently, a large amount of water is injected from the floating water tank 2 along the second water guide hole 71 into the clean water tank 6, and clean water is obtained in the clean water tank 6. At this time, the clean water can be used to wash the mixing truck.
[0032] The clean water tank 6 is connected with the raw slurry tank 1 through a third water pump 8.
[0033] A first stirrer 91 is fixedly connected on the raw slurry tank 1, a first stirring shaft of the first stirrer 91 is fixedly connected with a plurality of first stirring paddles 92, the first stirring paddles 92 extend into the raw slurry tank 1, and the plurality of first stirring paddles 92 are uniformly distributed along the axis of the first stirring shaft.
[0034] The second agitator 93 is fixedly connected to the floating water pool 2, the second stirring shaft of the second agitator 93 is fixedly connected with the second stirring paddle 94, the second stirring paddle 94 extends into the floating water pool 2, and the plurality of second stirring paddles 94 are uniformly distributed along the axis of the second stirring shaft.
[0035] The first agitator 91 is started, and the first stirring paddle 92 stirs the sludge. Since a large amount of water in the raw slurry pool 1 is injected into the floating water pool 2, the concentration of the sludge in the raw slurry pool 1 increases. After reaching a threshold value, the concrete concentration sensor 11 sends an electrical signal to the first water pump 51, the first water pump 51 is started, and the sludge enters the treatment pool 10 from the raw slurry pool 1. At the same time, the main water pump 41 is started, and the silicate high-alkaline waste slurry activation modifier is injected into the treatment pool 10. The activity of the sludge is improved by the silicate high-alkaline waste slurry activation modifier, so that the sludge in the treatment pool 10 can be reused.
[0036] As the concentration of the sludge in the raw slurry pool 1 decreases, the second water pump 52 is started, and the sludge in the floating water pool 2 is injected into the raw slurry pool 1 to be injected into the treatment pool 10.
[0037] During the treatment of the sludge in the treatment pool 10, the sludge generated by the washing of the stirring tank, the stirring building and the stirring vehicle is continuously injected into the raw slurry pool 1. The concentration of the sludge in the raw slurry pool 1 is too high, the third water pump 8 is opened, and the clean water in the clean water pool 6 is injected into the raw slurry pool 1 to reduce the concentration of the sludge in the raw slurry pool 1 to meet the requirements of being injected into the treatment pool 10.
[0038] The protective plates 100 are fixedly connected to the raw slurry pool 1, the floating water pool 2 and the clean water pool 6, and the communication holes 101 are formed in the protective plates 100.
[0039] Of course, the above is only a typical example of the present application, in addition to this, the present application can have other various specific embodiments, and any technical solution formed by equivalent substitution or equivalent transformation falls within the scope of the present application.
Claims
1. A concrete waste water treatment system, comprising a raw slurry tank (1) and a floating water tank (2), a first partition (3) being connected between the raw slurry tank (1) and the floating water tank (2), a first water guide hole (31) being formed in the first partition (3), the first water guide hole (31) being close to the upper edge of the first partition (3), characterized in that: The application further comprises a treatment pool (10) and an activator tank (4) for storing a silicate high-alkali waste slurry activation modifier, the activator tank (4) is connected with the treatment pool (10) through a main water pump (41), the raw slurry pool (1) is connected with the treatment pool (10) through a first water pump (51), the floating water pool (2) is connected with the raw slurry pool (1) through a second water pump (52), the raw slurry pool (1) is connected with a concrete concentration sensor (11), and the concrete concentration sensor (11) is electrically connected with the first water pump (51). 2. The concrete wastewater treatment system of claim 1, wherein: The application further comprises a clean water pool (6), the floating water pool (2) is located between the clean water pool (6) and the raw slurry pool (1), a second partition plate (7) is connected between the clean water pool (6) and the floating water pool (2), a second water guide hole (71) is formed in the second partition plate (7), and the horizontal height of the second water guide hole (71) is lower than that of the first water guide hole (31).
3. The concrete wastewater treatment system of claim 2, wherein: The clean water pool (6) is connected with the raw slurry pool (1) through a third water pump (8).
4. The concrete wastewater treatment system of claim 1, wherein: The raw slurry pool (1) is fixedly connected with a first stirrer (91), the first stirrer (91) is connected with a first stirring paddle (92), and the first stirring paddle (92) extends into the raw slurry pool (1).
5. The concrete wastewater treatment system of claim 1, wherein: The floating water pool (2) is fixedly connected with a second stirrer (93), the second stirrer (93) is connected with a second stirring paddle (94), and the second stirring paddle (94) extends into the floating water pool (2).
6. The concrete wastewater treatment system of claim 1, wherein: The raw slurry pool (1), the floating water pool (2) and the clean water pool (6) are all fixedly connected with a protective plate (100), and the protective plate (100) is provided with a communication hole (101).
Citation Information
Patent Citations
Concrete wastewater treatment system
CN220878081U
Cited By
Concrete wastewater treatment system
CN119683711A
A concrete wastewater treatment system
CN119683711B