CN219971967U - A kind of mud water separation and recycling treatment station - Google Patents

Abstract

The utility model relates to the technical field of mud-water separation, and in particular to a mud-water separation and reuse treatment station, which includes a sedimentation mechanism, a cleaning mechanism and a filtering mechanism. A cleaning mechanism is installed in the sedimentation mechanism, and a filtering mechanism is provided on the lower side of the cleaning mechanism; it is beneficial The effect is that by setting up the cleaning mechanism, when the device separates mud and water, the first servo motor drives the first screw rod to rotate through the coupling, so that the first moving block drives the brush to move through the thread action to clean the first-level filter plate. , the second servo motor drives the second screw rod to rotate through the coupling, so that the second moving block drives the brush on the lower side through the thread action to clean the secondary filter plate to avoid clogging of the two filters and affecting the filtration efficiency. , such a design eliminates the need for workers to frequently replace the filter, thereby reducing work intensity. At the same time, only two filters are required, which reduces the production cost of the device.

Description

A kind of mud water separation and recycling treatment station

Technical field

The utility model relates to the technical field of mud-water separation, and in particular to a mud-water separation and reuse treatment station.

Background technique

Concrete refers to the general term for engineering composite materials that are made of cementitious materials that bind aggregates into a whole. Concrete usually refers to the use of cement as cementing material, sand and stone as aggregates; it is mixed with water in a certain proportion, also known as ordinary concrete. It is widely used in the construction field. During the production process of concrete, cleaning mixers and tankers produce Concrete sewage usually needs to be treated by a professional supporting sewage treatment system before being discharged. However, this sewage treatment system has a long construction period and is expensive. Moreover, it has the problem of direct discharge of sewage without treatment, which not only causes a waste of resources, but also affects the surrounding areas. It causes great pollution to the environment.

Patent No. (CN211659463U) discloses a concrete sedimentation mud water separation and recycling device. The device includes a mud water tank with an opening at the top. The opening of the mud water tank is funnel-shaped. The inner wall of the mud water tank near the opening is equipped with a stirring device for stirring mud water. , the middle part of the mud water tank is equipped with a screening assembly for screening mud water. The screening assembly includes a screening plate and a cylinder. A bracket is connected to one side wall of the mud water tank. A sliding rod is connected to the cylinder. Both ends of the sliding rod penetrate the mud water tank. And it is slidingly connected with the mud water tank. There is a gap between the side walls of the screening plate at both ends of the movement direction and the mud water tank. The side wall of the mud water tank located at the lower end of the screening plate has a long through hole. The bottom edge of the device is fixedly connected with an inclined guide plate, and a mud collection box is provided under the guide plate. A drainage pipe is connected below the mud water tank, and a drainage pump is connected to the drainage pipe, so that the device has the advantage of high recycling rate. Although this device uses the filter screen and the sliding groove to replace the filter screen with a lot of muddy water adhering to it, the sliding groove plays a guiding role when installing the filter screen, which facilitates the cleaning of the filter screen, thereby improving the efficiency of water and mud. However, workers need to frequently replace filters, which increases the work intensity of workers. At the same time, multiple filters need to be prepared, which increases the production cost of the device.

Utility model content

The purpose of this utility model is to provide a mud water separation and recycling treatment station in order to solve the above problems.

The utility model achieves the above objects through the following technical solutions:

A mud water separation and reuse treatment station includes a sedimentation mechanism, a cleaning mechanism and a filtering mechanism. The cleaning mechanism is installed in the sedimentation mechanism. The filtering mechanism is provided on the lower side of the cleaning mechanism. The cleaning mechanism includes a third A servo motor, a first screw rod, a first sliding rod, a first moving block, a brush, a second servo motor, a second screw rod, a second sliding rod and a second moving block. One end of the first servo motor is connected There is the first screw rod, the first sliding rod is provided on the front side of the first screw rod, the first moving block is threadedly connected to the outer ring of the first screw rod, and the first moving block The brush is provided on the lower side, the second servo motor is installed on the lower side of the first servo motor, the second screw rod is provided on the lower side of the first screw rod, and the first slide rod is installed on the lower side. The second sliding rod is fixed on the side, the second moving block is connected to the outer ring of the second screw rod through threads, and the brush is also fixed on the lower side of the second moving block.

Preferably, the first screw rod is connected to the power end of the first servo motor through a coupling, the first moving block is slidingly connected to the first slide rod, and the second screw rod is connected to the second screw rod. The power ends of the two servo motors are connected through a coupling, and the second moving block is slidingly connected to the second slide rod.

Preferably, the sedimentation mechanism includes a sedimentation tank, a water inlet, a drive motor, a rotating shaft, a stirring rod, a guide plate and a scraper. The water inlet is provided at the upper end of the sedimentation tank, and the drive is installed at one end of the sedimentation tank. The motor, the rotating shaft is rotatably connected in the settling tank, a plurality of the stirring rods are welded to the outer ring of the rotating shaft, two guide plates are symmetrically fixed at both ends of the lower side of the rotating shaft, and the front of the settling tank is Two scrapers are welded to the side inner wall.

Preferably, one end of the rotating shaft is connected to the power end of the drive motor through a coupling, the first screw rod and the second screw rod are rotationally connected to the settling tank, and the guide plate is 45° to the horizontal line. -55°.

Preferably, the filtration mechanism includes a primary filter plate, a secondary filter plate, a collection box, a drainage pipe, a connecting sleeve, a clamp and a recovery pipe, and the secondary filter plate is provided on the lower side of the primary filter plate, The collection box is placed on the lower side of the secondary filter plate. The rear end of the collection box is connected to the drainage pipe. The other end of the drainage pipe is connected to the inner ring of the connecting sleeve through the clamp. The recovery pipe is fixed at the other end of the connecting sleeve.

Preferably, the mesh of the primary filter plate is larger than the mesh of the secondary filter plate. The primary filter plate, the secondary filter plate and the front end of the collection box are all welded with handles. The primary filter plate The upper side of the secondary filter plate is in contact with the brush of the first moving block, the upper side of the secondary filter plate is in contact with the brush of the second moving block, the primary filter plate, the secondary filter plate and the collection box It is slidingly connected to the sedimentation tank through a sealing gasket.

The beneficial effect is that by setting up the cleaning mechanism, when the device separates mud and water, the first servo motor drives the first screw rod to rotate through the coupling, so that the first moving block drives the brush along the first slide rod through thread action. Move left and right to make the brush clean the first-level filter plate. The second servo motor drives the second screw rod to rotate through the coupling, so that the second moving block drives the brush on the lower side to clean the second-level filter plate through the thread action. Cleaning is carried out to avoid clogging of the two filters and affecting the filtration efficiency. This design eliminates the need for workers to frequently replace the filters, thereby reducing work intensity. At the same time, only two filters need to be prepared, which reduces the production cost of the device.

Description of the drawings

Figure 1 is a schematic structural diagram of a mud water separation and reuse treatment station according to the utility model;

Figure 2 is a front cross-sectional view of a mud water separation and recycling treatment station according to the utility model;

Figure 3 is a B-B cross-sectional view of Figure 2;

Figure 4 is an enlarged view of position I in Figure 3;

Figure 5 is an enlarged schematic structural diagram of a collection box of a mud water separation and recycling treatment station according to the present invention.

Explanation of reference symbols:

1. Sedimentation mechanism; 2. Cleaning mechanism; 3. Filtering mechanism; 101. Sedimentation tank; 102. Water inlet; 103. Drive motor; 104. Rotating shaft; 105. Stirring rod; 106. Guide plate; 107. Scraper; 201 , the first servo motor; 202, the first screw rod; 203, the first slide rod; 204, the first moving block; 205, brush; 206, the second servo motor; 207, the second screw rod; 208, the second Slide rod; 209, second moving block; 301, primary filter plate; 302, secondary filter plate; 303, collection box; 304, drain pipe; 305, connecting sleeve; 306, clamp; 307, recovery pipe.

Detailed ways

The utility model will be further described below in conjunction with the accompanying drawings:

As shown in Figures 1 to 5, a mud water separation and reuse treatment station includes a sedimentation mechanism 1, a cleaning mechanism 2 and a filtering mechanism 3. A cleaning mechanism 2 is installed in the sedimentation mechanism 1, and a filtering mechanism is provided on the lower side of the cleaning mechanism 2. 3;

In this embodiment: the sedimentation mechanism 1 includes a sedimentation tank 101, a water inlet 102, a driving motor 103, a rotating shaft 104, a stirring rod 105, a guide plate 106 and a scraper 107. A water inlet 102 is provided at the upper end of the sedimentation tank 101, and one end of the sedimentation tank 101 A driving motor 103 is installed, and a rotating shaft 104 is rotatably connected in the sedimentation tank 101. One end of the rotating shaft 104 is connected to the power end of the driving motor 103 through a coupling. Multiple stirring rods 105 are welded to the outer ring of the rotating shaft 104. Both ends of the lower side of the rotating shaft 104 are symmetrical. Two guide plates 106 are fixed, and the guide plates 106 are 45°-55° to the horizontal line. Two scrapers 107 are welded to the inner wall of the front side of the sedimentation tank 101; by setting the sedimentation mechanism 1, when the device separates mud water, the mud water and The flocculant is poured into the sedimentation tank 101 from the water inlet 102. The drive motor 103 drives the rotating shaft 104 to rotate through the coupling, so that the rotating shaft 104 drives the stirring rod 105 to mix the muddy water and the flocculant to ensure that the muddy water can fully react with the flocculant.

In this embodiment: the cleaning mechanism 2 includes a first servo motor 201, a first screw mandrel 202, a first slide rod 203, a first moving block 204, a brush 205, a second servo motor 206, a second screw mandrel 207, and a first servo motor 201. The second sliding rod 208 and the second moving block 209 have a first screw rod 202 connected to one end of the first servo motor 201. The first screw rod 202 and the power end of the first servo motor 201 are connected through a coupling. The front of the first screw rod 202 A first sliding rod 203 is provided on the side of the first screw rod 202. A first moving block 204 is threadedly connected to the outer ring of the first screw rod 202. The first moving block 204 is slidingly connected to the first sliding rod 203. A hair is provided on the lower side of the first moving block 204. Brush 205, a second servo motor 206 is installed on the lower side of the first servo motor 201, a second screw rod 207 is installed on the lower side of the first screw rod 202, the power ends of the second screw rod 207 and the second servo motor 206 pass through a coupling connection, a second slide rod 208 is fixed on the lower side of the first slide rod 203, the first screw rod 202 and the second screw rod 207 are rotationally connected with the sedimentation tank 101, and the outer ring of the second screw rod 207 is threadedly connected with a second moving block. 209. The second moving block 209 is slidingly connected to the second sliding rod 208. A brush 205 is also fixed on the lower side of the second moving block 209; by setting the cleaning mechanism 2, the first servo motor 201 drives the first wire through the coupling. The rod 202 rotates, so that the first moving block 204 drives the brush 205 to move left and right along the first slide rod 203 through the thread action, so that the brush 205 cleans the first-level filter plate 301 to avoid impurities and sediments from clogging the first-level filter plate. The filter plate 301 affects its filtration efficiency. The second servo motor 206 drives the second screw rod 207 to rotate through the coupling, so that the second moving block 209 drives the brush 205 on the lower side of the second moving block 209 through the thread action to perform the filtering on the secondary filter plate 302. Cleaning prevents the secondary filter plate 302 from being clogged and affecting its filtration efficiency, so that workers do not need to frequently replace the filter, thereby reducing the work intensity of workers.

In this embodiment: the filter mechanism 3 includes a primary filter plate 301, a secondary filter plate 302, a collection box 303, a drainage pipe 304, a connecting sleeve 305, a clamp 306 and a recovery pipe 307. The lower side of the primary filter plate 301 is provided with The secondary filter plate 302 has a collection box 303 placed on the lower side of the secondary filter plate 302. The primary filter plate 301, the secondary filter plate 302 and the front end of the collection box 303 are all welded with handles. The mesh of the primary filter plate 301 is larger than that of the secondary filter plate 303. The mesh of the filter plate 302 is large, the upper side of the primary filter plate 301 is in contact with the brush 205 of the first moving block 204, and the upper side of the secondary filter plate 302 is in contact with the brush 205 of the second moving block 209. , the secondary filter plate 302 and the collection box 303 are slidingly connected to the sedimentation tank 101 through a sealing gasket. The rear end of the collection box 303 is connected to a drainage pipe 304. The other end of the drainage pipe 304 is connected to the inner ring of the connecting sleeve 305 through a clamp 306. The connecting sleeve The other end of 305 is fixed with a recovery pipe 307; by setting the filtering mechanism 3, when the device separates mud water, the primary filter plate 301 filters the larger impurities and flocculated sediments in the mud water, and the secondary filter plate 302 filters the larger impurities and flocculated sediments in the mud water. Small impurities and flocculated sediments are filtered. After the device filters the muddy water, the worker pulls out the primary filter plate 301 and the secondary filter plate 302 through the handle, so that the scraper 107 moves against the primary filter plate 301 and the secondary filter plate. The soil and impurities deposited on 302 are scraped off, and the scraped soil and impurities fall into the collection box 303. Then the worker loosens the clamp 306 to separate the drainage pipe 304 from the connecting sleeve 305, and removes the collection box 303 through the handle. Extracted to facilitate workers to recycle the filtered soil.

In the above structure, when the device is required to separate mud and water, the mud water and flocculant are poured into the sedimentation tank 101 from the water inlet 102, and the driving motor 103 drives the rotating shaft 104 to rotate through the coupling, so that the rotating shaft 104 drives the stirring rod 105. The muddy water and the flocculant are mixed to ensure that the muddy water can fully react with the flocculant. The first-level filter plate 301 filters larger impurities and flocculated sediments in the muddy water. The first servo motor 201 drives the first screw rod 202 through the coupling. Rotate, so that the first moving block 204 drives the brush 205 to move left and right along the first slide rod 203 through the thread action, so that the brush 205 cleans the primary filter plate 301 to avoid impurities and sediments from clogging the primary filter plate. 301 affects its filtration efficiency. The muddy water after passing through the primary filter plate 301 is filtered twice through the secondary filter plate 302, so that the secondary filter plate 302 can filter smaller impurities and flocculated sediments in the muddy water. The second servo The motor 206 drives the second screw rod 207 to rotate through the coupling, so that the second moving block 209 drives the brush 205 on the lower side of the second moving block 209 through the thread action to clean the secondary filter plate 302 to avoid clogging of the secondary filter plate 302. Filtration efficiency, the filtered water flows into the collection box 303, and flows to the recovery pipe 307 through the drainage pipe 304 and the connecting sleeve 305 for recycling; after the device filters the muddy water, the worker uses the handle to remove the first-level filter plate 301 and the second-level filter plate 301. The filter plate 302 is pulled out, so that the scraper 107 scrapes off the soil and impurities deposited on the primary filter plate 301 and the secondary filter plate 302. The scraped soil and impurities fall into the collection box 303, and then the worker releases the stuck The hoop 306 separates the drainage pipe 304 from the connecting sleeve 305, and the collection box 303 is pulled out through the handle to facilitate workers to recover the filtered soil.

The basic principles, main features and advantages of the present utility model are shown and described above. Those skilled in the industry should understand that the present utility model is not limited by the above-mentioned embodiments. The above-mentioned embodiments and descriptions only illustrate the principles of the present utility model. Without departing from the spirit and scope of the present utility model, the present utility model can be There will also be various changes and improvements in the new model, and these changes and improvements all fall within the scope of the claimed utility model. The protection scope of the present utility model is defined by the appended claims and their effects.

Claims (6)

1. The utility model provides a mud-water separation retrieval and utilization treatment station which characterized in that: including precipitation mechanism (1), cleaning mechanism (2) and filtering mechanism (3), install in precipitation mechanism (1) cleaning mechanism (2), cleaning mechanism (2) downside is provided with filtering mechanism (3), cleaning mechanism (2) include first servo motor (201), first lead screw (202), first slide bar (203), first movable block (204), brush (205), second servo motor (206), second lead screw (207), second slide bar (208) and second movable block (209), first servo motor (201) one end is connected with first lead screw (202), first lead screw (202) front side is provided with first slide bar (203), first lead screw (202) outer lane is through threaded connection have first movable block (204), first movable block (204) downside is provided with brush (205), first servo motor (201) downside is installed second servo motor (206), first (202) downside is provided with second lead screw (208) second slide bar (207), second lead screw (207) are connected through the second slide bar (209), the brush (205) is also fixed on the lower side of the second moving block (209).

2. The sludge-water separation recycling treatment station according to claim 1, wherein: the first screw rod (202) is connected with the power end of the first servo motor (201) through a coupler, the first moving block (204) is connected with the first sliding rod (203) in a sliding mode, the second screw rod (207) is connected with the power end of the second servo motor (206) through a coupler, and the second moving block (209) is connected with the second sliding rod (208) in a sliding mode.

3. The sludge-water separation recycling treatment station according to claim 1, wherein: the sedimentation mechanism (1) comprises a sedimentation tank (101), a water inlet (102), a driving motor (103), a rotating shaft (104), stirring rods (105), guide plates (106) and scraping plates (107), wherein the water inlet (102) is formed in the upper end of the sedimentation tank (101), the driving motor (103) is installed at one end of the sedimentation tank (101), the rotating shaft (104) is rotationally connected with the sedimentation tank (101), a plurality of stirring rods (105) are welded on the outer ring of the rotating shaft (104), two guide plates (106) are symmetrically fixed at two ends of the lower side of the rotating shaft (104), and two scraping plates (107) are welded on the inner wall of the front side of the sedimentation tank (101).

4. A sludge-water separation recycling treatment station according to claim 3, characterized in that: one end of the rotating shaft (104) is connected with the power end of the driving motor (103) through a coupler, the first screw rod (202) and the second screw rod (207) are rotationally connected with the sedimentation tank (101), and the guide plate (106) and the horizontal line form 45-55 degrees.

5. A sludge-water separation recycling treatment station according to claim 3, characterized in that: the filter mechanism (3) comprises a primary filter plate (301), a secondary filter plate (302), a collecting box (303), a drain pipe (304), a connecting sleeve (305), a clamp (306) and a recovery pipe (307), wherein the secondary filter plate (302) is arranged at the lower side of the primary filter plate (301), the collecting box (303) is arranged at the lower side of the secondary filter plate (302), the drain pipe (304) is connected to the rear end of the collecting box (303), the other end of the drain pipe (304) is connected with the inner ring of the connecting sleeve (305) through the clamp (306), and the recovery pipe (307) is fixed at the other end of the connecting sleeve (305).

6. The sludge-water separation recycling treatment station according to claim 5, wherein: the mesh of one-level filter plate (301) is bigger than the mesh of second grade filter plate (302), one-level filter plate (301) second grade filter plate (302) with collecting box (303) front end all welds there is the handle, one-level filter plate (301) upside and brush (205) contact of first movable block (204), second grade filter plate (302) upside with brush (205) contact of second movable block (209), one-level filter plate (301) second grade filter plate (302) with collecting box (303) with deposit box (101) are through sealed pad sliding connection.