CN213260248U

CN213260248U - Muddy water recycling device

Info

Publication number: CN213260248U
Application number: CN202021438197.4U
Authority: CN
Inventors: 杭家辉; 周福久; 詹新建
Original assignee: Hangzhou Ruiding Building Materials Co Ltd
Current assignee: Hangzhou Ruiding Building Materials Co Ltd
Priority date: 2020-07-20
Filing date: 2020-07-20
Publication date: 2021-05-25
Anticipated expiration: 2030-07-20

Abstract

The application relates to the technical field of muddy water treatment, in particular to a muddy water recycling device which comprises a recycling mechanism and a utilizing mechanism, wherein the recycling mechanism comprises a recycling tank and a first stirring assembly, the recycling tank is connected with a material sucking pipe through a first water pump, and the recycling tank is connected with a conveying pipe through a second water pump; utilize the mechanism including utilizing jar, inlet tube and second stirring subassembly, the conveyer pipe communicates in utilizing the jar, and utilizes the jar to be connected with the discharging pipe through the third water pump. Collect extravagant material and rainwater with outside collecting box, in the material suction of first water pump in with outside collecting box recovered jar, the material ration of second water pump in will retrieving jar is inhaled and is utilized the jar, measures the material concentration who utilizes the jar afterwards to according to material concentration to letting in quantitative water in utilizing the jar, later the third water pump will utilize the material suction of jar. This application has utilized discarded material and rainwater effectively.

Description

Muddy water recycling device

Technical Field

The application relates to the technical field of muddy water treatment, in particular to a muddy water recycling device.

Background

The common concrete is artificial stone which is prepared by taking cement as a main cementing material, adding water, sand, stones and chemical additives and mineral admixtures if necessary, mixing the materials according to a proper proportion, uniformly stirring, densely molding, curing and hardening.

During the preparation, transportation and transfer of concrete, part of sand, stones, water and concrete often fall to the ground, causing waste of materials, and therefore, improvement is needed.

SUMMERY OF THE UTILITY MODEL

In order to utilize waste material and rainwater effectively, this application provides a muddy water recycle device.

The application provides a mud water recycle device adopts following technical scheme: a muddy water recycling device comprises a recycling mechanism and a utilizing mechanism, wherein the recycling mechanism comprises a recycling tank and a first stirring assembly arranged in the recycling tank, the recycling tank is connected with a material sucking pipe through a first water pump, and the recycling tank is connected with a conveying pipe through a second water pump; utilize the mechanism including utilizing the jar, locating the inlet tube that utilizes on the jar and locating the second stirring subassembly that utilizes in the jar, utilize the jar to pass through the inlet pipe and connect in the second water pump, and utilize the jar to be connected with the discharging pipe through the third water pump.

By adopting the technical scheme, the waste materials and rainwater are collected by the external collection box, and the materials and rainwater in the external collection box are sucked into the recovery tank by the first water pump through the material suction pipe; when the recycled materials need to be used, the materials in the recycling tank are firstly stirred uniformly by the first stirring component, then the materials in the recycling tank are quantitatively sucked into the utilization tank by the second water pump, and the materials in the utilization tank are stirred uniformly by the second stirring component; the material concentration in the utilization jar is measured afterwards to let in quantitative water in utilizing the jar according to material concentration, when utilizing the material concentration in the jar to reach appointed requirement, the third water pump will utilize the material suction in the jar, has realized the recycle of discarded object material and rainwater.

Preferably, the utilization mechanism further comprises a concentration measuring assembly, the concentration measuring assembly comprises a measuring cup, and scales are arranged on the measuring cup.

Through adopting above-mentioned technical scheme, the graduated flask can take out quantitative material in utilizing the jar, and after the solid in the material subsides, the concentration of material can be calculated through the scale on the graduated flask, convenient operation.

Preferably, the concentration measuring assembly further comprises a bracket fixed on the utilization tank, and a pull rope connected with the bracket and the measuring cup, wherein the density of the measuring cup is greater than that of water.

Through adopting above-mentioned technical scheme, because of the density of graduated flask is greater than the density of water, so the graduated flask can sink into the material that utilizes the jar because of self gravity in, through changing the length that the stay cord hangs down, can make the graduated flask sample at the height that utilizes jar interior difference, has improved material concentration measurement's accuracy.

Preferably, utilize the mechanism still including the closing component who is used for sealing the graduated flask, the closing component includes the closing cap, makes the closing cap break away from in the locating part of graduated flask upper surface and fix the montant in graduated flask bottom inner wall center department, is equipped with the wearing and establishing groove that supplies the montant to wear to establish on the closing cap, and the density of closing cap is greater than the density of water.

By adopting the technical scheme, after the equivalent weight cup sinks into the material in the utilization tank, the limiting piece enables the sealing cover to be separated from the upper surface of the measuring cup, so that the material in the utilization tank can enter the measuring cup; when needs break away from the graduated flask pulling in the material, cancellation locating part is spacing to the closing cap, and the closing cap will follow the montant gliding and seal in the graduated flask because of self gravity, so at the ascending in-process of graduated flask, the material of graduated flask is difficult for and utilizes the material in the jar to take place the exchange for the graduated flask can accurately take out and utilize the material of jar internal not co-altitude.

Preferably, the diameter of closing cap is greater than the external diameter of graduated flask, and the locating part is for fixing on utilizing the jar inner wall and being used for conflicting the limiting plate of closing cap.

By adopting the technical scheme, when the equivalent cup is descended below the limit plate, the upper surface of the limit plate is abutted against the lower surface of the sealing cover, so that the sealing cover cannot descend continuously, and the materials in the utilization tank enter the measuring cup; when the measuring cup rises to the upper part of the limiting plate, the sealing cover is attached to the upper surface of the measuring cup, so that materials with different heights in the measuring cup can be accurately taken out and utilized.

Preferably, a limit ring for the pull rope to pass through is fixed on the bracket.

Through adopting above-mentioned technical scheme, the spacing ring makes the position that the stay cord was located difficult skew, has guaranteed that the limiting plate can accurately block the closing cap.

Preferably, stay cord and graduated flask all are equipped with a plurality of groups, and the length of per two stay cords is all inequality, and every stay cord all is connected in support and corresponding graduated flask.

Through adopting above-mentioned technical scheme, the workman of being convenient for carries out the multiunit sample simultaneously.

Preferably, the support is rotatably connected with a rotating shaft, a plurality of winding wheels for connecting corresponding pull ropes are fixedly sleeved outside the rotating shaft, the outer diameters of every two winding wheels are different, and the length of the pull rope connected with the winding wheel with the larger outer diameter is longer in every two winding wheels.

Through adopting above-mentioned technical scheme, when rotatory pivot, the stay cord that all rolling wheels will synchronous revolution and rolling correspond, the big more rolling wheel of external diameter, the height that the graduated flask was located is lower more, and the stay cord is fast more by the speed of rolling, so rotatory pivot can make all graduated flasks all break away from in utilizing the material in the jar to make the graduated flask be difficult for colliding the pivot, improved sampling efficiency.

To sum up, the application comprises the following beneficial technical effects:

1. the recycling mechanism and the utilization mechanism are arranged, so that the waste materials and rainwater are adjusted to the specified concentration, and the recycling of the waste materials and the rainwater is realized;

2. due to the arrangement of the measuring cup and the pull rope, the measuring cup can sample by utilizing different heights in the tank, so that the accuracy of measuring the concentration of the material is improved;

3. due to the arrangement of the sealing assembly, the measuring cup can accurately take out and utilize materials with different heights in the tank;

4. the setting of pivot and rolling wheel for the multiunit graduated flask can take a sample simultaneously, has improved sampling efficiency.

Drawings

FIG. 1 is a schematic sectional view of the whole of an embodiment of the present application;

FIG. 2 is a schematic sectional view showing the use of a canister in an embodiment of the present application;

FIG. 3 is a schematic cross-sectional view of a concentration measurement assembly and a closure assembly in an embodiment of the present application.

Reference numerals: 1. a recovery mechanism; 11. a recovery tank; 111. a first water pump; 112. a material suction pipe; 113. a second water pump; 114. a delivery pipe; 12. a first stirring assembly; 121. a motor; 122. a stirring rod; 123. stirring blades; 2. a utilization mechanism; 21. a utilization tank; 211. a water inlet pipe; 212. a third water pump; 213. a discharge pipe; 22. a second stirring assembly; 23. a concentration measurement component; 231. a support; 232. a rotating shaft; 233. a winding wheel; 234. a rocker; 235. pulling a rope; 236. a measuring cup; 24. a closure assembly; 241. a closure cap; 242. a vertical rod; 243. a groove is arranged in a penetrating way; 244. a limiting plate; 245. a limit ring.

Detailed Description

The present application is described in further detail below with reference to figures 1-3.

The embodiment of the application discloses muddy water recycle device. As shown in fig. 1, a mud water recycling device includes a recycling mechanism 1 and a recycling mechanism 2, the recycling mechanism 1 includes a recycling tank 11 and a first stirring assembly 12 disposed in the recycling tank 11, the recycling tank 11 is connected to a material suction pipe 112 through a first water pump 111, and the recycling tank 11 is connected to a conveying pipe 114 through a second water pump 113; the use mechanism 2 includes a use tank 21, a water inlet pipe 211 attached to the use tank 21, a second stirring unit 22 and a concentration measuring unit 23 provided in the use tank 21, and the delivery pipe 114 is connected to the use tank 21, and the use tank 21 is connected to a discharge pipe 213 via a third water pump 212.

The waste materials and rainwater are collected by an external collection box, and the materials and rainwater in the external collection box are sucked into the recovery tank 11 by a first water pump 111 through a material suction pipe 112; when the recycled materials need to be used, the materials in the recycling tank 11 are firstly stirred uniformly by the first stirring component 12, then the materials in the recycling tank 11 are quantitatively sucked into the utilization tank 21 by the second water pump 113, and the materials in the utilization tank 21 are stirred uniformly by the second stirring component 22; the concentration of the materials in the utilization tank 21 is measured through the concentration measuring assembly 23, quantitative water is introduced into the utilization tank 21 according to the concentration of the materials, and when the concentration of the materials in the utilization tank 21 meets the specified requirement, the third water pump 212 sucks the materials in the utilization tank 21 out, so that the recycling of waste materials and rainwater is realized.

As shown in fig. 1, the first stirring assembly 12 includes a motor 121 fixed on the recovery tank 11, an output shaft of the motor 121 extends in a vertical direction and is fixed with a stirring rod 122, and a plurality of stirring blades 123 are fixed on the stirring rod 122. When the motor 121 is started, the stirring rod 122 drives the stirring blade 123 to rotate and stir the materials and the rainwater in the recovery tank 11.

As shown in fig. 1, the second agitating assembly 22 has the same structure as the first agitating assembly 12, and the connection relationship between the second agitating assembly 22 and the use tank 21 is the same as the connection relationship between the first agitating assembly 12 and the recovery tank 11.

As shown in fig. 2, the concentration measuring assembly 23 includes a bracket 231 fixed on the utilization tank 21, a rotating shaft 232 rotatably connected to the bracket 231, and a plurality of winding wheels 233 fixedly sleeved outside the rotating shaft 232, wherein a rocker 234 is fixed on the rotating shaft 232, and the outer diameters of every two winding wheels 233 are different; each winding wheel 233 is fixed with a pull rope 235, the lengths of every two pull ropes 235 are different, and the larger the outer diameter of each pull rope 235 connected with the winding wheel 233 is, the longer the length of each pull rope 235 connected with the winding wheel 233 is; each pull rope 235 is provided with a measuring cup 236, the measuring cup 236 is provided with scales, and the density of the measuring cup 236 is greater than that of water.

The measuring cup 236 sinks into the material in the utilization tank 21 due to the self gravity, and the winding wheel 233 with the larger outer diameter reduces the height of the measuring cup 236, so that the sampling of the material with different heights is realized; then the rocker 234 is rotated, all the winding wheels 233 synchronously rotate and wind the corresponding pulling ropes 235, the winding speed of the pulling ropes 235 is faster when the outer diameter of the winding wheel 233 is larger, so that all the measuring cups 236 can be separated from the materials in the utilization tank 21 and ascend to the same height, and the sampling efficiency is improved; after the solid in the measuring cup 236 is settled, the concentration of the material can be calculated through the scale on the measuring cup 236, and the operation is convenient.

As shown in fig. 2 and 3, the utilization mechanism 2 further comprises a plurality of closing assemblies 24 for closing the corresponding measuring cups 236, each closing assembly 24 comprises a closing cover 241, a limiting member and a vertical rod 242, each pull rope 235 is connected to each measuring cup 236 through the corresponding vertical rod 242, and each vertical rod 242 is fixed at the center of the inner wall of the bottom of each measuring cup 236, so that the opening of each measuring cup 236 faces upwards when the measuring cups 236 are sampled; a through groove 243 for the vertical rod 242 to penetrate through is arranged on the sealing cover 241, so that the sealing cover 241 can slide axially along the vertical rod 242 and is sealed on the measuring cup 236; the density of the closing cap 241 is greater than that of water so that the closing cap 241 can sink into the material.

As shown in fig. 3, the diameter of the closing cap 241 is larger than the outer diameter of the measuring cup 236, and the stopper is a stopper plate 244 fixed to the inner wall of the utility pot 21. When the measuring cup 236 descends below the limit plate 244, the upper surface of the limit plate 244 abuts against the lower surface of the closing cover 241, so that the closing cover 241 cannot descend continuously to enter the measuring cup 236 by using the material in the tank 21; when the measuring cup 236 rises above the limiting plate 244, the closing cover 241 is attached to the upper surface of the measuring cup 236, so that the material in the measuring cup 236 is not easily exchanged with the material in the use tank 21 in the rising process of the measuring cup 236, and the measuring cup 236 can accurately take out the materials with different heights in the use tank 21.

As shown in fig. 3, a limiting ring 245 for the pulling rope 235 to pass through is fixed on the bracket 231, and the position of the pulling rope 235 is not easy to shift by the limiting ring 245, so that the limiting plate 244 can accurately block the closing cover 241.

The implementation principle of the muddy water recycling device in the embodiment of the application is as follows: the waste materials and rainwater are collected by an external collection box, and the materials and rainwater in the external collection box are sucked into the recovery tank 11 by a first water pump 111 through a material suction pipe 112; when the material of retrieving needs to be used, will homogenize the material in the recovery jar 11 through first stirring subassembly 12 earlier, rethread second water pump 113 will retrieve the material ration in the jar 11 and inhale in utilizing jar 21 to will utilize the material in jar 21 to homogenize through second stirring subassembly 22.

Then, the concentration of the material in the utilization tank 21 is measured, the rocker 234 is rotated firstly, the rocker 234 drives all the winding wheels 233 to rotate through the rotating shaft 232, the winding wheels 233 drive the unwinding pull rope 235 to enable the measuring cup 236 to sink into the material in the utilization tank 21 and descend below the limiting plate 244, the upper surface of the limiting plate 244 abuts against the lower surface of the closing cover 241, and the closing cover 241 cannot descend continuously; different measuring cups 236 are at different heights, so that the sampling of materials with different heights is realized.

Then the rocker 234 is rotated, the rocker 234 drives all the winding wheels 233 to rotate through the rotating shaft 232, the winding wheels 233 wind the pull rope 235, the measuring cup 236 rises above the limiting plate 244, and the closing cover 241 is attached to the upper surface of the measuring cup 236, so that in the rising process of the measuring cup 236, the materials in the measuring cup 236 are not easy to exchange with the materials in the utilization tank 21, and the measuring cup 236 can accurately take out the materials in the utilization tank 21 at different heights; then, when the solid matter in the measuring cup 236 is settled, the concentration of the material can be calculated through the scale on the measuring cup 236.

Then, quantitative water is introduced into the utilization tank 21 according to the material concentration, and when the material concentration in the utilization tank 21 meets the specified requirement, the third water pump 212 sucks out the materials in the utilization tank 21, so that the recycling of waste materials and rainwater is realized.

The above embodiments are preferred embodiments of the present application, and the protection scope of the present application is not limited by the above embodiments, so: all equivalent changes made according to the structure, shape and principle of the present application shall be covered by the protection scope of the present application.

Claims

1. The utility model provides a muddy water recycle device which characterized in that: the recycling device comprises a recycling mechanism (1) and a utilizing mechanism (2), wherein the recycling mechanism (1) comprises a recycling tank (11) and a first stirring assembly (12) arranged in the recycling tank (11), the recycling tank (11) is connected with a material sucking pipe (112) through a first water pump (111), and the recycling tank (11) is connected with a conveying pipe (114) through a second water pump (113); utilize mechanism (2) including utilizing jar (21), locating inlet tube (211) on utilizing jar (21) and locating second stirring subassembly (22) in utilizing jar (21), conveyer pipe (114) communicate in utilizing jar (21), and utilize jar (21) to be connected with discharging pipe (213) through third water pump (212).

2. The mud water recycling device according to claim 1, wherein: utilize mechanism (2) still to include concentration measurement subassembly (23), concentration measurement subassembly (23) include graduated flask (236), are equipped with the scale on graduated flask (236).

3. The mud water recycling device according to claim 2, wherein: the concentration measuring assembly (23) further comprises a bracket (231) fixed on the utilization tank (21), and a pull rope (235) connected to the bracket (231) and the measuring cup (236), wherein the density of the measuring cup (236) is greater than that of water.

4. The mud water recycling device according to claim 3, wherein: the utilization mechanism (2) further comprises a sealing component (24) used for sealing the measuring cup (236), the sealing component (24) comprises a sealing cover (241), a limiting piece used for enabling the sealing cover (241) to be separated from the upper surface of the measuring cup (236) and a vertical rod (242) fixed at the center of the inner wall of the bottom of the measuring cup (236), a penetrating groove (243) for the vertical rod (242) to penetrate through is formed in the sealing cover (241), and the density of the sealing cover (241) is greater than that of water.

5. The mud water recycling device according to claim 4, wherein: the diameter of the closing cap (241) is larger than the outer diameter of the measuring cup (236), and the limiting piece is a limiting plate (244) which is fixed on the inner wall of the utilization tank (21) and used for abutting against the closing cap (241).

6. The mud water recycling device according to claim 5, wherein: and a limiting ring (245) for the pull rope (235) to pass through is fixed on the bracket (231).

7. The mud water recycling device according to claim 3, wherein: stay cord (235) and graduated flask (236) all are equipped with a plurality of groups, and the length of per two stay cords (235) is all different, and every stay cord (235) all connect in support (231) and corresponding graduated flask (236).

8. The mud water recycling device according to claim 7, wherein: the winding device is characterized in that a rotating shaft (232) is rotatably connected to the support (231), a plurality of winding wheels (233) which are connected with the pulling rope (235) are fixedly sleeved outside the rotating shaft (232), the outer diameters of every two winding wheels (233) are different, and the length of the pulling rope (235) connected with the winding wheel (233) with the larger outer diameter is longer in every two winding wheels (233).