A low-carbon building construction equipment and carbon emission control method based on big data

Abstract

The present invention discloses a low-carbon building construction equipment based on big data and a carbon emission control method thereof, which relates to the field of low-carbon building construction, including a sedimentation box, the inner bottom wall of which is provided with a partition, the partition divides the interior of the sedimentation box into a sewage tank and a clean water tank, the top of the sewage tank is provided with a first filter plate, the top of the clean water tank is provided with a sealing plate, the outer wall of the sedimentation box is provided with an energy storage component, one end of the sedimentation box is provided with a plurality of first water outlets in an array, a sewage tank below the plurality of first water outlets and embedded in one end of the sedimentation box, a plurality of water outlet channels away from the first water outlet and arranged in an array at the bottom of one end of the sedimentation box, a sewage discharge component below the clean water tank and embedded in the sedimentation box, and a filtering device is provided inside the sedimentation box. The present invention can recycle water resources through the components provided, thereby improving the utilization of water resources.

Description

Technical Field

[0001] The present invention mainly relates to the technical field of low-carbon building construction, and specifically to a low-carbon building construction equipment and a carbon emission control method thereof based on big data. Background Art

[0002] Low-carbon buildings refer to reducing the use of fossil energy, improving energy efficiency and reducing carbon dioxide emissions throughout the entire life cycle of building materials and equipment manufacturing, construction and building use. Low-carbon buildings have gradually become the mainstream trend in the international construction industry. An often overlooked fact is that buildings account for almost 50% of total carbon dioxide emissions, a proportion far higher than that of transportation and industry.

[0003] According to a construction water circulation device provided by the patent document with application number CN201910582070.5, the device includes a separation chamber, a circulation chamber and a water supply mechanism for connecting the separation chamber and the circulation chamber, the upper end of the separation chamber is provided with an inlet and a distribution port, the inner side of the separation chamber is provided with a filter mesh plate, and the distribution port is located below the filter mesh plate. It is characterized in that: the separation chamber includes an upper separation chamber and a lower separation chamber, the lower separation chamber is connected to a blower, a connecting pipe and an air distribution pipe, the blower is connected to the air distribution pipe through a connecting pipe, a plurality of air outlet holes are evenly arranged on the pipe wall of the air distribution pipe, and a sewage outlet is provided on the lower separation chamber.

[0004] The product structure in the above patent is simple, and can effectively utilize external resources to save energy. On a general construction site, there will be many construction workers staying on the site, and the water consumption is very large. For example, the water used by workers, canteens and construction is usually not recycled after use, resulting in a waste of water resources. Summary of the invention

[0005] Based on this, the purpose of the present invention is to provide a low-carbon building construction equipment and a carbon emission control method thereof based on big data to solve the technical problems raised in the above background technology.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a low-carbon building construction equipment based on big data, comprising a sedimentation box, the inner bottom wall of the sedimentation box is provided with a partition, the partition divides the interior of the sedimentation box into a sewage tank and a clean water tank, the top of the sewage tank is provided with a first filter plate, the top of the clean water tank is provided with a sealing plate, the outer wall of the sedimentation box is provided with an energy storage component, one end of the sedimentation box is provided with a plurality of first water outlets in an array, a sewage trough below the plurality of first water outlets and embedded in one end of the sedimentation box, a plurality of water outlet channels away from the first water outlets and arranged in an array at the bottom of one end of the sedimentation box, a sewage discharge component below the clean water tank and embedded in the sedimentation box, and a filtering device is provided inside the sedimentation box;

[0007] The filtering device includes a scraping component arranged at the bottom of the sewage tank, a pumping component arranged at the bottom of the sewage tank and fixed to the side wall of the partition, a diversion pipe arranged at the side wall of the partition and fixed to the bottom of the clean water tank, the diversion pipe, the inner wall of the diversion pipe is provided with a filter cylinder, one end of the filter cylinder is provided with a sealing plug, the side wall of the sealing plug is provided with a cleaning component, one end of the diversion pipe and a filter frame arranged at the bottom of the clean water tank, the top of the filter frame is provided with a second filter plate, and the side wall of the filter frame is provided with a pushing component.

[0008] Preferably, the energy storage component includes four solar panels arranged on the outer wall of the sedimentation box, an energy storage box arranged on the outer wall of the sedimentation box, and the energy storage box is connected to an external power supply. In this preferred embodiment, the energy storage component can convert solar radiation energy into electrical energy through the photoelectric effect.

[0009] Preferably, the scraping component includes a scraping plate arranged at the bottom of the sewage trough, two pull rods symmetrically arranged on the side wall of the scraping plate with the center of the scraping plate as the axis, a first limiting slide arranged above the two pull rods and on the side wall of the sewage trough, and a pull plate at one end of the two pull rods and on the side wall of the first water outlet. In this preferred embodiment, the scraping component can simply clean the dirt at the bottom of the sewage trough.

[0010] Preferably, the pumping component includes a dual-input submersible pump disposed at the bottom of the sewage tank and fixed to the side wall of the partition, one of the input ends of the dual-input submersible pump is provided with a filter cylinder, and the other input end of the dual-input submersible pump is provided with a pumping channel, and the pumping channel passes through the side wall of the partition and extends to the interior of the clean water tank. In this preferred embodiment, the pumping component can draw water from the sewage tank and then draw the sewage into the filter cylinder for filtration.

[0011] Preferably, the cleaning component includes a waterproof motor arranged on the side wall of the sealing plug, the execution end of the waterproof motor passes through the side wall of the sealing plug and is connected to a rotating rod, and a plurality of scrapers are arranged in an array on the outer wall of the rotating rod. In this preferred embodiment, the cleaning component can clean the dirt inside the filter cylinder.

[0012] Preferably, the pushing component includes an underwater electric cylinder arranged on the side wall of the filter frame and connected to one end of the waterproof motor, a second limiting slide arranged on the bottom of the filter frame and the bottom of the clean water tank, and the side wall of the waterproof motor is provided with a protrusion, and the protrusion is slidably connected to the second limiting slide through the underwater electric cylinder. In this preferred embodiment, the pushing component can pull the cleaning component, and then the cleaning component can clean the inside of the filter cylinder.

[0013] Preferably, the sewage discharge component includes an electric valve disposed below the clean water tank and embedded in the sedimentation tank. In this preferred embodiment, the sewage discharge component can discharge the dirt cleaned from the inside of the filter cylinder out of the sedimentation tank.

[0014] Preferably, the side wall of the scraper is provided with an arc plate. In this preferred embodiment, the arc plate facilitates the scraper to clean the bottom of the sewage tank more thoroughly when scraping dirt.

[0015] Preferably, the bottom of the sewage trough is sloped toward the first water outlet, and the bottom of the clean water trough is sloped toward the multiple water outlet channels. In this preferred embodiment, the sloped sewage trough can gather more dirt near the sewage trough, and the sloped clean water trough can better gather water at the water outlet channel.

[0016] According to the above technical solution of a low-carbon building construction equipment based on big data, a carbon emission control method of low-carbon building construction equipment based on big data will also be provided, comprising the following steps:

[0017] Step 1: Preparation: Connect the sedimentation tanks with pipes at various places with high water consumption, and then place the equipment in a sunny place. At this time, the energy storage component will store energy and then supply power to the electrical appliances inside the equipment;

[0018] Step 2: Filtration work. When the sewage enters the sedimentation tank, the pumping component draws the sewage inside the sewage tank and filters the sewage through the filter cylinder, and then discharges the clean water into the filter frame, and then discharges it from the second filter plate into the clean water tank. Then, the places where construction equipment needs filtered water are connected to the water outlet channel through pipes to supply water to the construction equipment. The construction equipment that does not need clean water source is connected to the first water outlet through pipes to supply water to the construction equipment. When the filter cylinder needs to be cleaned, start the sewage discharge component, cleaning component and pushing component to clean the filter cylinder and continue the next filtration work. When there is dirt at the bottom of the sewage tank, the sewage tank is simply cleaned by manually using the scraping component to reduce carbon emissions.

[0019] In summary, the present invention mainly has the following beneficial effects:

[0020] The energy storage component can convert solar radiation energy into electrical energy through the photoelectric effect. The scraping component can simply clean the dirt at the bottom of the sewage tank. The pumping component can extract water from the sewage tank and then pump the sewage into the filter cylinder for filtration. The cleaning component can clean the dirt inside the filter cylinder. The pushing component can pull the cleaning component, and then the cleaning component can clean the inside of the filter cylinder. The sewage discharge component can discharge the dirt cleaned from the inside of the filter cylinder into the sedimentation box. The arc plate makes it easier for the scraping plate to clean the bottom of the sewage tank more thoroughly when scraping dirt. The sloped sewage tank can gather more dirt near the sewage discharge tank, and the sloped clean water tank can better gather water to the water outlet channel. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is an axial view of the present invention;

[0022] Figure 2 This is an axial view of the water outlet channel of the present invention;

[0023] Figure 3 An exploded view of the present invention;

[0024] Figure 4 It is an axial view of the partition of the present invention;

[0025] Figure 5 It is a schematic diagram of the enlarged structure of point A of the present invention;

[0026] Figure 6 It is an axial view of the dirt scraping component of the present invention;

[0027] Figure 7 is a side sectional view of the present invention;

[0028] Figure 8 It is a schematic diagram of the enlarged structure of point B of the present invention.

[0029] Description of the drawings: 10, sedimentation box; 11, partition; 111, sewage tank; 112, clean water tank; 12, first filter plate; 13, sealing plate; 14, energy storage component; 141, solar panel; 142, energy storage box; 15, first water outlet; 16, sewage tank; 17, water outlet channel; 18, sewage discharge component; 181, electric valve; 20, filtering device; 21, scraping component; 211, scraping plate; 2111, curved plate; 212, pull rod; 21 3. First limit slide; 214. Pull plate; 22. Pumping component; 221. Dual-input submersible pump; 222. Filter cartridge; 223. Pumping channel; 23. Diversion pipe; 24. Filter cylinder; 25. Sealing plug; 26. Cleaning component; 261. Waterproof motor; 262. Rotating rod; 263. Scraper; 27. Filter frame; 271. Second filter plate; 28. Pushing component; 281. Underwater electric cylinder; 282. Second limit slide; 283. Bump. DETAILED DESCRIPTION

[0030] The following will be combined with the accompanying drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. The embodiments described below with reference to the accompanying drawings are exemplary and are only used to explain the present invention, and cannot be understood as limiting the present invention.

[0031] The following describes an embodiment of the present invention based on its overall structure. Example

[0032] Please refer to the attached Figure 1 , 2 As shown in Figures 3, 4, and 7, in a preferred embodiment of the present invention, a low-carbon building construction equipment based on big data includes a sedimentation tank 10, the inner bottom wall of the sedimentation tank 10 is provided with a partition 11, the partition 11 divides the interior of the sedimentation tank 10 into a sewage tank 111 and a clean water tank 112, the top of the sewage tank 111 is provided with a first filter plate 12, the top of the clean water tank 112 is provided with a sealing plate 13, the outer wall of the sedimentation tank 10 is provided with an energy storage component 14, one end of the sedimentation tank 10 is provided with a plurality of first water outlets 15 in an array, and a sewage trough 16 is embedded in one end of the sedimentation tank 10 below the plurality of first water outlets 15, away from the first water outlets 15 and in an array A plurality of water outlet channels 17 are arranged at the bottom of one end of the sedimentation tank 10, a sewage discharge component 18 is arranged below the clean water tank 112 and embedded in the sedimentation tank 10, a filtering device 20 is arranged inside the sedimentation tank 10, the energy storage component 14 includes four solar panels 141 arranged on the outer wall of the sedimentation tank 10, an energy storage box 142 is arranged on the outer wall of the sedimentation tank 10, the energy storage box 142 is externally connected to a power supply, the bottom of the sewage tank 111 is sloped toward the first water outlet 15, the bottom of the clean water tank 112 is sloped toward the plurality of water outlet channels 17, the sewage discharge component 18 includes an electric valve 181 arranged below the clean water tank 112 and embedded in the sedimentation tank 10.

[0033] It should be noted that, in the present embodiment, each place with a large water consumption is connected to the sedimentation tank 10 by a pipe, such as a construction site kitchen, a construction site staff dormitory, etc., and then the equipment is placed in a place with sufficient sunlight. At this time, the energy storage component 14 stores energy and then powers the electrical appliances inside the equipment. Then, the construction equipment that needs to use filtered water sources is connected to the water outlet channel 17 through a pipe, such as dust reduction equipment, etc., and the equipment that does not need to filter the water source is connected to the first water outlet 15 through a pipe, such as cement mixing equipment, etc. When the weather is sunny, the solar panel 141 converts solar radiation energy into electrical energy through the photoelectric effect and stores it in the battery inside the energy storage box 142, and then the electrical appliances inside the equipment are powered by the battery. If there is no sun, the electrical appliances inside the equipment are powered by an external power supply. When sewage enters the sedimentation tank 10, the sewage tank 111 stores the sewage therein, and then the sewage tank 111 reaches the limit water level line.

[0034] Please refer to the attached Figure 1 , 3 As shown in Figures 5, 6, 7, and 8, in a preferred embodiment of the present invention, the filtering device 20 includes a scraping component 21 disposed at the bottom of the sewage tank 111, a pumping component 22 disposed at the bottom of the sewage tank 111 and fixed to the side wall of the partition 11, a guide pipe 23 disposed on the side wall of the partition 11 and fixed to the bottom of the clean water tank 112, a filter cylinder 24 is disposed on the inner wall of the guide pipe 23, and a sealing plug 25 is disposed at one end of the filter cylinder 24. The scraping component 21 includes a scraping plate 211 disposed at the bottom of the sewage tank 111, and two pull rods 211 are symmetrically disposed on the side wall of the scraping plate 211 with the center as the axis. 12, a first limiting slide 213 is arranged above the two pull rods 212 and on the side wall of the sewage tank 111, a pull plate 214 is arranged at one end of the two pull rods 212 and on the side wall of the first water outlet 15, and the side wall of the scraper plate 211 is provided with an arc plate 2111, and the pumping component 22 includes a double-input submersible pump 221 arranged at the bottom of the sewage tank 111 and fixed on the side wall of the partition 11, one of the input ends of the double-input submersible pump 221 is provided with a filter cartridge 222, and the other input end of the double-input submersible pump 221 is provided with a pumping channel 223, and the pumping channel 223 passes through the side wall of the partition 11 and extends to the inside of the clean water tank 112.

[0035] It should be noted that, in the present embodiment, the dual-input submersible pump 221 is started, one of the input ends of the dual-input submersible pump 221 is started, the filter cartridge 222 filters the sewage once, and then the dual-input submersible pump 221 draws the sewage into the filter cylinder 24, and then the filtered water enters the filter frame 27 from the diversion pipe 23 and then is output from the second filter plate 271 into the clean water tank 112 until the water inside the clean water tank 112 reaches the highest water level line and stops, or the water inside the sewage tank 111 stops below the lowest water level line. If it is raining, the first filter plate 12 performs a simple filtration on the rainwater to filter large dirt, and then enters the sewage tank 111.

[0036] Please refer to the attached Figure 3 , 5 As shown in the figure, in a preferred embodiment of the present invention, a cleaning component 26 is provided on the side wall of the sealing plug 25, a filter frame 27 is provided at one end of the diversion pipe 23 and at the bottom of the clean water tank 112, a second filter plate 271 is provided on the top of the filter frame 27, and a pushing component 28 is provided on the side wall of the filter frame 27. The cleaning component 26 includes a waterproof motor 261 provided on the side wall of the sealing plug 25, the execution end of the waterproof motor 261 passes through the side wall of the sealing plug 25 and is connected to the rotating rod 262, and a plurality of scrapers 263 are provided in an array on the outer wall of the rotating rod 262. The pushing component 28 includes an underwater electric cylinder 281 provided on the side wall of the filter frame 27 and connected to one end of the waterproof motor 261, and a second limiting slide 282 provided at the bottom of the filter frame 27 and the bottom of the clean water tank 112. The side wall of the waterproof motor 261 is provided with a protrusion 283, and the protrusion 283 is slidably connected to the second limiting slide 282 through the underwater electric cylinder 281.

[0037] It should be noted that, in the present embodiment, when there is a lot of dirt inside the filter cylinder 24, the other input end of the dual-input submersible pump 221 is started, filtered water is extracted from the pumping channel 223 to flush the filter cylinder 24, and then the motor is started to open the electric valve 181, and then the underwater electric cylinder 281 is started to drive the waterproof motor 261 to move in the second limit slide 282. At this time, the sealing plug 25 moves with the rotating rod 262 to discharge the dirt from one end of the filter cylinder 24, and then the waterproof motor 261 is started to drive the rotating rod 262 to rotate. At this time, the scraper 263 scrapes the dirt from the filter cylinder 24. The underwater electric cylinder 281 works reciprocatingly until the filter cylinder 24 is clean, and then the underwater electric cylinder 281 returns to its original position and the electric valve 181 is closed. When there is a lot of dirt inside the sewage tank 111, the worker pulls the pull plate 214, and the pull plate 214 drives the scraper plate 211 to move in the first limiting slide 213 through the pull rod 212, and then discharges the dirt at the bottom of the sewage tank 111 from the sewage tank 111 through the sewage tank 16. The arc plate 2111 can prevent the dirt from being completely discharged when the scraper plate 211 is scraping. After scraping, the scraper plate 211 returns to its original position, and then the next filtering work is carried out.

[0038] According to the above embodiments, a carbon emission control method for low-carbon building construction equipment based on big data is also provided, comprising the following steps:

[0039] Step 1: Preparation work, connect the sedimentation tank 10 with pipes at various places with large water consumption, and then place the equipment in a sunny place. At this time, the energy storage component 14 stores energy and then supplies power to the electrical appliances inside the equipment;

[0040] Step 2: Filtration work. When the sewage enters the sedimentation tank 10, the pumping component 22 draws the sewage inside the sewage tank 111 and filters the sewage through the filter cylinder 24, and then discharges the clean water into the filter frame 27, and then discharges it from the second filter plate 271 into the clean water tank 112, and then connects the water outlet channel 17 to the places where the construction equipment needs filtered water through a pipe to supply water to the construction equipment, and connects the construction equipment that does not need a clean water source to the first water outlet 15 through a pipe to supply water to the construction equipment. When the filter cylinder 24 needs to be cleaned, start the sewage discharge component 18, the cleaning component 26 and the pushing component 28 to clean the filter cylinder 24, and continue the next filtration work. When there is dirt at the bottom of the sewage tank 111, the sewage tank 111 is simply cleaned by manually using the scraping component 21 to reduce carbon emissions.

[0041] The working principle of the present invention is:

[0042] The electrical components in the present invention are all triggered to operate by a PLC controller.

[0043] Connect the sedimentation tank 10 with pipes at various places with large water consumption, such as the construction site kitchen, construction site staff dormitory, etc., and then place the equipment in a sunny place. At this time, the energy storage component 14 stores energy and then powers the electrical appliances inside the equipment. Then, the construction equipment that needs to use filtered water sources is connected to the water outlet channel 17 through pipes, such as dust reduction equipment, etc., and the equipment that does not need to filter the water source is connected to the first water outlet 15 through pipes, such as cement mixing equipment, etc. When the weather is sunny, the solar panel 141 converts solar radiation energy into electrical energy through the photoelectric effect and stores it in the battery inside the energy storage box 142, and then the electrical appliances inside the equipment are powered by the battery. The equipment is powered on. If there is no sun, the electrical appliances inside the equipment are powered on through an external power supply. When sewage enters the sedimentation tank 10, the sewage tank 111 stores the sewage therein. Then, when the sewage tank 111 reaches the limit water level, the double-input submersible pump 221 is started. The double-input submersible pump 221 starts one of the input ends. The filter cartridge 222 filters the sewage once. Then, the double-input submersible pump 221 draws the sewage into the filter cylinder 24. Then, the filtered water enters the filter frame 27 from the diversion pipe 23 and is then output from the second filter plate 271 into the clean water tank 112 until the water inside the clean water tank 112 reaches the highest water level and stops, or the sewage tank 111 When the water level inside the filter cylinder 24 is lower than the lowest water level, the filter stops. If it is raining, the first filter plate 12 performs a simple filter on the rainwater to filter large dirt, and then enters the sewage tank 111. When there is a lot of dirt inside the filter cylinder 24, the other input end of the dual-input submersible pump 221 is started, and filtered water is extracted from the pumping channel 223 to flush the filter cylinder 24. Then the motor is started to open the electric valve 181, and then the underwater electric cylinder 281 is started to drive the waterproof motor 261 to move in the second limit slide 282. At this time, the sealing plug 25 moves with the rotating rod 262 to discharge the dirt from one end of the filter cylinder 24, and then the waterproof motor 261 is started to drive the rotating rod 262. Rotate, at this time the scraper 263 scrapes the dirt from the filter cylinder 24, the underwater electric cylinder 281 works reciprocatingly until the filter cylinder 24 is clean, then the underwater electric cylinder 281 returns to its original position, the electric valve 181 is closed, when there is a lot of dirt inside the sewage tank 111, the worker pulls the pull plate 214, the pull plate 214 drives the scraper plate 211 to move in the first limiting slide 213 through the pull rod 212, and then discharges the dirt at the bottom of the sewage tank 111 from the sewage tank 111 through the sewage tank 16, the arc plate 2111 can prevent the dirt from being completely discharged when the scraper plate 211 is scraping, after scraping is completed, the scraper plate 211 returns to its original position, and then the next filtering work is carried out.

[0044] Although an embodiment of the present invention has been shown and described, this specific embodiment is merely an explanation of the present invention and is not a limitation of the invention. The specific features, structures, materials or characteristics described may be combined in a suitable manner in any one or more embodiments or examples. After reading this specification, those skilled in the art may make modifications, substitutions and variations to the embodiments without creative contributions as needed without departing from the principles and purpose of the present invention. However, as long as they are within the scope of the claims of the present invention, they are protected by patent law.

Claims

1. A low-carbon building construction equipment based on big data, comprising a sedimentation box (10), characterized in that: The inner bottom wall of the sedimentation box (10) is provided with a partition (11), the partition (11) divides the interior of the sedimentation box (10) into a sewage tank (111) and a clean water tank (112), the top of the sewage tank (111) is provided with a first filter plate (12), the top of the clean water tank (112) is provided with a sealing plate (13), the outer wall of the sedimentation box (10) is provided with an energy storage component (14), one end of the sedimentation box (10) is provided with a plurality of first water outlets (15) in an array, a sewage trough (16) is arranged below the plurality of first water outlets (15) and embedded in one end of the sedimentation box (10), a plurality of water outlet channels (17) are arranged in an array at the bottom of one end of the sedimentation box (10) away from the first water outlets (15), a sewage discharge component (18) is arranged below the clean water tank (112) and embedded in the sedimentation box (10), and a filtering device (20) is arranged inside the sedimentation box (10); The filtering device (20) comprises a scraping component (21) arranged at the bottom of a sewage tank (111), a pumping component (22) arranged at the bottom of the sewage tank (111) and fixed to the side wall of the partition (11), a guide pipe (23) arranged on the side wall of the partition (11) and fixed to the bottom of the clean water tank (112), a filter cylinder (24) being arranged on the inner wall of the guide pipe (23), a sealing plug (25) being arranged at one end of the filter cylinder (24), and a sealing plug (25) being arranged on the side wall of the sealing plug (25). A cleaning component (26) is provided, a filter frame (27) is provided at one end of the diversion pipe (23) and is arranged at the bottom of the clean water tank (112), a second filter plate (271) is provided at the top of the filter frame (27), a pushing component (28) is provided on the side wall of the filter frame (27), and the pumping component (22) comprises a double-input submersible pump (221) which is arranged at the bottom of the sewage tank (111) and fixed to the side wall of the partition (11), and one of the input ends of the double-input submersible pump (221) is provided The filter cartridge (222) is provided with a pumping channel (223) at the other input end of the dual-input submersible pump (221), the pumping channel (223) penetrating the side wall of the partition (11) and extending into the interior of the clean water tank (112), the cleaning component (26) comprising a waterproof motor (261) provided on the side wall of the sealing plug (25), the execution end of the waterproof motor (261) penetrating the side wall of the sealing plug (25) and connected to a rotating rod (262), the outer wall of the rotating rod (262) The array is provided with a plurality of scrapers (263); the pushing component (28) comprises an underwater electric cylinder (281) provided on a side wall of the filter frame (27) and connected to one end of the waterproof motor (261); a second position-limiting slideway (282) provided at the bottom of the filter frame (27) and the bottom of the clean water tank (112); a protrusion (283) is provided on the side wall of the waterproof motor (261); and the protrusion (283) is slidably connected to the second position-limiting slideway (282) via the underwater electric cylinder (281).

2. The low-carbon building construction equipment based on big data according to claim 1 is characterized in that: The energy storage component (14) comprises four solar panels (141) arranged on the outer wall of the sedimentation box (10), and an energy storage box (142) arranged on the outer wall of the sedimentation box (10), wherein the energy storage box (142) is connected to an external power source.

3. The low-carbon building construction equipment based on big data according to claim 1 is characterized in that: The scraping component (21) comprises a scraping plate (211) disposed at the bottom of the sewage tank (111), two pull rods (212) symmetrically disposed on the side wall of the scraping plate (211) with the center of the scraping plate (211) as an axis, a first limiting slide (213) disposed above the two pull rods (212) and on the side wall of the sewage tank (111), and a pull plate (214) disposed at one end of the two pull rods (212) and on the side wall of the first water outlet (15).

4. The low-carbon building construction equipment based on big data according to claim 1 is characterized in that: The sewage discharge component (18) comprises an electric valve (181) disposed below the clean water tank (112) and embedded in the sedimentation tank (10).

5. The low-carbon building construction equipment based on big data according to claim 3 is characterized in that: The side wall of the dirt scraping plate (211) is provided with an arc-shaped plate (2111).

6. The low-carbon building construction equipment based on big data according to claim 1 is characterized in that: The bottom of the sewage tank (111) is sloped toward the first water outlet (15), and the bottom of the clean water tank (112) is sloped toward the plurality of water outlet channels (17).

7. A carbon emission control method for low-carbon building construction equipment based on big data according to any one of claims 1 to 6, characterized in that: The following steps are involved: Step 1: Preparation work, connect the sedimentation tank (10) with pipes at various places with large water consumption, and then place the device in a sunny place. At this time, the energy storage component (14) stores energy and then supplies power to the electrical appliances inside the device; Step 2: Filtration work. When sewage enters the sedimentation tank (10), the pumping component (22) extracts sewage from the sewage tank (111) through the filter cylinder (24) to filter the sewage, and then discharges clean water into the filter frame (27), and then discharges it from the second filter plate (271) into the clean water tank (112). Then, the places where construction equipment needs filtered water are connected to the water outlet channel (17) through a pipeline to supply water to the construction equipment. The construction equipment that does not need a clean water source is connected to the first water outlet (15) through a pipeline to supply water to the construction equipment. When the filter cylinder (24) needs to be cleaned, the sewage discharge component (18), the cleaning component (26) and the pushing component (28) are started to clean the filter cylinder (24) and continue the next filtering work. When there is dirt at the bottom of the sewage tank (111), the sewage tank (111) is simply cleaned by manually using the scraping component (21) to reduce carbon emissions.

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