Domestic water integrated treatment equipment with intelligent data monitoring function

Abstract

The invention discloses domestic water integrated treatment equipment capable of intelligently monitoring data, which is applied to the technical field of domestic water purification, and is characterized in that a booster pump is arranged to pressurize water entering a drainage pipe, the water entering the drainage pipe firstly flows to a fine screen frame along the drainage pipe, the water is filtered, impurities slide on a coarse screen section, and the coarse screen section is separated from the fine screen frame; when the domestic water filter is used periodically, the slag net and the impurity net can be taken down through the end cover and the auxiliary cover and can be cleaned or replaced, the effect of filtering solid impurities in the domestic water is achieved, and the domestic water filter is simple in structure, convenient to use and high in practicability. When water flows through the filter membrane, filtered water flows through the functional pipe, enters the hollow shaft and penetrates out of the filter membrane so as to further purify water, and at the moment, liquid flows downwards between the filter membrane and the inner pipe so as to facilitate treatment such as subsequent water drainage or further purification.

Description

Technical Field

[0001] The present invention belongs to the technical field of domestic water purification, and in particular relates to an integrated domestic water treatment device with intelligent data monitoring. Background Art

[0002] Water treatment methods include physical treatment and chemical treatment. Humans have been treating water for many years. Physical methods include using filter materials with different pore sizes to remove impurities from the water through adsorption or barrier methods. The more important adsorption method is adsorption with activated carbon. The barrier method is to pass water through the filter material to prevent larger impurities from passing through, thereby obtaining cleaner water. In addition, physical methods also include sedimentation, which is to allow impurities with smaller specific gravity to float to the surface of the water and be fished out, or impurities with larger specific gravity to settle below and be obtained. Chemical methods use various chemicals to convert impurities in the water into substances that are less harmful to the human body, or to concentrate the impurities. The oldest chemical treatment method should be to add alum to the water. After the impurities in the water gather and their volume increases, they can be filtered to remove the impurities.

[0003] Although the existing integrated domestic water treatment equipment can clean domestic water through a variety of processes, it still needs a long pipeline to transport domestic water to the sewage treatment location after leaving the drainage area. The process will also be affected by rainwater drainage or impurity blockage. In the domestic water use area, most of them can only simply filter and discharge sewage, and the treatment completion rate is low, which is inconvenient to use.

[0004] Based on the above-mentioned situation, we found that it is difficult for the existing integrated domestic water treatment device to avoid the above problems at the same time. Therefore, we proposed a domestic water integrated treatment device that can be directly connected to the pipeline in the domestic water area, which has a small footprint, is easy to maintain and control, and has better data intelligent monitoring than a simple filtration system. Summary of the invention

[0005] The purpose of the present invention is to provide an integrated domestic water treatment device with intelligent data monitoring. The device has the advantages of being able to be directly connected to the pipelines in the domestic water area, having a small footprint, being easy to maintain and control, and having better treatment effects than simple filtering systems.

[0006] The above technical objectives of the present invention are achieved through the following technical solutions: a data intelligent monitoring integrated water treatment equipment, including a booster pump, a drain pipe and a monitoring control system, the left side of the drain pipe is bolted to the booster pump, the right side of the drain pipe is bolted to a secondary pipe, the right side of the drain pipe is bolted to a connecting shell, and the right side of the connecting shell is bolted to the secondary pipe;

[0007] A functional tube is installed at the bottom of the auxiliary tube, a switching tube is provided on the left side of the functional tube, inner sides of the functional tube and the switching tube are both bolted with inner tubes, an upper frame and a lower frame are bolted on the inner side of the inner tube, a hollow shaft is bolted on the inner side of the lower frame, and a filter membrane is bonded on the outer side of the hollow shaft;

[0008] A fine mesh frame is bolted to the inner side of the drainage pipe, a coarse mesh segment is rotatably connected to the right side of the fine mesh frame, a slide plate is provided at the bottom of the coarse mesh segment, a telescopic rod is bolted to the bottom of the slide plate, the bottom of the telescopic rod is bolted to the connecting shell, a spring is provided on the outer side of the telescopic rod, an end cover is provided at the top of the auxiliary pipe, a sub-cover is provided at the top of the end cover, an impurity net is bolted to the bottom of the sub-cover, a slag net is bolted to the bottom of the end cover, the impurity net is arranged on the inner side of the slag net, the slag net is arranged on the inner side of the auxiliary pipe, and openings are provided on the left sides of the slag net and the impurity net;

[0009] The monitoring and control system includes a central control module, the input end of the central control module is unidirectionally electrically connected to a visual sensor, a flow sensor, a water quality sensor and a flow rate sensor, and the output end of the central control module is unidirectionally electrically connected to a coarse filter module, a fine filter module and a cleaning module.

[0010] By adopting the above technical scheme, a booster pump is set to pressurize the water entering the drain pipe. The water entering the drain pipe will first flow along the drain pipe to the fine mesh frame and filter the water. The impurities will slide on the coarse mesh section and flow along the inclined coarse mesh section to the inside of the impurity net. The filtered debris and water will slide along the slide plate to the fine mesh frame and filter the water. After periodic use, the debris net and the impurity net can be removed respectively through the end cover and the auxiliary cover, and cleaned or replaced, which has the effect of filtering solid impurities in domestic water. The filtered water will flow through the functional tube and enter the inside of the hollow shaft and pass through the inside of the filter membrane to further purify the water. At this time, the liquid will flow downward between the filter membrane and the inner tube to facilitate subsequent drainage or It is further purification and other treatments. When the filter membrane is used for a long time and the water purification effect is poor, the switching tube can be controlled to allow the liquid to temporarily flow from the inside of the switching tube, so as to clean or replace the structure in the functional tube. The monitoring and control system is used to control the structure, the visual sensor is used to observe whether there is foreign matter accumulation on the coarse network segment and inside the drain pipe, the flow sensor is used to record the water flow, the water quality sensor is used to detect the water quality, so as to adjust the subsequent treatment process, the flow rate sensor determines whether it is necessary to switch the water pipe according to the water flow rate, the coarse filter module and the fine filter module can facilitate the cleaning of impurities in the water, and the cleaning module can easily break up large impurities for easy cleaning.

[0011] The present invention is further configured as follows: an electrically controlled three-way valve is bolted to the top of the functional tube, and the left side of the electrically controlled three-way valve is bolted to the switching tube.

[0012] By adopting the above technical solution and setting an electrically controlled three-way valve, it is possible to control water to flow from the switching pipe after the water stops flowing from the functional pipe.

[0013] The present invention is further configured as follows: a funnel is bolted to the bottom of the upper frame, and a long groove is provided on the inner side of the hollow shaft.

[0014] By adopting the above technical solution, the flow direction of domestic water can be guided by providing a funnel, and the long groove can improve the contact effect between the liquid and the filter membrane.

[0015] The present invention is further configured as follows: a rotating shaft is rotatably connected to the inner side of the fine mesh frame, the outer side of the rotating shaft is rotatably connected to the coarse mesh segment, a cross column is bolted to the inner wall of the connecting shell, and the top of the cross column is used in conjunction with the coarse mesh segment.

[0016] By adopting the above technical solution, the coarse mesh segment can be easily moved along the fine mesh segment by setting the rotating shaft, and the set cross column is used to support the coarse mesh segment.

[0017] The present invention is further configured as follows: an auxiliary motor is bolted to the rear side of the connecting shell, and an output end of the auxiliary motor penetrates the connecting shell and is bolted to a cam.

[0018] By adopting the above technical solution, an auxiliary motor is set up to facilitate driving the cam to press the coarse mesh segment and the slide plate. The coarse mesh segment will be reset by gravity and contact the cross column, and the slide plate will be reset along the telescopic rod and the spring to play the role of an oscillating structure, preventing impurities from accumulating and being unable to slide off by themselves.

[0019] The present invention is further configured as follows: a limiting rod is bolted to the bottom of the end cover, a sliding sleeve is bolted to the right side of the auxiliary pipe, and the inner side of the sliding sleeve is plugged with the limiting rod.

[0020] By adopting the above technical solution, by setting a limit rod and a sliding sleeve, the position of the end cover and the auxiliary pipe can be limited when they are connected, avoiding abnormal use due to tilting or rotation.

[0021] The present invention is further configured as follows: a control motor is bolted to the top of the drain pipe, a crushing shaft is bolted to the output end of the control motor, and a crushing shell is bolted to the inner side of the drain pipe.

[0022] By adopting the above technical solution, by setting a control motor to cooperate with the crushing shaft, it is convenient to crush the impurities when they are accumulated in the crushing shell so that they can pass through the blocking net.

[0023] The present invention is further configured as follows: a retaining net is bolted to the inner side of the crushing shell, an arc-shaped shell is bolted to the bottom of the crushing shell, and a floating ball is provided on the inner side of the arc-shaped shell.

[0024] By adopting the above technical solution, through setting up a barrier net, in addition to intercepting large-sized impurities, the float can also be limited to prevent it from being difficult to reset due to excessive buoyancy. The set float will float up due to buoyancy when the liquid passes through, and fall and reset after the liquid circulation ends, and block the bottom gas to prevent the backflow of dirt and odor.

[0025] The present invention is further configured as follows: a flow opening is provided on the outer side of the float, and the arc-shaped outer shell is provided on the top of the fine mesh frame.

[0026] By adopting the above technical solution, the flow opening can be set to prevent the float from being completely stuck in the fine mesh frame and being difficult to rise due to buoyancy.

[0027] The present invention is further configured as follows: the visual sensor is installed on the inner side of the crushing shell and the inner side of the connecting shell, the flow sensor is installed on the top of the inner side of the functional tube, and the water quality sensor and the flow rate sensor are both installed on the bottom of the inner side of the functional tube.

[0028] By adopting the above technical solution, by arranging visual sensors installed on the inner side of the crushing shell and the inner side of the connecting shell, it is easy to observe whether large impurities are accumulated and whether it is necessary to start the auxiliary motor to assist the fine mesh frame and the coarse mesh frame to discharge impurities.

[0029] In summary, the present invention has the following beneficial effects:

[0030] By setting a booster pump to pressurize the water entering the drain pipe, the water entering the drain pipe will first flow along the drain pipe to the fine mesh frame and filter the water, the impurities will slide on the coarse mesh section and flow along the inclined coarse mesh section to the inside of the impurity net, the filtered debris and water will slide along the slide plate to the fine mesh frame and filter the water, after periodic use, the debris net and the impurity net can be removed through the end cover and the sub-cover respectively, and cleaned or replaced, which has the effect of filtering solid impurities in domestic water, the filtered water will flow through the functional pipe, and enter the inside of the hollow shaft, and pass through the inside of the filter membrane to further purify the water, at this time the liquid will flow downward between the filter membrane and the inner tube to facilitate subsequent drainage or further Purification and other treatments. When the filter membrane is used for a long time and the water purification effect is poor, the switching tube can be controlled to allow the liquid to temporarily flow from the inside of the switching tube, so as to clean or replace the structure in the functional tube. The monitoring and control system is used to control the structure. The visual sensor is used to observe whether there is foreign matter accumulation on the coarse network segment and inside the drain pipe. The flow sensor is used to record the water flow. The water quality sensor is used to detect the water quality for adjustment of subsequent treatment procedures. The flow rate sensor determines whether it is necessary to switch the water pipe according to the water flow rate. The coarse filter module and the fine filter module can facilitate the cleaning of impurities in the water. The cleaning module can easily break up large impurities for easy cleaning. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0032] Figure 2 It is a schematic diagram of the internal structure of the main body of the present invention;

[0033] Figure 3 It is a schematic diagram of the internal structure of the drainage pipe of the present invention;

[0034] Figure 4 It is a front cross-sectional view of the main structure of the present invention;

[0035] Figure 5 It is a schematic diagram of the functional tube structure of the present invention;

[0036] Figure 6 It is a schematic diagram of the rear part of the main structure of the present invention;

[0037] Figure 7 It is a schematic diagram of the monitoring and control system of the present invention.

[0038] Figure numerals: 1. Booster pump; 2. Drain pipe; 3. Monitoring and control system; 301. Central control module; 302. Visual sensor; 303. Flow sensor; 304. Water quality sensor; 305. Flow velocity sensor; 306. Coarse filter module; 307. Fine filter module; 308. Cleaning module; 4. Auxiliary pipe; 5. Functional pipe; 6. Switching pipe; 7. Inner pipe; 8. Upper shelf; 9. Lower shelf; 10. Hollow shaft; 11. Filter membrane; 12. Connecting shell ; 13. Fine mesh frame; 14. Coarse mesh segment; 15. Slide plate; 16. Telescopic rod; 17. Spring; 18. End cover; 19. Auxiliary cover; 20. Impurity net; 21. Slag net; 22. Electric three-way valve; 23. Funnel; 24. Rotating shaft; 25. Cross column; 26. Auxiliary motor; 27. Cam; 28. Limit rod; 29. ​​Sliding sleeve; 30. Control motor; 31. Crushing shaft; 32. Crushing shell; 33. Blocking net; 34. Arc shell; 35. Float. DETAILED DESCRIPTION

[0039] The present invention is further described in detail below in conjunction with the accompanying drawings.

[0040] Embodiment 1:

[0041] refer to Figure 1-7 , a data intelligent monitoring domestic water integrated treatment equipment, including a booster pump 1, a drain pipe 2 and a monitoring control system 3, the left side of the drain pipe 2 is bolted to the booster pump 1, the right side of the drain pipe 2 is bolted to a secondary pipe 4, the right side of the drain pipe 2 is bolted to a connecting shell 12, and the right side of the connecting shell 12 is bolted to the secondary pipe 4;

[0042] A fine mesh frame 13 is bolted to the inner side of the drainage pipe 2, and a coarse mesh segment 14 is rotatably connected to the right side of the fine mesh frame 13. A slide plate 15 is provided at the bottom of the coarse mesh segment 14, and a telescopic rod 16 is bolted to the bottom of the slide plate 15. The bottom of the telescopic rod 16 is bolted to the connecting shell 12, and a spring 17 is provided on the outer side of the telescopic rod 16. An end cover 18 is provided at the top of the auxiliary pipe 4, and a sub-cover 19 is provided at the top of the end cover 18. An impurity net 20 is bolted to the bottom of the sub-cover 19, and a slag net 21 is bolted to the bottom of the end cover 18. The impurity net 20 is arranged on the inner side of the slag net 21, and the slag net 21 is arranged on the inner side of the auxiliary pipe 4. The left sides of the slag net 21 and the impurity net 20 are both provided with openings;

[0043] The monitoring and control system 3 includes a central control module 301, the input end of the central control module 301 is unidirectionally electrically connected to a visual sensor 302, a flow sensor 303, a water quality sensor 304 and a flow rate sensor 305, and the output end of the central control module 301 is unidirectionally electrically connected to a coarse filter module 306, a fine filter module 307 and a cleaning module 308;

[0044] By setting a booster pump 1 to pressurize the water entering the drain pipe 2, the water entering the drain pipe 2 will first flow along the drain pipe 2 to the fine mesh frame 13, and the water will be filtered out, and the impurities will slide on the coarse mesh segment 14 and fall into the interior of the impurity net 20 along the inclined coarse mesh segment 14, and the filtered debris and water will slide along the slide plate 15 to the fine mesh frame 13, and the water will be filtered out. After periodic use, the debris net 21 and the impurity net 20 can be removed respectively through the end cover 18 and the auxiliary cover 19, and cleaned or replaced, which has the effect of filtering solid impurities in domestic water.

[0045] like Figure 3 As shown, the inner side of the fine mesh frame 13 is rotatably connected with a rotating shaft 24, the outer side of the rotating shaft 24 is rotatably connected with the coarse mesh segment 14, and a cross column 25 is bolted to the inner wall of the connecting shell 12. The top of the cross column 25 is used in conjunction with the coarse mesh segment 14. By setting the rotating shaft 24, the coarse mesh segment 14 can be easily moved along the fine mesh segment, and the set cross column 25 is used to support the coarse mesh segment 14.

[0046] like Figure 2 As shown, an auxiliary motor 26 is bolted to the rear side of the connecting shell 12, and the output end of the auxiliary motor 26 passes through the connecting shell 12 and is bolted to a cam 27. By providing the auxiliary motor 26, it is easy to drive the cam 27 to press the coarse mesh segment 14 and the slide plate 15. The coarse mesh segment 14 will be reset by gravity and contact the cross column 25, and the slide plate 15 will be reset along the telescopic rod 16 and the spring 17 to play the role of an oscillating structure to prevent impurities from accumulating and being unable to slide off by themselves.

[0047] like Figure 4 As shown, a limit rod 28 is bolted to the bottom of the end cover 18, and a sliding sleeve 29 is bolted to the right side of the auxiliary pipe 4. The inner side of the sliding sleeve 29 is plugged into the limit rod 28. By setting the limit rod 28 to cooperate with the sliding sleeve 29, it is convenient to limit the position of the end cover 18 and the auxiliary pipe 4 when they are connected, so as to avoid abnormal use caused by tilting or rotation.

[0048] like Figure 3 As shown, a control motor 30 is bolted to the top of the drain pipe 2, a crushing shaft 31 is bolted to the output end of the control motor 30, and a crushing shell 32 is bolted to the inner side of the drain pipe 2. By arranging the control motor 30 in conjunction with the crushing shaft 31, it is convenient to crush impurities when they accumulate in the crushing shell 32, so that they can pass through the retaining net 33.

[0049] like Figure 3As shown, a retaining net 33 is bolted to the inner side of the pulverizing shell 32, and an arc-shaped shell 34 is bolted to the bottom of the pulverizing shell 32. A floating ball 35 is provided on the inner side of the arc-shaped shell 34. By setting the retaining net 33, in addition to intercepting large-sized impurities, the floating ball 35 can also be limited to avoid it being difficult to reset due to excessive buoyancy. The floating ball 35 will float up due to buoyancy when liquid passes through, and will fall and reset after the liquid circulation ends, and block the bottom gas to avoid the backflow of dirt and odor.

[0050] like Figure 3 As shown, a flow opening is provided on the outer side of the float 35, and the arc-shaped shell 34 is provided on the top of the fine mesh frame 13. By providing the flow opening, it can be avoided that the float 35 is completely stuck in the fine mesh frame 13 and is difficult to rise due to buoyancy.

[0051] like Figure 7 As shown, the visual sensor 302 is installed on the inner side of the crushing shell 32 and the inner side of the connecting shell 12, the flow sensor 303 is installed on the top of the inner side of the functional tube 5, and the water quality sensor 304 and the flow rate sensor 305 are both installed on the bottom of the inner side of the functional tube 5. By arranging the visual sensor 302 to be installed on the inner side of the crushing shell 32 and the inner side of the connecting shell 12, it is easy to observe whether large impurities are accumulated and whether it is necessary to start the auxiliary motor 26 to assist the fine mesh frame 13 and the coarse mesh frame to discharge impurities.

[0052] Brief description of the use process: When in use, the drainage system of domestic water is directly connected to the booster pump 1, and the water entering the drain pipe 2 is pressurized. The water entering the drain pipe 2 will first flow along the drain pipe 2 to the fine mesh frame 13, and the water will be filtered. The impurities will slide on the coarse mesh segment 14 and fall into the interior of the impurity net 20 along the inclined coarse mesh segment 14. The filtered debris and water will slide along the slide plate 15 to the fine mesh frame 13, and the water will be filtered. After periodic use, the debris net 21 and the impurity net 20 can be removed respectively through the end cover 18 and the auxiliary cover 19. The visual sensor 302 is installed on the inner side of the crushing shell 32 and the inner side of the connecting shell 12 to observe whether large impurities are accumulated and whether it is necessary to start the auxiliary motor 26 to assist the fine mesh frame 13 and the coarse mesh frame in discharging impurities.

[0053] Embodiment 2:

[0054] refer to Figure 1-5 , a data intelligent monitoring domestic water integrated treatment equipment, including a booster pump 1, a drain pipe 2 and a monitoring control system 3, the left side of the drain pipe 2 is bolted to the booster pump 1, the right side of the drain pipe 2 is bolted to a secondary pipe 4, the right side of the drain pipe 2 is bolted to a connecting shell 12, and the right side of the connecting shell 12 is bolted to the secondary pipe 4;

[0055] A functional tube 5 is installed at the bottom of the auxiliary tube 4, a switching tube 6 is provided on the left side of the functional tube 5, an inner tube 7 is bolted to the inner side of both the functional tube 5 and the switching tube 6, an upper frame 8 and a lower frame 9 are bolted to the inner side of the inner tube 7, a hollow shaft 10 is bolted to the inner side of the lower frame 9, and a filter membrane 11 is bonded to the outer side of the hollow shaft 10;

[0056] In combination with the three-way valve, the filtered water can flow through the functional tube 5, enter the interior of the hollow shaft 10, and pass through the interior of the filter membrane 11 to further purify the water. At this time, the liquid will flow downward between the filter membrane 11 and the inner tube 7 to facilitate subsequent drainage or further purification. When the filter membrane 11 is used for a long time and the water purification effect is poor, the switch tube 6 can be controlled to allow the liquid to temporarily flow from the interior of the switch tube 6 to facilitate cleaning or replacement of the structure in the functional tube 5. The monitoring and control system 3 is used to control the structure. The visual sensor 302 is used to observe whether there are foreign objects accumulated on the coarse mesh segment 14 and inside the drain pipe 2. The flow sensor 303 is used to record the water flow. The water quality sensor 304 is used to detect the water quality to facilitate adjustment of the subsequent treatment process. The flow rate sensor 305 determines whether it is necessary to switch the water pipe according to the water flow rate. The coarse filter module 306 and the fine filter module 307 can facilitate the cleaning of impurities in the water. The cleaning module 308 can facilitate the crushing of large impurities for cleaning.

[0057] like Figure 5 As shown, an electrically controlled three-way valve 22 is bolted to the top of the functional pipe 5, and the left side of the electrically controlled three-way valve 22 is bolted to the switching pipe 6. By setting the electrically controlled three-way valve 22, it is easy to control the water to flow from the switching pipe 6 after the water stops flowing from the functional pipe 5.

[0058] like Figure 5 As shown, a funnel 23 is bolted to the bottom of the upper frame 8, and a long groove is provided on the inner side of the hollow shaft 10. By providing the funnel 23, the flow direction of domestic water can be conveniently guided, and the long groove can conveniently improve the contact effect between the liquid and the filter membrane 11.

[0059] Brief description of the use process: When in use, the filtered water can flow to the functional pipe 5 through the three-way valve, and enter the interior of the hollow shaft 10, pass through the long groove from the interior of the filter membrane 11, and be filtered by the filter membrane 11. At this time, the liquid will flow downward between the filter membrane 11 and the inner tube 7 to facilitate subsequent drainage or further purification. When the filter membrane 11 is used for a long time and the water purification effect is poor, the three-way valve is controlled to temporarily circulate the liquid from the inside of the switching pipe 6 to clean or replace the structure in the functional pipe 5. The monitoring control system 3 is used to control the structure. The visual sensor 302 is used to observe whether there are foreign objects accumulated on the coarse mesh section 14 and inside the drainage pipe 2. The flow sensor 303 is used to record the water flow. The water quality sensor 304 is used to detect the water quality to adjust the subsequent processing steps. The flow rate sensor 305 determines whether it is necessary to switch the water pipe according to the water flow rate. The coarse filter module 306 and the fine filter module 307 can facilitate the cleaning of impurities in the water. The cleaning module 308 can facilitate the crushing of large impurities for cleaning.

[0060] This specific embodiment is merely an explanation of the present invention and is not a limitation of the present invention. After reading this specification, those skilled in the art may make non-creative modifications to the present embodiment as needed. However, as long as they are within the scope of the claims of the present invention, they are protected by the patent law.

Claims

1. An integrated domestic water treatment device with intelligent data monitoring, comprising a booster pump (1), a drain pipe (2) and a monitoring control system (3), characterized in that: The left side of the drainage pipe (2) is bolted to the booster pump (1), the right side of the drainage pipe (2) is bolted to the auxiliary pipe (4), the right side of the drainage pipe (2) is bolted to the connecting shell (12), and the right side of the connecting shell (12) is bolted to the auxiliary pipe (4); A functional tube (5) is installed at the bottom of the auxiliary tube (4), a switching tube (6) is provided on the left side of the functional tube (5), an inner tube (7) is bolted to the inner side of both the functional tube (5) and the switching tube (6), an upper frame (8) and a lower frame (9) are bolted to the inner side of the inner tube (7), a hollow shaft (10) is bolted to the inner side of the lower frame (9), and a filter membrane (11) is bonded to the outer side of the hollow shaft (10); A fine mesh frame (13) is bolted to the inner side of the drainage pipe (2); a coarse mesh section (14) is rotatably connected to the right side of the fine mesh frame (13); a slide plate (15) is provided at the bottom of the coarse mesh section (14); a telescopic rod (16) is bolted to the bottom of the slide plate (15); the bottom of the telescopic rod (16) is bolted to the connecting shell (12); a spring (17) is provided on the outer side of the telescopic rod (16); an end cover (18) is provided at the top of the auxiliary pipe (4); a sub-cover (19) is provided at the top of the end cover (18); an impurity net (20) is bolted to the bottom of the sub-cover (19); a slag net (21) is bolted to the bottom of the end cover (18); the impurity net (20) is arranged on the inner side of the slag net (21); the slag net (21) is arranged on the inner side of the auxiliary pipe (4); and openings are provided on the left sides of the slag net (21) and the impurity net (20); The monitoring and control system (3) comprises a central control module (301), wherein an input end of the central control module (301) is unidirectionally electrically connected to a visual sensor (302), a flow sensor (303), a water quality sensor (304) and a flow rate sensor (305), and an output end of the central control module (301) is unidirectionally electrically connected to a coarse filter module (306), a fine filter module (307) and a debris removal module (308).

2. The integrated living water treatment equipment with intelligent data monitoring according to claim 1 is characterized by: An electrically controlled three-way valve (22) is bolted to the top of the functional tube (5), and the left side of the electrically controlled three-way valve (22) is bolted to the switching tube (6).

3. The integrated living water treatment equipment with intelligent data monitoring according to claim 1 is characterized by: A funnel (23) is bolted to the bottom of the upper frame (8), and a long groove is provided on the inner side of the hollow shaft (10).

4. The integrated living water treatment equipment with intelligent data monitoring according to claim 1 is characterized by: The inner side of the fine mesh frame (13) is rotatably connected to a rotating shaft (24), the outer side of the rotating shaft (24) is rotatably connected to the coarse mesh segment (14), the inner wall of the connecting shell (12) is bolted with a cross column (25), and the top of the cross column (25) is used in conjunction with the coarse mesh segment (14).

5. The integrated living water treatment equipment with intelligent data monitoring according to claim 1 is characterized by: An auxiliary motor (26) is bolted to the rear side of the connection housing (12), and an output end of the auxiliary motor (26) passes through the connection housing (12) and is bolted to a cam (27).

6. The integrated living water treatment equipment with intelligent data monitoring according to claim 1 is characterized by: The bottom of the end cover (18) is bolted with a limit rod (28), the right side of the auxiliary pipe (4) is bolted with a sliding sleeve (29), and the inner side of the sliding sleeve (29) is plugged with the limit rod (28).

7. The integrated living water treatment equipment with intelligent data monitoring according to claim 1 is characterized by: A control motor (30) is bolted to the top of the drainage pipe (2), a crushing shaft (31) is bolted to the output end of the control motor (30), and a crushing shell (32) is bolted to the inner side of the drainage pipe (2).

8. The integrated living water treatment equipment with intelligent data monitoring according to claim 7 is characterized by: A retaining net (33) is bolted to the inner side of the crushing shell (32), an arc-shaped shell (34) is bolted to the bottom of the crushing shell (32), and a floating ball (35) is provided on the inner side of the arc-shaped shell (34).

9. The integrated living water treatment equipment with intelligent data monitoring according to claim 8 is characterized by: The outer side of the floating ball (35) is provided with a flow opening, and the arc-shaped outer shell (34) is arranged on the top of the fine mesh frame (13).

10. The integrated domestic water treatment equipment with intelligent data monitoring according to claim 7 is characterized in that: The visual sensor (302) is installed on the inner side of the crushing shell (32) and the inner side of the connecting shell (12), the flow sensor (303) is installed on the top of the inner side of the functional tube (5), and the water quality sensor (304) and the flow rate sensor (305) are both installed on the bottom of the inner side of the functional tube (5).

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