Water treatment system capable of being remotely monitored and water purification equipment

Abstract

The water treatment system comprises a resin tank, a connecting pipe is installed at the top end of one side wall of the top end of the resin tank, the other side of the top end of the resin tank is connected with a quartz tank through a water conveying pipe, and a one-way valve is arranged at one end in the water conveying pipe. The device has the beneficial effects that through the design of the TDS sensor I and the TDS sensor II, water in the water storage tank I, the water in the water storage tank II and the water delivery pipe can be conveyed to the front of the ultrafiltration tank again by the water inlet pipes of the suction pump I and the suction pump II, so that the problem of water resource waste caused by discharge is avoided; through the design of a limiting plate, a rotating rod and a hasp, when a filter element in a purification tank such as a resin tank, a quartz tank and an ultrafiltration tank is replaced, the hasp on the rotating rod can be shifted to one side, and the limitation of the hasp on an extension plate is canceled, so that a new ultrafiltration filter element and the like can be conveniently limited and mounted by a limiting groove; and the shutdown maintenance time of the device is effectively reduced.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of water purification equipment, in particular to a water treatment system and water purification equipment capable of remote monitoring. BACKGROUND

[0002] The working principle of the reverse osmosis water purifier is that the raw water passes through the reverse osmosis membrane filter core, and the water molecules pass through the reverse osmosis membrane by pressurization, while the inorganic salt ions, organic matter, colloid, bacteria, viruses, etc. are intercepted by the reverse osmosis membrane and discharged with the concentrated water, thereby achieving the purpose of purifying water.

[0003] The existing water treatment system and water purification equipment capable of remote monitoring realize real-time monitoring and control of the equipment through the Internet of Things technology and the remote monitoring platform, so as to realize remote operation of the water purification equipment. Although the above method can realize the purification effect of the water purification equipment on water resources, when the device purifies water resources, water quality detection of the purified water is required to ensure the purification effect of the output water resources. When the water resource detects water quality problems, it needs to stop working to detect and replace the filter equipment. The water resource with water quality problems needs to be directly discharged to avoid affecting other purified water resources in the water tank, resulting in waste of water resources. At the same time, when replacing the filter core and the like, the filter core structure fixed by bolts needs to be replaced by the staff for a long time, and the equipment needs to be stopped for a long time, which leads to poor working efficiency of the device. SUMMARY

[0004] The present application relates to the technical field of water purification equipment, in particular to a water treatment system and water purification equipment capable of remote monitoring.

[0005] The present application achieves the above-mentioned purpose through the following technical solutions:

[0006] A remotely monitored water treatment system and water purification equipment includes a resin tank. A connecting pipe is installed on the top of one side wall of the resin tank. A quartz tank is connected to the other side of the top of the resin tank via a water supply pipe. A one-way valve is installed at one end of the water supply pipe. The top of one side wall of the quartz tank is connected to a pre-activated carbon tank via the water supply pipe. One end of the pre-activated carbon tank is connected to an ultrafiltration tank via the water supply pipe. A second post-activated carbon tank is connected to the bottom of the ultrafiltration tank via the water supply pipe. A second water storage tank is installed on one side of the second post-activated carbon tank. A second pump is installed on one side of the second post-activated carbon tank. A second TDS sensor is installed at the inlet of the second pump. The inlet of the second pump is connected to both the second post-activated carbon tank and the second water storage tank. One side of the ultrafiltration tank is connected to a reverse osmosis tank via the water supply pipe. A pressure reducing valve is installed in the water supply pipe between the ultrafiltration tank and the reverse osmosis tank. The upper end of one side wall of the reverse osmosis tank... The water supply pipe connects to the first post-activated carbon tank. The first post-activated carbon tank has a water storage tank at one end, and a compressed water drain pipe is located at the bottom of one side wall of the first water storage tank. A pump is connected to the water supply pipe of the first post-activated carbon tank and the outlet of the first water storage tank. A TDS sensor is installed at the inlet of the pump. Both the first and second water storage tanks have outlet pipes at the bottom of one side wall, which are connected to an output box via an inlet pipe. Limiting plates are installed at the top of the resin tank, quartz tank, pre-activated carbon tank, ultrafiltration tank, first post-activated carbon tank, reverse osmosis tank, and second post-activated carbon tank. Each limiting plate has a through hole on one side of its top and a limiting groove on the other side. Two rotating rods are symmetrically installed on both sides of the limiting groove, and a buckle is connected to one side of each rotating rod. An ultrafiltration filter element is connected to the limiting groove inside the ultrafiltration tank via an extension plate.

[0007] Furthermore, an electrical control box is installed on one side of the resin tank, a dual-mode communication module is installed on one side of the top of the electrical control box, an operation panel is provided on one side wall of the electrical control box, a heater is installed on one side of the top of the output box, a pure water cold water zone is provided on one side of the output box, a pure water hot water zone is provided on one side of the pure water cold water zone, and a purified water zone is installed at the lower end of the pure water cold water zone and the pure water hot water zone. The resin tank, the quartz tank, the pre-activated carbon tank, the ultrafiltration tank, the first post-activated carbon tank, the reverse osmosis tank, and the second post-activated carbon tank are all provided with sealing caps at their tops.

[0008] By adopting the above technical solution, the electrical control box can realize real-time monitoring and control of the equipment through Internet of Things technology and remote monitoring platform.

[0009] Furthermore, each of the pure water cold water zone, the pure water hot water zone, and the purified water zone is equipped with an output pipe. The inlet pipes of the pure water cold water zone and the pure water hot water zone are connected to the outlet pipe flange of the first water storage tank, and the inlet pipe of the purified water zone is connected to the outlet pipe flange of the second water storage tank.

[0010] By adopting the above technical solution, the pure water cold water zone facilitates direct access to pure water, the pure water hot water zone facilitates heating and access to pure water, and the purified water zone facilitates direct access to non-drinking water.

[0011] Furthermore, the operation panel is connected to the slot of the electrical control box, the dual-mode communication module is connected to the slot, and the heater is connected to the slot of the output box.

[0012] By adopting the above technical solution, the design of the operation panel facilitates the control of the operation of various electrical components of the equipment, and the design of the dual-mode communication module facilitates remote connection between the user and the electrical control box, so as to enable the user to remotely operate and use the equipment.

[0013] Furthermore, the resin tank, the quartz tank, the pre-activated carbon tank, the ultrafiltration tank, the first post-activated carbon tank, the reverse osmosis tank, and the second post-activated carbon tank are all connected to the sealing cover flange, the connecting pipe is connected to the resin tank flange, and the one-way valve is connected to the water supply pipe flange.

[0014] By adopting the above technical solution, the design of the sealing cover facilitates the opening and replacement / maintenance of the filter elements in the resin tank, the quartz tank, the pre-activated carbon tank, the ultrafiltration tank, the post-activated carbon tank one, the reverse osmosis tank, and the post-activated carbon tank two.

[0015] Furthermore, the water supply pipe is connected to the resin tank, the quartz tank, the pre-activated carbon tank, the ultrafiltration tank, the first post-activated carbon tank, the reverse osmosis tank, and the second post-activated carbon tank.

[0016] By adopting the above technical solution, the design of the water supply pipe facilitates the pumping of water resources at various stages, and realizes the connection between the resin tank, the quartz tank, the pre-activated carbon tank, the ultrafiltration tank, the first post-activated carbon tank, the reverse osmosis tank, and the second post-activated carbon tank.

[0017] Furthermore, the pressure reducing valve is connected to the water supply pipe flange between the reverse osmosis filter tank and the ultrafiltration filter tank, and the outlet ends of both the first pump and the second pump are connected to the water supply pipe flange between the pre-activated carbon tank and the ultrafiltration filter tank.

[0018] By adopting the above technical solution, the pressure reducing valve can reduce the pressure of the water in the ultrafiltration tank, thereby avoiding excessive pressure in the reverse osmosis tank and effectively ensuring the efficient filtration of water by the reverse osmosis tank.

[0019] Furthermore, the inlet pipe of the pump is connected to the water supply pipe between the post-activated carbon tank and the water storage tank, as well as the water storage tank, via flanges. The TDS sensor is connected to the water supply pipe between the post-activated carbon tank and the water storage tank via a slot.

[0020] By adopting the above technical solution, the design of the first pump can pump the water supply pipe between the first post-activated carbon tank and the first water storage tank, as well as the water in the first water storage tank, back to the front of the ultrafiltration tank. The design of the second pump can pump the water supply pipe between the second post-activated carbon tank and the second water storage tank, as well as the water in the second water storage tank, to the front of the ultrafiltration tank, so that the equipment can perform secondary filtration on the water that does not meet the purification standards.

[0021] Furthermore, the inlet pipe of the second pump is connected to the water supply pipe between the second post-activated carbon tank and the second water storage tank, as well as the second water storage tank, via flanges. The second TDS sensor is connected to the inlet end of the second pump via a slot.

[0022] By adopting the above technical solution, the design of the first TDS sensor and the second TDS sensor facilitates the detection of the TDS value in the passing water, so as to avoid the purified water exceeding the threshold.

[0023] Furthermore, the limiting plate is inserted into the resin tank, the quartz tank, the pre-activated carbon tank, the ultrafiltration tank, the first post-activated carbon tank, the reverse osmosis tank, and the second post-activated carbon tank. The rotating rod is screwed to the limiting plate, the buckle is screwed to the rotating rod, and the extension plate is connected to the limiting groove.

[0024] By adopting the above technical solution, the design of the rotating rod and the buckle facilitates the quick positioning or cancellation of the extension plate, effectively ensuring the convenience of the device when replacing the ultrafiltration filter element, etc.

[0025] The specific working principle is as follows: When using the device, it needs to be installed in a suitable location, and the various filter tanks of the device need to be stably fixed. The design of the outlet and inlet pipes connects the device to the output box. The connecting pipes are connected to a tap water system. When tap water enters the resin tank through the connecting pipes, the resin filter element inside the resin tank can filter and soften the water, effectively filtering impurities. Then, the water supply pipe pumps the filtered water to the quartz tank, where the quartz filter element filters organic matter and viruses. Simultaneously, the design of the pre-activated carbon tank effectively removes odors, chlorine, heavy metals, and other harmful substances from the water. The water then passes through the ultrafiltration tank, where the ultrafiltration filter element purifies, separates, and concentrates the water, producing purified water. The purified water can then be transported through the water supply pipes to the reverse osmosis filter tank and the post-activated carbon tank. After entering the second post-activated carbon tank, the water undergoes secondary purification, facilitating storage and use of the purified water, which can be used for non-direct drinking. Before entering the reverse osmosis filter tank, the pressure reducing valve reduces the pressure inside the ultrafiltration filter tank, allowing the reverse osmosis filter to effectively filter the water. The reverse osmosis membrane effectively blocks viruses, dissolved heavy metals, inorganic salts, organic matter, bacteria, etc., achieving pure water filtration. The compressed water is then discharged through the compressed water drain pipe. The filtered pure water is then filtered again by the first post-activated carbon tank and stored in the first water storage tank, providing water supply to both the hot and cold pure water zones, allowing for convenient access to pure water for drinking. When replacing the ultrafiltration filter element, the sealing caps of each filter tank can be easily opened, and the extension plate is limited by the buckle, effectively facilitating quick disassembly and installation of the ultrafiltration filter element.

[0026] The beneficial effects of this invention are as follows:

[0027] 1. Through the design of TDS sensor one and TDS sensor two, the water quality can be detected when pure water and purified water pass through them in sequence. When the TDS value in the water exceeds the preset threshold, the one-way valve will close, and the water inlet pipes of pump one and pump two will re-transport the water in storage tank one, storage tank two and water delivery pipe to the ultrafiltration tank. At the same time, with the staff replacing the filter equipment, the device can effectively perform secondary filtration of this water, avoiding the problem of water waste caused by discharge.

[0028] 2. Through the design of the limiting plate, rotating rod, and buckle, when replacing the filter cartridges in purification tanks such as resin tanks, quartz tanks, and ultrafiltration tanks, the buckle on the rotating rod can be moved to one side to remove the buckle's limitation on the extension plate, so that the limiting groove can limit the installation of the new ultrafiltration filter cartridge. At the same time, rotating the buckle on the rotating rod realizes the buckle's pressing and limiting of the extension plate, effectively ensuring the convenience of replacing ultrafiltration filter cartridges and other components, and effectively reducing the downtime for maintenance. Attached Figure Description

[0029] Figure 1 This is a schematic diagram of the structure of a remotely monitored water treatment system and water purification equipment according to the present invention;

[0030] Figure 2 This is a schematic diagram of the output box in a remotely monitored water treatment system and water purification equipment according to the present invention;

[0031] Figure 3 This is a schematic diagram of the structure of the ultrafiltration filter element and the limiting plate in a remotely monitored water treatment system and water purification equipment according to the present invention.

[0032] Figure 4 This invention relates to a remotely monitored water treatment system and water purification equipment. Figure 1 Enlarged view of point A in the middle.

[0033] The annotations in the attached figures are explained as follows:

[0034] 1. Dual-mode communication module; 2. Operation panel; 3. Electrical control box; 4. Pre-activated carbon tank; 5. Water supply pipe; 6. Connecting pipe; 7. One-way valve; 8. Resin tank; 9. Quartz tank; 10. Ultrafiltration tank; 11. Post-activated carbon tank (one); 12. Reverse osmosis tank; 13. Pressure reducing valve; 14. Pump (one); 15. TDS sensor (one); 16. Water storage tank (one); 17. Outlet pipe; 18. Compressed water drain pipe; 19. 20. Post-activated carbon tank 2; 21. Water storage tank 2; 22. Inlet pipe; 23. Pure water / cold water zone; 24. Output pipe; 25. Purified water zone; 26. Heater; 27. Pure water / hot water zone; 28. Rotating rod; 29. ​​Limiting groove; 30. Limiting plate; 31. Through hole; 32. Fastener; 33. Extension plate; 34. Ultrafiltration filter element; 35. Pump 2; 36. TDS sensor 2; 37. Output box; 38. Sealing cover. Detailed Implementation

[0035] The present invention will be further described below with reference to the accompanying drawings:

[0036] like Figures 1-4The aforementioned water treatment system and water purification equipment with remote monitoring capability includes a resin tank 8. A connecting pipe 6 is installed on the top of one side wall of the resin tank 8. A quartz tank 9 is connected to the other side of the top of the resin tank 8 via a water supply pipe 5. A one-way valve 7 is installed at one end of the water supply pipe 5. The top of one side wall of the quartz tank 9 is connected to a pre-activated carbon tank 4 via the water supply pipe 5. One end of the pre-activated carbon tank 4 is connected to an ultrafiltration tank 10 via the water supply pipe 5. A post-activated carbon tank 19 is connected to the bottom of the ultrafiltration tank 10 via the water supply pipe 5. A water storage tank 20 is installed on one side of the post-activated carbon tank 19. A pump 34 is installed on one side of the post-activated carbon tank 19. A TD is installed at the water inlet of the pump 34. The inlet of the second sensor 35 and the second pump 34 are connected to the second post-activated carbon tank 19 and the second water storage tank 20, respectively. One side of the ultrafiltration tank 10 is connected to the reverse osmosis tank 12 via the water supply pipe 5. A pressure reducing valve 13 is installed in the water supply pipe 5 between the ultrafiltration tank 10 and the reverse osmosis tank 12. The upper end of one side wall of the reverse osmosis tank 12 is connected to the first post-activated carbon tank 11 via the water supply pipe 5. A first water storage tank 16 is installed at one end of the first post-activated carbon tank 11. A compressed water drain pipe 18 is installed at the bottom end of one side wall of the first water storage tank 16. The water supply pipe 5 of the first post-activated carbon tank 11 and the outlet of the first water storage tank 16 are connected to the first pump 14. A TDS sensor 15 is installed at the inlet of pump 14. Through the design of TDS sensor 15 and TDS sensor 25, the water quality can be detected as pure water and purified water pass through them sequentially. When the TDS value in the water exceeds a preset threshold, the one-way valve 7 closes. The inlet pipes 21 of pump 14 and pump 24 then re-transport the water from storage tank 16, storage tank 20, and water pipe 5 to the ultrafiltration tank 10. Simultaneously, with the staff replacing the filtration equipment, the device can effectively perform secondary filtration of this water, avoiding water waste caused by discharge. Water outlets are provided at the bottom of one side wall of both storage tank 16 and storage tank 20. Pipe 17, the outlet pipe 17 is connected to the output box 36 via the inlet pipe 21. Limiting plates 29 are provided at the top of the resin tank 8, the quartz tank 9, the pre-activated carbon tank 4, the ultrafiltration tank 10, the first post-activated carbon tank 11, the reverse osmosis tank 12, and the second post-activated carbon tank 19. Each limiting plate 29 has a through hole 30 on one side of its top and a limiting groove 28 on the other side. Two rotating rods 27 are symmetrically installed on both sides of the limiting groove 28. A buckle 31 is connected to one side of each rotating rod 27. An ultrafiltration filter element 33 is connected to the limiting groove 28 within the ultrafiltration tank 10 via an extension plate 32. The design of the limiting plates 29, rotating rods 27, and buckles 31 contributes to this overall effect.When replacing the filter elements in the purification tanks such as resin tank 8, quartz tank 9, and ultrafiltration tank 10, the latch 31 on the rotating rod 27 can be moved to one side, releasing the latch 31 from limiting the extension plate 32. This allows the limiting groove 28 to limit the installation of the new ultrafiltration filter element 33. Simultaneously, rotating the latch 31 on the rotating rod 27 presses and limits the extension plate 32, effectively ensuring the convenience of replacing the ultrafiltration filter element 33 and reducing downtime for maintenance.

[0037] In this embodiment, an electrical control box 3 is installed on one side of the resin tank 8. A dual-mode communication module 1 is provided on one side of the top of the electrical control box 3. An operation panel 2 is provided on one side wall of the electrical control box 3. A heater 25 is installed on one side of the top of the output box 36. A pure water cold water zone 22 is provided on one side of the upper end of one side wall of the output box 36. A pure water hot water zone 26 is provided on one side of the pure water cold water zone 22. A purified water zone 24 is installed at the lower end of the pure water cold water zone 22 and the pure water hot water zone 26. A sealing cover 37 is provided on the top of the resin tank 8, the quartz tank 9, the pre-activated carbon tank 4, the ultrafiltration tank 10, the post-activated carbon tank 11, the reverse osmosis tank 12, and the post-activated carbon tank 19. The electrical control box 3 realizes real-time monitoring and control of the equipment through Internet of Things technology and remote monitoring platform.

[0038] In this embodiment, output pipes 23 are installed in the pure water cold water zone 22, the pure water hot water zone 26, and the purified water zone 24. The inlet pipes 21 of the pure water cold water zone 22 and the pure water hot water zone 26 are connected to the outlet pipe 17 flange of the first water storage tank 16. The inlet pipe 21 of the purified water zone 24 is connected to the outlet pipe 17 flange of the second water storage tank 20. The pure water cold water zone 22 facilitates direct use of pure water, the pure water hot water zone 26 facilitates heating and use of pure water, and the purified water zone 24 facilitates direct use of non-drinking water.

[0039] In this embodiment, the operation panel 2 is connected to the electrical control box 3 via a slot, the dual-mode communication module 1 is connected via a slot, and the heater 25 is connected to the output box 36 via a slot. The design of the operation panel 2 facilitates the control of the operation of various electrical components of the equipment. The design of the dual-mode communication module 1 facilitates remote connection between the user and the electrical control box 3, enabling the user to remotely operate and use the equipment.

[0040] In this embodiment, the resin tank 8, the quartz tank 9, the pre-activated carbon tank 4, the ultrafiltration tank 10, the post-activated carbon tank 11, the reverse osmosis tank 12, and the post-activated carbon tank 19 are all connected to the flange of the sealing cover 37. The connecting pipe 6 is connected to the flange of the resin tank 8, and the one-way valve 7 is connected to the flange of the water supply pipe 5. The design of the sealing cover 37 facilitates opening and replacement / maintenance of the filter elements in the resin tank 8, the quartz tank 9, the pre-activated carbon tank 4, the ultrafiltration tank 10, the post-activated carbon tank 11, the reverse osmosis tank 12, and the post-activated carbon tank 19.

[0041] In this embodiment, the water supply pipe 5 is connected to the resin tank 8, the quartz tank 9, the pre-activated carbon tank 4, the ultrafiltration tank 10, the first post-activated carbon tank 11, the reverse osmosis tank 12, and the second post-activated carbon tank 19. The design of the water supply pipe 5 facilitates the pumping of water resources at each stage, realizing the connection between the resin tank 8, the quartz tank 9, the pre-activated carbon tank 4, the ultrafiltration tank 10, the first post-activated carbon tank 11, the reverse osmosis tank 12, and the second post-activated carbon tank 19.

[0042] In this embodiment, the pressure reducing valve 13 is flange-connected to the water supply pipe 5 between the reverse osmosis filter tank 12 and the ultrafiltration filter tank 10. The outlets of the first pump 14 and the second pump 34 are both flange-connected to the water supply pipe 5 between the pre-activated carbon tank 4 and the ultrafiltration filter tank 10. The design of the pressure reducing valve 13 can reduce the water pressure in the ultrafiltration filter tank 10 to avoid excessive pressure in the reverse osmosis filter tank 12, effectively ensuring the high-efficiency filtration of water by the reverse osmosis filter tank 12.

[0043] In this embodiment, the inlet pipe 21 of the pump 14 is flange-connected to the water supply pipe 5 between the post-activated carbon tank 11 and the water storage tank 16, and the water storage tank 16 itself. The TDS sensor 15 is slot-connected to the water supply pipe 5 between the post-activated carbon tank 11 and the water storage tank 16. The pump 14 is designed to pump water from the water supply pipe 5 between the post-activated carbon tank 11 and the water storage tank 16 and the water storage tank 16 back to the ultrafiltration tank 10. The pump 34 is designed to pump water from the water supply pipe 5 between the post-activated carbon tank 29 and the water storage tank 20 and the water storage tank 20 to the ultrafiltration tank 10, so that the equipment can perform secondary filtration on the water that does not meet the purification standards.

[0044] In this embodiment, the water inlet pipe 21 of the second pump 34, the water supply pipe 5 between the second activated carbon tank 19 and the second water storage tank 20, and the second water storage tank 20 are all flange-connected. The second TDS sensor 35 is connected to the water inlet end of the second pump 34 via a slot. The design of the first TDS sensor 15 and the second TDS sensor 35 facilitates the detection of the TDS value in the passing water, so as to avoid the purified water from the device exceeding the threshold.

[0045] In this embodiment, the limiting plate 29 is inserted into the resin tank 8, the quartz tank 9, the pre-activated carbon tank 4, the ultrafiltration tank 10, the post-activated carbon tank 11, the reverse osmosis tank 12, and the post-activated carbon tank 19. The rotating rod 27 is screwed to the limiting plate 29, the buckle 31 is screwed to the rotating rod 27, and the extension plate 32 is slotted into the limiting groove 28. The design of the rotating rod 27 in conjunction with the buckle 31 facilitates the quick positioning or removal of the extension plate 32, effectively ensuring the convenience of replacing the ultrafiltration filter element 33, etc.

[0046] The specific working principle is as follows: When using the device, it needs to be installed in a suitable position, and the various filter tanks of the device need to be stably fixed. Through the design of the water outlet pipe 17 and the water inlet pipe 21, the device is connected to the output box 36. The connecting pipe 6 is connected to the tap water equipment. When the tap water enters the resin tank 8 through the connecting pipe 6, the resin filter element in the resin tank 8 can filter and soften the water, effectively filtering impurities in the water. Then, the water supply pipe 5 pumps the filtered water to the quartz tank 9, realizing the quartz filter element to filter organic matter and viruses in the water. At the same time, in conjunction with the design of the pre-activated carbon tank 4, it can effectively remove odors, chlorine, heavy metals and other harmful substances in the water. Then the water will pass through the ultrafiltration tank 10 for filtration, realizing the purification, separation and concentration of water by the ultrafiltration filter element 33, realizing the production of clean water. The clean water can be transported through the water supply pipe 5 to the reverse osmosis filter tank 12 and the post-activated carbon tank 19, and then enters the water tank 12. The post-activated carbon tank 19 enables secondary purification of water resources, facilitating the storage and use of purified water for non-direct drinking applications. Before entering the reverse osmosis filter tank 12, the pressure reducing valve 13 reduces the pressure inside the ultrafiltration filter tank 10, allowing the reverse osmosis filter tank 12 to filter the water. The reverse osmosis membrane effectively blocks viruses, dissolved heavy metals, inorganic salts, organic matter, bacteria, etc., achieving the filtration of pure water. The compressed water then undergoes compression... The water drain pipe discharge device allows the filtered pure water to pass through the post-activated carbon tank 11 for further filtration and then be stored in the water storage tank 16. This enables the water storage tank 16 to supply water to the pure water hot water zone 26 and the pure water cold water zone 22, facilitating the readily available pure water for drinking. When replacing the ultrafiltration filter element 33, etc., the sealing cover 37 of each filter tank can be easily opened at any time. The extension plate 32 is limited by the buckle 31, effectively facilitating the quick disassembly and installation of the ultrafiltration filter element 33, etc.

[0047] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claimed invention.

Claims

1. A remotely monitorable water treatment system and water purification equipment, characterized in that: The system includes a resin tank (8), with a connecting pipe (6) installed on the top of one side wall of the resin tank (8). A quartz tank (9) is connected to the other side of the top of the resin tank (8) via a water supply pipe (5). A one-way valve (7) is installed at one end of the water supply pipe (5). The top of one side wall of the quartz tank (9) is connected to a pre-activated carbon tank (4) via the water supply pipe (5). One end of the pre-activated carbon tank (4) is connected to an ultrafiltration tank (10) via the water supply pipe (5). The bottom of the ultrafiltration tank (10) is connected to a second post-activated carbon tank (19) via the water supply pipe (5). A second water storage tank (20) is installed on one side of the second post-activated carbon tank (19). A pump 2 (34) is installed on one side of the second post-activated carbon tank (19). A TDS sensor 2 (35) is installed at the inlet of the pump 2 (34). The inlet of the pump 2 (34) is connected to the second post-activated carbon tank (19) and the second water storage tank (20) respectively. One side of the ultrafiltration tank (10) is connected to the reverse osmosis tank (12) through the water supply pipe (5). A pressure reducing valve (13) is installed in the water supply pipe (5) between the ultrafiltration tank (10) and the reverse osmosis tank (12). The upper end of one side wall of the reverse osmosis tank (12) is connected to the first post-activated carbon tank (11) through the water supply pipe (5). The post-activated carbon tank (11) is connected to a water storage tank (16) at one end. A compressed water drain pipe (18) is provided at the bottom of one side wall of the water storage tank (16). A pump (14) is connected to the water supply pipe (5) of the post-activated carbon tank (11) and the water outlet of the water storage tank (16). A TDS sensor (15) is installed at the water inlet of the pump (14). A water outlet pipe (17) is provided at the bottom of one side wall of both the water storage tank (16) and the water storage tank (20). The water outlet pipe (17) is connected to an output box (36) through a water inlet pipe (21). The resin tank (8) and the quartz tank are connected to the water storage tank (20). (9) Limiting plates (29) are provided at the top of the pre-activated carbon tank (4), the ultrafiltration tank (10), the post-activated carbon tank one (11), the reverse osmosis tank (12) and the post-activated carbon tank two (19). A through hole (30) is provided on one side of the top of the limiting plate (29), and a limiting groove (28) is provided on the other side of the top of the limiting plate (29). Two rotating rods (27) are symmetrically installed on both sides of the limiting groove (28). A buckle (31) is connected to one side of the rotating rod (27). An ultrafiltration filter element (33) is connected to the limiting groove (28) in the ultrafiltration tank (10) through an extension plate (32).

2. The remotely monitored water treatment system and water purification equipment according to claim 1, characterized in that: An electrical control box (3) is installed on one side of the resin tank (8). A dual-mode communication module (1) is provided on one side of the top of the electrical control box (3). An operation panel (2) is provided on one side wall of the electrical control box (3). A heater (25) is installed on one side of the top of the output box (36). A pure water cold water zone (22) is provided on one side of the upper end of one side wall of the output box (36). A pure water hot water zone (26) is provided on one side of the pure water cold water zone (22). A water purification zone (24) is installed at the lower end of the pure water cold water zone (22) and the pure water hot water zone (26). A sealing cover (37) is provided on the top of the resin tank (8), the quartz tank (9), the pre-activated carbon tank (4), the ultrafiltration tank (10), the post-activated carbon tank one (11), the reverse osmosis tank (12), and the post-activated carbon tank two (19).

3. The remotely monitored water treatment system and water purification equipment according to claim 2, characterized in that: Output pipes (23) are installed in the pure water cold water zone (22), the pure water hot water zone (26) and the purified water zone (24). The inlet pipes (21) of the pure water cold water zone (22) and the pure water hot water zone (26) are connected to the outlet pipe (17) flange of the first water storage tank (16). The inlet pipe (21) of the purified water zone (24) is connected to the outlet pipe (17) flange of the second water storage tank (20).

4. The remotely monitored water treatment system and water purification equipment according to claim 2, characterized in that: The operation panel (2) is connected to the electrical control box (3) in a slot, the dual-mode communication module (1) is connected in a slot, and the heater (25) is connected to the output box (36) in a slot.

5. A remotely monitorable water treatment system and water purification equipment according to claim 2, characterized in that: The resin tank (8), the quartz tank (9), the pre-activated carbon tank (4), the ultrafiltration tank (10), the post-activated carbon tank one (11), the reverse osmosis tank (12), and the post-activated carbon tank two (19) are all connected to the flange of the sealing cap (37), the connecting pipe (6) is connected to the flange of the resin tank (8), and the one-way valve (7) is connected to the flange of the water supply pipe (5).

6. The remotely monitored water treatment system and water purification equipment according to claim 1, characterized in that: The water supply pipe (5) is connected to the resin tank (8), the quartz tank (9), the pre-activated carbon tank (4), the ultrafiltration tank (10), the first post-activated carbon tank (11), the reverse osmosis tank (12), and the second post-activated carbon tank (19).

7. A remotely monitorable water treatment system and water purification equipment according to claim 1, characterized in that: The pressure reducing valve (13) is connected to the flange of the water supply pipe (5) between the reverse osmosis filter tank (12) and the ultrafiltration filter tank (10). The outlets of the pump one (14) and the pump two (34) are both connected to the flange of the water supply pipe (5) between the pre-activated carbon tank (4) and the ultrafiltration filter tank (10).

8. A remotely monitorable water treatment system and water purification equipment according to claim 1, characterized in that: The inlet pipe (21) of the pump (14) is connected to the water supply pipe (5) between the post-activated carbon tank (11) and the water storage tank (16) and the water storage tank (16) by flanges. The TDS sensor (15) is connected to the water supply pipe (5) between the post-activated carbon tank (11) and the water storage tank (16) by a slot.

9. A remotely monitorable water treatment system and water purification equipment according to claim 1, characterized in that: The inlet pipe (21) of the second pump (34) is connected to the water supply pipe (5) between the second post-activated carbon tank (19) and the second water storage tank (20), and the second water storage tank (20) is connected to the flange. The second TDS sensor (35) is connected to the inlet end slot of the second pump (34).

10. A remotely monitorable water treatment system and water purification equipment according to claim 1, characterized in that: The limiting plate (29) is inserted into the resin tank (8), the quartz tank (9), the pre-activated carbon tank (4), the ultrafiltration tank (10), the first post-activated carbon tank (11), the reverse osmosis tank (12), and the second post-activated carbon tank (19). The rotating rod (27) is screwed into the limiting plate (29). The buckle (31) is screwed into the rotating rod (27). The extension plate (32) is slotted into the limiting groove (28).

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