Energy ultrapure water treatment equipment

Abstract

The present invention discloses an energy ultrapure water treatment equipment, belonging to the field of water treatment equipment, an energy ultrapure water treatment equipment, comprising a first booster pump, the water inlet end of the first booster pump is connected to a water inlet pipe, the water outlet end of the first booster pump is connected to a pretreatment mechanism, the water outlet end of the pretreatment mechanism is connected to a microfiltration membrane filter through a first delivery pipe, and the water outlet end of the microfiltration membrane filter is connected to an ultrafiltration membrane filter through a second delivery pipe. The present invention can pretreat tap water, thereby treating particulate matter, suspended matter and organic matter in the water, which can reduce the burden of subsequent equipment to process water, and can also reduce the cycle of subsequent equipment. At the same time, the pretreatment mechanism itself can also perform self-cleaning to prevent intercepted dirt from clogging the inside of the pretreatment mechanism, thereby increasing the cycle of its own pretreatment, and further saving the cost of equipment maintenance.

Description

Technical Field

[0001] The invention relates to the field of water treatment equipment, and more specifically to energy ultrapure water treatment equipment. Background Art

[0002] Ultrapure water treatment equipment is a professional equipment used to produce ultrapure water. It is mainly used to remove impurities such as microorganisms, ions, organic matter, etc. in water to achieve extremely high purity requirements. Ultrapure water is widely used in semiconductor manufacturing, photovoltaic industry, biomedicine, laboratory research and other fields, requiring water purity as high as PPD level. In the energy industry, ultrapure water treatment equipment is also used in electricity, nuclear power, petrochemical and other fields to ensure the purity and stability of water quality in the production process, improve product quality and reduce environmental pollution.

[0003] However, when the existing energy ultrapure water treatment equipment pre-treats water, the particulate matter, suspended matter and organic matter in the water are intercepted, causing blockage in the pre-treatment cavity, which then needs to be cleaned, reducing the efficiency of energy ultrapure water production. Therefore, we propose an energy ultrapure water treatment equipment to solve the above-mentioned problems. Summary of the invention

[0004] 1. Technical issues to be solved

[0005] In view of the problems existing in the prior art, the purpose of the present invention is to provide an energy ultrapure water treatment equipment that can pre-treat tap water, thereby treating particulate matter, suspended matter and organic matter in the water, which can not only reduce the burden of subsequent equipment to treat water, but also reduce the subsequent equipment's cycle. At the same time, the pretreatment mechanism itself can also perform self-cleaning to prevent intercepted dirt from clogging the inside of the pretreatment mechanism, thereby increasing its own pretreatment cycle and saving equipment maintenance costs.

[0006] Technical Solution

[0007] To solve the above problems, the present invention adopts the following technical solutions.

[0008] An energy ultrapure water treatment device comprises a first booster pump, wherein the water inlet end of the first booster pump is connected to a water inlet pipe, the water outlet end of the first booster pump is connected to a pretreatment mechanism, the water outlet end of the pretreatment mechanism is connected to a microfiltration membrane filter through a first delivery pipe, the water outlet end of the microfiltration membrane filter is connected to an ultrafiltration membrane filter through a second delivery pipe, the water outlet end of the ultrafiltration membrane filter is connected to an ion exchanger through a third delivery pipe, and the water outlet end of the ion exchanger is connected to a water outlet pipe;

[0009] A second booster pump and a pressure sensor are serially connected in the middle of the first delivery pipe, the second delivery pipe and the third delivery pipe, and a control mechanism is arranged on one side of the surface of the pretreatment mechanism.

[0010] Further, the pretreatment mechanism includes a water guide box, legs are provided on both sides of the bottom surface of the water guide box, three inspection pipes are inlaid and connected on the top surface of the water guide box, and a plugging cover is provided on the top of each inspection pipe, wherein a water guide pipe is inlaid and connected on one side of the top surface of the plugging cover close to the first booster pump, and a drainage pipe is inlaid and connected on the side wall of the water guide box away from the first booster pump;

[0011] Filter components are arranged on both sides of the middle part of the inner cavity of the water guide box, wherein activated carbon is filled between the two filter components and close to the side away from the water guide pipe, and a cleaning component is arranged in the inner cavity of the water guide box.

[0012] Furthermore, the filter assembly includes a positioning ring, the inner cavity side wall of the positioning ring is provided with an internal thread groove, the inner cavity of the internal thread groove is provided with a front filter plate, and the front filter plate is made of copper material;

[0013] The inner cavity of the internal thread groove is located outside the front filter plate and is rotatably connected with a pressure ring, and the inner cavity of the internal thread groove is located between the front filter plate and the pressure ring. A sealing rubber ring is provided.

[0014] Furthermore, the cleaning assembly includes a driving part arranged below the water conduit and a disturbing part arranged between the two filter assemblies;

[0015] A plurality of scraping parts are arranged around one end of the driving part, and one side of the scraping part is in contact with the side wall of the filter assembly close to one side of the water pipe.

[0016] Further, the driving part includes a bracket arranged in the inner cavity of the water guide box and located on one side below the water guide pipe, and a shaft is installed on the top end of the side wall of the bracket through a first sealed bearing;

[0017] An impeller is inserted at one end of the shaft and located below the water pipe. Step holes are provided on both sides of the impeller. Fixing screws are inserted into the inner cavities of the two step holes. An internal threaded hole for rotating and installing the fixing screws is provided on the top surface of the shaft.

[0018] Furthermore, the scraping part includes a first scraper arranged at the other end of the shaft, and one side wall of the first scraper is in contact with the side wall of the filter component close to the water pipe. A first groove is provided on the side wall of the first scraper and the surface in contact with the filter component, and a first strong magnet is provided in the inner cavity of the first groove.

[0019] Further, the disturbance part includes a fixing frame arranged on the bottom surface of the inner cavity of the water guide box and located between the two filter assemblies, a sealing box is fixedly arranged on the top of the fixing frame, a sealing box cover is arranged at the top open end of the sealing box, and a planetary reducer is arranged in the inner cavity of the sealing box;

[0020] The two ends of the sealing box are respectively inlaid with a second sealed bearing and a third sealed bearing, the inner cavities of the second sealed bearing and the third sealed bearing are respectively plugged with a first transmission rod and a second transmission rod, and one end of the first transmission rod and the second transmission rod are respectively connected to the input end and the output end of the planetary reducer;

[0021] A plurality of follower rods are arranged around the side wall of one end of the first transmission rod, a second groove is provided on the outer side wall of each follower rod, a second strong magnet is arranged in the inner cavity of each second groove, and the second strong magnet is magnetically connected to the first strong magnet, and a paddle is arranged in the middle of the second transmission rod;

[0022] A second scraper is provided at one end of the second transmission rod, and a hollow plate is provided on the side wall of the sealing box and located at the position of the second transmission rod, wherein the activated carbon is located between the hollow plate and the filter assembly away from the side of the water pipe.

[0023] Furthermore, the paddle is made of silicone material.

[0024] Furthermore, both sides of the bottom surface of the water guide box are embedded with sewage pipes, and the middle of the sewage pipes is connected in series with valves, wherein the two sewage pipes are respectively located on one side in front of the two filter components.

[0025] Furthermore, the control mechanism includes a chassis arranged on the outer wall surface of the pretreatment mechanism, the surface of the chassis is provided with a box cover, the inner cavity of the chassis is provided with a control mainboard, and the surface of the box cover is provided with a touch screen and a buzzer. Beneficial Effects

[0026] Compared with the prior art, the advantages of the present invention are:

[0027] In this scheme, when pure water needs to be treated, the first booster pump can be used to connect the tap water pipeline to the water inlet pipe, and the tap water can be pressurized and transported to the pretreatment mechanism. Then, the tap water can be pretreated by the pretreatment mechanism to treat the particulate matter, suspended matter and organic matter in the water, which can reduce the burden of subsequent equipment to treat water and reduce the cycle of subsequent equipment. At the same time, the pretreatment mechanism itself can also perform self-cleaning to prevent the intercepted dirt from clogging the inside of the pretreatment mechanism, thereby increasing the cycle of its own pretreatment, and thus saving the cost of equipment maintenance. Then, the pretreated water can be transported to the microfiltration membrane filter through the first delivery pipe, so that the water can be intercepted. Suspended matter, bacteria, and large molecular weight colloids and other substances, and then the water treated by the microfiltration membrane filter can be transported to the ultrafiltration membrane filter through the second delivery pipe, so that the screening and charge effect of the ultrafiltration membrane can be used to remove organic matter, microorganisms, ions and other impurities in the water. Finally, the water treated by the ultrafiltration membrane filter can be transported to the ion exchanger through the third delivery pipe;

[0028] Since the ion exchanger is usually composed of a fixed bed with ion exchange resin and a water flow passing through the fixed bed, when the water flows through the fixed bed, the ion exchangeable substances in the fixed bed will exchange with the ions in the water, thereby removing the harmful ions in the water or converting them into relatively harmless ions, thereby producing ultrapure water, and finally discharging the processed ultrapure water through the outlet pipe;

[0029] Since the second booster pump and the pressure sensor are connected in series in the middle of the first delivery pipe, the second delivery pipe and the third delivery pipe, the water flow pressure on the corresponding first delivery pipe, the second delivery pipe and the third delivery pipe can be monitored through each pressure sensor, and the monitoring data can be sent to the control mechanism. Then, the control mechanism can control the operation of the second booster pump on the corresponding pipeline, thereby achieving the purpose of pressurizing the water flow, so as to ensure the efficiency of the water flow. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] Figure 1 It is a structural schematic diagram of the present invention;

[0031] Figure 2 It is a side structural schematic diagram of the present invention;

[0032] Figure 3 It is a schematic diagram of the structure of the pretreatment mechanism of the present invention;

[0033] Figure 4 It is a schematic diagram of the cross-sectional structure of the pretreatment mechanism of the present invention;

[0034] Figure 5 It is a schematic diagram of the explosion structure of the filter assembly of the present invention;

[0035] Figure 6 It is a schematic diagram of the cleaning component structure of the present invention;

[0036] Figure 7 This is a schematic diagram of the explosion structure of the cleaning component of the present invention;

[0037] Figure 8 It is a schematic diagram of the explosion structure of the driving part of the present invention;

[0038] Fig. 9 It is a schematic diagram of the structure of the scraping part of the present invention;

[0039] Fig.10 It is a schematic diagram of the explosion structure of the disturbance part of the present invention;

[0040] Fig.11 It is a schematic diagram of the explosion structure of the control mechanism of the present invention.

[0041] Description of the numbers in the figure:

[0042] 1. Water inlet pipe; 2. First booster pump; 3. Pretreatment mechanism; 31. Water guide box; 32. Support leg; 33. Inspection pipe; 34. Plug cover; 35. Water guide pipe; 36. Filter assembly; 361. Positioning ring; 362. Internal thread groove; 363. Pre-filter plate; 364. Sealing rubber ring; 365. Pressing ring; 37. Cleaning assembly; 371. Driving unit; 3711. Bracket; 3712. First sealed bearing; 3713. Shaft; 3714. Impeller; 3715. Step hole; 3716. Fixing screw; 3717. Internal thread hole; 372. Scraping unit; 3721. First scraper; 3722. First groove; 3723. First strong magnet; 373. Disturbing unit; 3731. Fixing frame; 3732. Sealing box; 3733. Sealing box cover; 3 734. planetary reducer; 3735. second sealed bearing; 3736. first transmission rod; 3737. follower rod; 3738. second groove; 3739. second strong magnet; 37310. third sealed bearing; 37311. second transmission rod; 37312. paddle; 37313. second scraper; 37314. hollow plate; 38. drain pipe; 39. sewage pipe; 310. valve; 4. first delivery pipe; 5. microfiltration membrane filter; 6. second delivery pipe; 7. ultrafiltration membrane filter; 8. third delivery pipe; 9. ion exchanger; 10. water outlet pipe; 11. second booster pump; 12. pressure sensor; 13. control mechanism; 131. chassis; 132. box cover; 133. control main board; 134. touch display screen; 135. buzzer. DETAILED DESCRIPTION

[0043] The technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention; it is obvious that the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments, and all other embodiments obtained by ordinary technicians in this field based on the embodiments of the present invention without making creative work are within the scope of protection of the present invention. Example

[0044] See also Figure 1-2 , an energy ultrapure water treatment equipment, comprising a first booster pump 2, the water inlet end of the first booster pump 2 is connected to a water inlet pipe 1, the water outlet end of the first booster pump 2 is connected to a pretreatment mechanism 3, the water outlet end of the pretreatment mechanism 3 is connected to a microfiltration membrane filter 5 through a first delivery pipe 4, the water outlet end of the microfiltration membrane filter 5 is connected to an ultrafiltration membrane filter 7 through a second delivery pipe 6, the water outlet end of the ultrafiltration membrane filter 7 is connected to an ion exchanger 9 through a third delivery pipe 8, and the water outlet end of the ion exchanger 9 is connected to a water outlet pipe 10; a second booster pump 11 and a pressure sensor 12 are serially connected in the middle of the first delivery pipe 4, the second delivery pipe 6 and the third delivery pipe 8, and a control mechanism 13 is arranged on one side of the surface of the pretreatment mechanism 3;

[0045] When it is necessary to treat the pure water, the first booster pump 2 can be used to connect the tap water pipeline to the water inlet pipe 1, and the tap water can be pressurized and transported to the pretreatment mechanism 3. Then, the tap water can be pretreated by the pretreatment mechanism 3, so as to treat the particulate matter, suspended matter and organic matter in the water, which can reduce the burden of subsequent equipment to treat water and reduce the subsequent equipment cycle. At the same time, the pretreatment mechanism 3 itself can also perform self-cleaning to prevent the intercepted dirt from clogging the inside of the pretreatment mechanism 3, so as to increase its own pretreatment cycle, and thus save the cost of equipment maintenance. Then, the pretreated water can be transported to the microfiltration membrane filter 5 through the first delivery pipe 4, so as to intercept suspended matter, bacteria, and high molecular weight colloids in the water. Then, the water treated by the microfiltration membrane filter 5 can be transported to the ultrafiltration membrane filter 7 through the second delivery pipe 6, so as to remove organic matter, microorganisms, ions and other impurities in the water by utilizing the screening and charge effect of the ultrafiltration membrane. Finally, the water treated by the ultrafiltration membrane filter 7 can be transported to the ion exchanger 9 through the third delivery pipe 8. Since the ion exchanger 9 is usually composed of a fixed bed with an ion exchangeable resin and a water flow flowing through the fixed bed, when the water flows through the fixed bed, the ion exchangeable substances in the fixed bed will exchange with the ions in the water, thereby removing harmful ions in the water or converting them into relatively harmless ions, thereby producing ultrapure water. Finally, the processed ultrapure water is discharged through the outlet pipe 10. Since the second booster pump 11 and the pressure sensor 12 are connected in series in the middle of the first delivery pipe 4, the second delivery pipe 6 and the third delivery pipe 8, the water flow pressure on the corresponding first delivery pipe 4, the second delivery pipe 6 and the third delivery pipe 8 can be monitored through each pressure sensor 12, and the monitoring data can be sent to the control mechanism 13. Then, the second booster pump 11 on the corresponding pipeline can be controlled to operate through the control mechanism 13, thereby achieving the purpose of pressurizing the water flow, so as to ensure the efficiency of the water flow.

[0046] See also Figure 1 , Figure 3-Figure 7The pretreatment mechanism 3 includes a water guide box 31, and legs 32 are provided on both sides of the bottom surface of the water guide box 31. Three inspection pipes 33 are inlaid and connected on the top surface of the water guide box 31. A plugging cover 34 is provided on the top of each inspection pipe 33, wherein a water guide pipe 35 is inlaid and connected on one side of the top surface of the plugging cover 34 close to the first booster pump 2, and a drain pipe 38 is inlaid and connected on the side wall of the water guide box 31 away from the first booster pump 2; filter components 36 are provided on both sides of the middle part of the inner cavity of the water guide box 31, wherein activated carbon is filled between the two filter components 36 and close to the side away from the water guide pipe 35, and a cleaning component 37 is provided in the inner cavity of the water guide box 31, and the filter component 36 includes a positioning ring 361, and the positioning ring 3 An inner thread groove 362 is provided on the side wall of the inner cavity of the inner thread groove 362, and a front filter plate 363 is provided in the inner cavity of the inner thread groove 362, and the front filter plate 363 is made of copper material; a pressure ring 365 is rotatably connected to the inner cavity of the inner thread groove 362 and located outside the front filter plate 363, and a sealing rubber ring 364 is provided in the inner cavity of the inner thread groove 362 and located between the front filter plate 363 and the pressure ring 365, and the cleaning component 37 includes a driving part 371 provided below the water pipe 35 and a disturbing part 373 provided between the two filter components 36; a plurality of scraping parts 372 are provided around one end of the driving part 371, and one side of the scraping part 372 is in contact with the side wall of the filter component 36 close to the water pipe 35;

[0047] Through the water guide box 31 in the pretreatment mechanism 3, it can be installed in the specified position through the two legs 32, and the three inspection pipes 33, the two filter components 36 and the cleaning component 37 can be installed. Then, through the two positioning rings 361 in the two filter components 36, they can be installed on both sides of the inner cavity of the water guide box 31 respectively, and then the front filter plate 363 made of copper material is placed in the corresponding internal thread groove 362, and then the sealing rubber ring 364 and the pressure ring 365 are installed in turn, and the front filter plate 363 can be installed and fixed by tightening the pressure ring 365. Then, by opening the three inspection pipes 33, it is convenient for the staff to install the drive filter in the cleaning component 37. The driving part 371 and the disturbance part 373 are respectively installed on both sides of the filter assembly 36 close to one side of the water guide pipe 35, and the bottom ends of the driving part 371 and the disturbance part 373 are installed on the bottom surface of the inner cavity of the water guide box 31, and at the same time, the multiple scraping parts 372 at one end of the driving part 371 are against the front filter plate 363 on the former filter assembly 36, and at the same time, one end of the disturbance part 373 is against the other side wall of the front filter plate 363 on the former filter assembly 36, and the other end of the disturbance part 373 is against the side wall of the front filter plate 363 on the latter disturbance part 373, and then the staff fills the activated carbon in the front position of the latter front filter plate 363, and then by removing the three plugging covers 34, the corresponding The inspection pipe 33 is blocked, and then connected to the output end of the first booster pump 2 through the water conduit 35, so that the tap water can be pressurized and transported to the water conduit box 31, and then the high-pressure water flow ejected by the water conduit 35 can drive one end of the driving part 371 to rotate, and then can synchronously drive multiple scraping parts 372 to rotate on the former's front filter plate 363, so that the dirt retained on the front filter plate 363 can be quickly cleaned. Since one side of the scraping part 372 is magnetically connected to one end of the disturbance part 373 through the front filter plate 363, when the scraping part 372 rotates, it will synchronously drive the disturbance part 373 to run synchronously, so that the disturbance part 37 3 rotates, and then the disturbance part 373 that runs can disturb the activated carbon located between the two front filter plates 363, making it easier for the activated carbon to contact with water and improve the effect of water adsorption and purification, and can also clean the latter's front filter plate 363, thereby ensuring the smoothness of the latter's front filter plate 363. The whole process can process particulate matter, suspended matter and organic matter in the water, which can reduce the burden of subsequent equipment to process water and reduce the cycle of subsequent equipment. At the same time, the inside of the water guide box 31 can also self-clean itself to prevent the intercepted dirt from clogging the two front filter plates 363, thereby increasing the cycle of its own pretreatment and saving the cost of equipment maintenance.

[0048] See also Figure 7 , Figure 8The driving part 371 includes a bracket 3711 disposed in the inner cavity of the water guide box 31 and located on one side below the water guide pipe 35. A shaft 3713 is installed on the top of the side wall of the bracket 3711 through a first sealing bearing 3712; an impeller 3714 is inserted at one end of the shaft 3713 and located below the water guide pipe 35. Step holes 3715 are provided on both sides of the impeller 3714. Fixing screws 3716 are inserted in the inner cavities of the two step holes 3715. An internal threaded hole 3717 for rotating and installing the fixing screws 3716 is provided on the top surface of the shaft 3713;

[0049] Through the bracket 3711 in the driving part 371, it can be fixed in the inner cavity of the water guide box 31 and located on one side below the water guide pipe 35, and the shaft rod 3713 can be installed through the first sealed bearing 3712, so that the shaft rod 3713 can rotate, and one end of the shaft rod 3713 can be installed and fixed with multiple scraping parts 372, and then through the internal threaded hole 3717 and the fixing screw 3716, the impeller 3714 can be installed on the other end of the shaft rod 3713 through the stepped hole 3715, so that the stability of the impeller 3714 can be improved, and then the high-pressure water flow sprayed by the water guide pipe 35 can drive the impeller 3714 to rotate, and then the multiple scraping parts 372 can be synchronously driven to rotate on the former pre-filter plate 363 through the shaft rod 3713, so as to quickly clean the dirt trapped on the pre-filter plate 363.

[0050] See also Figure 7-Figure 9 The scraping part 372 includes a first scraper 3721 disposed at the other end of the shaft 3713, and a side wall of the first scraper 3721 is in contact with a side wall of the filter assembly 36 near the water pipe 35, a first groove 3722 is formed on the side wall of the first scraper 3721 and the contact surface with the filter assembly 36, and a first strong magnet 3723 is disposed in the inner cavity of the first groove 3722;

[0051] Through the first scraper 3721 in the scraping part 372, it can be fixed on the shaft 3713, and the first strong magnet 3723 can be installed and fixed through the first groove 3722. Then, through the first strong magnet 3723, it can be magnetically connected to one end of the disturbance part 373, so that it can synchronously drive one end of the disturbance part 373 to rotate under the action of magnetic attraction, thereby achieving the purpose of synchronously driving the disturbance part 373 to operate.

[0052] See also Figure 7-10The disturbance part 373 includes a fixing frame 3731 which is arranged on the bottom surface of the inner cavity of the water guide box 31 and is located between the two filter components 36. A sealing box 3732 is fixedly arranged on the top of the fixing frame 3731. A sealing box cover 3733 is arranged on the top open end of the sealing box 3732. A planetary reducer 3734 is arranged in the inner cavity of the sealing box 3732. The two ends of the sealing box 3732 are respectively inlaid with a second sealing bearing 3735 and a third sealing bearing 37310. The inner cavities of the second sealing bearing 3735 and the third sealing bearing 37310 are respectively plugged with a first transmission rod 3736 and a second transmission rod 37311. One end of the first transmission rod 3736 and the second transmission rod 37311 are respectively connected to the input end and the output end of the planetary reducer 3734. The first transmission rod 37311 is connected to the first transmission rod 3736; a plurality of follower rods 3737 are arranged on the side wall of one end of the first transmission rod 3736; a second groove 3738 is opened on the outer side wall of each follower rod 3737; a second strong magnet 3739 is arranged in the inner cavity of each second groove 3738; and the second strong magnet 3739 is magnetically connected to the first strong magnet 3723; a paddle 37312 is arranged in the middle of the second transmission rod 37311; a second scraper 37313 is arranged on one end of the second transmission rod 37311; a hollow plate 37314 is arranged on the side wall of the sealing box 3732 and located at the position of the second transmission rod 37311, wherein the activated carbon is located between the hollow plate 37314 and the filter assembly 36 away from the side of the water pipe 35; and the paddle 37312 is made of silicone material;

[0053] Through the sealing box 3732 in the disturbance part 373, it can be fixed on the bottom surface of the inner cavity of the water guide box 31 and located between the two filter components 36 through the fixing frame 3731, and the planetary reducer 3734 can be sealed and installed with the sealing box cover 3733. Then, through the planetary reducer 3734, multiple follower rods 3737 can be installed through the first transmission rod 3736, and multiple paddles 37312 and multiple second scrapers 37313 made of silicone material can be installed through the second transmission rod 37311. At the same time, through the second sealing bearing 3735 and the third sealing bearing 37310, which can not only ensure the smooth rotation of the first transmission rod 3736 and the second transmission rod 37311, but also prevent external water stains from entering the sealing box 3732. Since the outer wall of each follower rod 3737 is provided with a second groove 3738, and the inner cavity of each second groove 3738 is provided with a second strong magnet 3739, and the second strong magnet 3739 is magnetically connected with the first strong magnet 3723, the first strong magnet 3723 can be rotated with the shaft 3713 as the axis, and the corresponding strong magnet 3723 can be driven synchronously. The corresponding second strong magnet 3739 rotates with the first transmission rod 3736 as the axis, thereby achieving the purpose of driving the first transmission rod 3736 to rotate, and then through the first transmission rod 3736, the second transmission rod 37311 can be driven to rotate via the planetary reducer 3734, and under the deceleration of the planetary reducer 3734, the rotation speed of the second transmission rod 37311 is slower than the rotation speed of the first transmission rod 3736, so that the second transmission rod 37311 can slowly drive the multiple paddles 37312 and the multiple second scrapers 37313 to rotate, and the multiple slowly rotating paddles 37312 and the multiple second scrapers 37313 can be driven to rotate. The sheet 37312 can disturb the activated carbon, so that it is convenient for the activated carbon to contact with water, thereby improving the effect of water adsorption and purification. At the same time, the rotating second scraper 37313 can clean the latter's front filter plate 363, thereby ensuring the smoothness of the latter's front filter plate 363. Since the side wall of the sealing box 3732 is provided with a hollow plate 37314 at the position of the second transmission rod 37311, it is convenient for the staff to fill the activated carbon between the latter's front filter plate 363 and the hollow plate 37314, thereby preventing the activated carbon from affecting the rotation of the first transmission rod 3736.

[0054] See also Figure 3 , Figure 4 , drainage pipes 39 are embedded and connected on both sides of the bottom surface of the water guide box 31, and a valve 310 is connected in series in the middle of the drainage pipe 39, wherein the two drainage pipes 39 are respectively located on one side in front of the two filter components 36;

[0055] When the inside of the water guide box 31 needs to be cleaned, the two valves 310 are opened so that the dirt intercepted by the filter assembly 36 can be discharged through the drain pipe 39, thereby ensuring the cleanliness of the water guide box 31.

[0056] See also Figure 1 , Fig.11 The control mechanism 13 includes a chassis 131 arranged on the outer wall surface of the pretreatment mechanism 3, a chassis cover 132 is arranged on the surface of the chassis 131, a control mainboard 133 is arranged in the inner cavity of the chassis 131, and a touch screen 134 and a buzzer 135 are arranged on the surface of the chassis cover 132;

[0057] Through the chassis 131 in the control mechanism 13, it can be installed on the outer wall surface of the pretreatment mechanism 3, and the control main board 133 and the matching box cover 132 can be installed, and then through the box cover 132, the touch screen 134 and the buzzer 135 can be installed, and then through the touch screen 134, the control main board 133 can receive the data sent by each pressure sensor 12 and control the operation of each booster pump. At the same time, when the received pressure data is abnormal, the buzzer 135 can be controlled to operate, and then a warning signal can be sent to remind the staff.

[0058] During use: When it is necessary to treat pure water, the first booster pump 2 can be used to connect the tap water pipeline to the water inlet pipe 1, and the tap water can be pressurized and transported to the pretreatment mechanism 3. Then, the tap water can be pretreated through the pretreatment mechanism 3, so as to treat the particulate matter, suspended matter and organic matter in the water, which can reduce the burden of subsequent equipment to treat water and reduce the subsequent equipment cycle. At the same time, the pretreatment mechanism 3 itself can also perform self-cleaning to prevent the intercepted dirt from clogging the inside of the pretreatment mechanism 3, so as to increase the cycle of its own pretreatment, and thus save the cost of equipment maintenance. Then, the pretreated water can be transported to the microfiltration membrane filter 5 through the first delivery pipe 4, so that the water can be intercepted. Suspended matter, bacteria, and large molecular weight colloids and other substances, and then the water treated by the microfiltration membrane filter 5 can be transported to the ultrafiltration membrane filter 7 through the second delivery pipe 6, so that the screening and charge effect of the ultrafiltration membrane can be used to remove organic matter, microorganisms, ions and other impurities in the water. The water treated by the ultrafiltration membrane filter 7 can be transported to the ion exchanger 9 through the third delivery pipe 8. Since the ion exchanger 9 is usually composed of a fixed bed with an ion exchangeable resin and a water flow flowing through the fixed bed, when the water flows through the fixed bed, the ion exchangeable substances in the fixed bed will exchange with the ions in the water, thereby removing harmful ions in the water or converting them into relatively harmless ions, thereby producing ultrapure water. Finally, the processed ultrapure water is discharged through the outlet pipe 10. Since the second booster pump 11 and the pressure sensor 12 are connected in series in the middle of the first delivery pipe 4, the second delivery pipe 6 and the third delivery pipe 8, the water flow pressure on the corresponding first delivery pipe 4, the second delivery pipe 6 and the third delivery pipe 8 can be monitored through each pressure sensor 12, and the monitoring data can be sent to the control mechanism 13. Then, the second booster pump 11 on the corresponding pipeline can be controlled to operate through the control mechanism 13, thereby achieving the purpose of pressurizing the water flow, so as to ensure the efficiency of the water flow.

[0059] Through the water guide box 31 in the pretreatment mechanism 3, it can be installed in the specified position through the two legs 32, and the three inspection pipes 33, the two filter components 36 and the cleaning component 37 can be installed. Then, through the two positioning rings 361 in the two filter components 36, they can be installed on both sides of the inner cavity of the water guide box 31 respectively, and then the front filter plate 363 made of copper material is placed in the corresponding internal thread groove 362, and then the sealing rubber ring 364 and the pressure ring 365 are installed in turn, and the front filter plate 363 can be installed and fixed by tightening the pressure ring 365. Then, by opening the three inspection pipes 33, it is convenient for the staff to install the driving part 371 and the disturbance part 373 in the cleaning component 37 respectively near the On both sides of the filter assembly 36 near one side of the water pipe 35, the bottom ends of the driving part 371 and the disturbance part 373 are installed on the bottom surface of the inner cavity of the water guide box 31, and at the same time, the multiple scraping parts 372 at one end of the driving part 371 are against the front filter plate 363 on the former filter assembly 36, and at the same time, one end of the disturbance part 373 is against the other side wall of the front filter plate 363 on the former filter assembly 36, and the other end of the disturbance part 373 is against the side wall of the front filter plate 363 on the latter disturbance part 373, and then the staff fills the activated carbon in the front position of the latter front filter plate 363, and then by installing three plugging covers 34, the corresponding inspection pipes 33 can be blocked respectively, and then through the water pipe 35, it can be connected with the output end of the first booster pump 2, Thereby, the tap water can be pressurized and transported to the water guide box 31, and then the high-pressure water flow ejected by the water guide pipe 35 can drive one end of the driving part 371 to rotate, and then can synchronously drive multiple scraping parts 372 to rotate on the former pre-filter plate 363, so as to quickly clean the dirt trapped on the pre-filter plate 363. Since one side of the scraping part 372 is magnetically connected to one end of the disturbance part 373 through the pre-filter plate 363, when the scraping part 372 rotates, it will synchronously drive the disturbance part 373 to operate synchronously, so that the disturbance part 373 can rotate. Then, the running disturbance part 373 can disturb the activated carbon located between the two pre-filter plates 363, so as to facilitate the contact between the activated carbon and water. The touch improves the effect of water adsorption and purification, and can clean the latter's pre-filter plate 363, thereby ensuring the smoothness of the latter's pre-filter plate 363. The whole process can process particulate matter, suspended matter and organic matter in the water, which can not only reduce the burden of subsequent equipment to process water, but also reduce the cycle of subsequent equipment. At the same time, the inside of the water guide box 31 can also self-clean to prevent the intercepted dirt from clogging the two pre-filter plates 363, thereby improving its own pretreatment cycle, thereby saving equipment maintenance costs. When it is necessary to clean the inside of the water guide box 31, by opening the two valves 310, the dirt intercepted in the filter component 36 can be discharged through the drain pipe 39, thereby ensuring the cleanliness of the water guide box 31.

[0060] The bracket 3711 in the driving part 371 can be fixed in the inner cavity of the water guide box 31 and located at a side position below the water guide pipe 35, and the shaft 3713 can be installed through the first sealed bearing 3712, so that the shaft 3713 can rotate, and one end of the shaft 3713 can be installed and fixed to multiple scraping parts 372, and then the impeller 3714 can be installed on the other end of the shaft 3713 through the internal threaded hole 3717 and the fixing screw 3716 through the stepped hole 3715, so that the stability of the impeller 3714 can be improved, and then the high-pressure water flow ejected from the water guide pipe 35 can drive the impeller 3714. The plurality of scraping parts 372 can be driven to rotate on the front filter plate 363 synchronously through the shaft 3713, so as to quickly clean the dirt retained on the front filter plate 363. The first scraper 3721 in the scraping part 372 can be fixed on the shaft 3713, and the first strong magnet 3723 can be installed and fixed through the first groove 3722. Then, the first strong magnet 3723 can be magnetically connected to one end of the disturbance part 373 through the first strong magnet 3723. Therefore, the one end of the disturbance part 373 can be synchronously driven to rotate under the action of the magnetic attraction, thereby achieving the purpose of synchronously driving the disturbance part 373 to operate.

[0061] Through the sealing box 3732 in the disturbance part 373, it can be fixed on the bottom surface of the inner cavity of the water guide box 31 and located between the two filter components 36 through the fixing frame 3731, and the planetary reducer 3734 can be sealed and installed with the sealing box cover 3733. Then, through the planetary reducer 3734, multiple follower rods 3737 can be installed through the first transmission rod 3736, and multiple paddles 37312 and multiple second scrapers 37313 made of silicone material can be installed through the second transmission rod 37311. At the same time, through the second sealing bearing 3735 and the third sealing bearing 37310, which can not only ensure the smooth rotation of the first transmission rod 3736 and the second transmission rod 37311, but also prevent external water stains from entering the sealing box 3732. Since the outer wall of each follower rod 3737 is provided with a second groove 3738, and the inner cavity of each second groove 3738 is provided with a second strong magnet 3739, and the second strong magnet 3739 is magnetically connected with the first strong magnet 3723, the first strong magnet 3723 can be rotated with the shaft 3713 as the axis, and the corresponding strong magnet 3723 can be driven synchronously. The corresponding second strong magnet 3739 rotates with the first transmission rod 3736 as the axis, thereby achieving the purpose of driving the first transmission rod 3736 to rotate, and then through the first transmission rod 3736, the second transmission rod 37311 can be driven to rotate via the planetary reducer 3734, and under the deceleration of the planetary reducer 3734, the rotation speed of the second transmission rod 37311 is slower than the rotation speed of the first transmission rod 3736, so that the second transmission rod 37311 can slowly drive the multiple paddles 37312 and the multiple second scrapers 37313 to rotate, and the multiple slowly rotating paddles 37312 and the multiple second scrapers 37313 can be driven to rotate. The sheet 37312 can disturb the activated carbon, so that it is convenient for the activated carbon to contact with water, thereby improving the effect of water adsorption and purification. At the same time, the rotating second scraper 37313 can clean the latter's front filter plate 363, thereby ensuring the smoothness of the latter's front filter plate 363. Since the side wall of the sealing box 3732 is provided with a hollow plate 37314 at the position of the second transmission rod 37311, it is convenient for the staff to fill the activated carbon between the latter's front filter plate 363 and the hollow plate 37314, thereby preventing the activated carbon from affecting the rotation of the first transmission rod 3736.

[0062] Through the chassis 131 in the control mechanism 13, it can be installed on the outer wall surface of the pretreatment mechanism 3, and the control main board 133 and the matching box cover 132 can be installed, and then through the box cover 132, the touch screen 134 and the buzzer 135 can be installed, and then through the touch screen 134, the control main board 133 can receive the data sent by each pressure sensor 12 and control the operation of each booster pump. At the same time, when the received pressure data is abnormal, the buzzer 135 can be controlled to operate, and then a warning signal can be sent to remind the staff.

[0063] The above are only preferred specific implementations of the present invention; however, the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical solutions and improved concepts of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. An energy ultrapure water treatment device, comprising a first booster pump (2), wherein the water inlet end of the first booster pump (2) is connected to a water inlet pipe (1), characterized in that: The water outlet of the first booster pump (2) is connected to a pretreatment mechanism (3), the water outlet of the pretreatment mechanism (3) is connected to a microfiltration membrane filter (5) via a first delivery pipe (4), the water outlet of the microfiltration membrane filter (5) is connected to an ultrafiltration membrane filter (7) via a second delivery pipe (6), the water outlet of the ultrafiltration membrane filter (7) is connected to an ion exchanger (9) via a third delivery pipe (8), and the water outlet of the ion exchanger (9) is connected to a water outlet pipe (10); A second booster pump (11) and a pressure sensor (12) are serially connected in the middle of the first delivery pipe (4), the second delivery pipe (6) and the third delivery pipe (8), and a control mechanism (13) is provided on one side of the surface of the pretreatment mechanism (3); The pretreatment mechanism (3) comprises a water guide box (31), legs (32) are provided on both sides of the bottom surface of the water guide box (31), three inspection pipes (33) are inlaid and connected on the top surface of the water guide box (31), and a plugging cover (34) is provided at the top of each inspection pipe (33), wherein a water guide pipe (35) is inlaid and connected on one side of the top surface of the plugging cover (34) close to the first booster pump (2), and a drainage pipe (38) is inlaid and connected on the side wall of the water guide box (31) away from the first booster pump (2); filter assemblies (36) are provided on both sides of the middle of the inner cavity of the water guide box (31), wherein activated carbon is filled between two filter assemblies (36) and close to the side away from the water guide pipe (35), and a cleaning assembly (37) is provided in the inner cavity of the water guide box (31); The cleaning component (37) comprises a driving part (371) arranged below the water pipe (35) and a disturbing part (373) arranged between the two filter components (36); a plurality of scraping parts (372) are arranged around one end of the driving part (371), and one side of the scraping part (372) is in contact with a side wall of the filter component (36) close to the water pipe (35); The driving part (371) comprises a bracket (3711) arranged in the inner cavity of the water guide box (31) and located on one side below the water guide pipe (35); a shaft (3713) is installed on the top of the side wall of the bracket (3711) via a first sealing bearing (3712); an impeller (3714) is inserted at one end of the shaft (3713) and located below the water guide pipe (35); stepped holes (3715) are provided on both sides of the impeller (3714); fixing screws (3716) are inserted into the inner cavities of the two stepped holes (3715); and an internal threaded hole (3717) for rotatably installing the fixing screws (3716) is provided on the top surface of the shaft (3713); The scraping portion (372) comprises a first scraper (3721) arranged at the other end of the shaft (3713), and a side wall of the first scraper (3721) is in contact with a side wall of the filter assembly (36) close to the water pipe (35), a first groove (3722) is provided on the side wall of the first scraper (3721) and the contact surface with the filter assembly (36), and a first strong magnet (3723) is provided in the inner cavity of the first groove (3722); The disturbance part (373) comprises a fixing frame (3731) arranged on the bottom surface of the inner cavity of the water guide box (31) and located between the two filter assemblies (36); a sealing box (3732) is fixedly arranged on the top of the fixing frame (3731); a sealing box cover (3733) is arranged at the top open end of the sealing box (3732); a planetary reducer (3734) is arranged in the inner cavity of the sealing box (3732); a second sealed bearing (3735) and a third sealed bearing (37310) are respectively inlaid and connected at both ends of the sealing box (3732); a first transmission rod (3736) and a second transmission rod (37311) are respectively inserted into the inner cavities of the second sealed bearing (3735) and the third sealed bearing (37310); one end of the first transmission rod (3736) and one end of the second transmission rod (37311) are respectively connected to the planetary reducer (3734); 734) is connected to the input end and the output end; a plurality of follower rods (3737) are arranged around the side wall of one end of the first transmission rod (3736), a second groove (3738) is provided on the outer side wall of each of the follower rods (3737), a second strong magnet (3739) is arranged in the inner cavity of each of the second grooves (3738), and the second strong magnet (3739) is magnetically connected to the first strong magnet (3723), and a paddle (37312) is arranged in the middle of the second transmission rod (37311); a second scraper (37313) is arranged at one end of the second transmission rod (37311), and a hollow plate (37314) is arranged on the side wall of the sealing box (3732) and located at the position of the second transmission rod (37311), wherein the activated carbon is located between the hollow plate (37314) and the filter assembly (36) on the side away from the water pipe (35).

2. The energy ultrapure water treatment equipment according to claim 1, characterized in that: The filter assembly (36) comprises a positioning ring (361), an inner cavity side wall of the positioning ring (361) is provided with an internal thread groove (362), the inner cavity of the internal thread groove (362) is provided with a front filter plate (363), and the front filter plate (363) is made of copper material; A pressure ring (365) is rotatably connected to the inner cavity of the internal thread groove (362) and is located outside the front filter plate (363). A sealing rubber ring (364) is provided in the inner cavity of the internal thread groove (362) and is located between the front filter plate (363) and the pressure ring (365).

3. The energy ultrapure water treatment equipment according to claim 1, characterized in that: The paddle (37312) is made of silicone material.

4. The energy ultrapure water treatment equipment according to claim 1, characterized in that: Both sides of the bottom surface of the water guide box (31) are inlaid with drainage pipes (39), and the middle of the drainage pipes (39) is connected in series with a valve (310), wherein the two drainage pipes (39) are respectively located on one side in front of the two filter assemblies (36).

5. The energy ultrapure water treatment equipment according to claim 1, characterized in that: The control mechanism (13) comprises a chassis (131) arranged on the outer wall surface of the pre-processing mechanism (3); a chassis cover (132) is arranged on the surface of the chassis (131); a control mainboard (133) is arranged in the inner cavity of the chassis (131); and a touch display screen (134) and a buzzer (135) are arranged on the surface of the chassis cover (132).

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