An integrated high-purity water equipment

Abstract

The present invention belongs to the field of water treatment technology, specifically an integrated high-purity water device, including a sterilization water storage mechanism, an activated carbon filtration mechanism, a replenishing mechanism, a softening mechanism, a reverse osmosis filtration mechanism, a precision filtration mechanism, a deionization mechanism, a multi-media filtration mechanism and an integrated cabin. A sterilization water storage mechanism is provided to sterilize the source water in advance, thereby reducing the risk of microorganisms entering sensitive units such as reverse osmosis and electrodeionization, extending the service life of membranes and resins, and sterilizing the treated source water again to achieve efficient, safe and energy-saving sterilization goals; an activated carbon filtration mechanism is provided to automatically connect to the activated carbon filtration device by utilizing the pressure difference between the input and output source water, and automatically replace the activated carbon when the activated carbon is saturated, thereby ensuring that the water flow can be evenly distributed, reducing local blockage of the activated carbon caused by long-term unidirectional flow, and improving the overall filtration efficiency.

Description

Technical Field

[0001] The present invention belongs to the technical field of water treatment, and in particular relates to an integrated high-purity water device. Background Art

[0002] High-purity water refers to water with a conductivity of less than 0.1 μs / cm and a residual salt content of less than 0.3 mg / L at 25°C, and free of non-dielectric impurities such as trace bacteria, microorganisms, and particulates. Preparation methods include distillation, membrane separation, ion exchange, and sterilization. It is primarily used in the electronics and microelectronics industries, as well as in the food, papermaking, pharmaceutical, and nuclear industries.

[0003] Existing treatment equipment typically incorporates activated carbon filtration and water softening prior to reverse osmosis treatment. However, activated carbon filtration is prone to saturation, leading to deteriorating water quality and the risk of clogging. This causes suspended matter and colloids to penetrate the RO membrane surface, where insoluble salts such as calcium, magnesium, and silicates crystallize, leading to clogging. This reduces water production, increases energy consumption, and even significantly shortens the filter's lifespan. Activated carbon filters cannot be automatically replaced, meaning filtration cannot be stopped promptly when saturated. Furthermore, replacing the activated carbon inside is extremely inconvenient, resulting in lengthy maintenance times and impacting the filter's proper operation. Summary of the Invention

[0004] In view of the above situation, in order to overcome the defects of the prior art, the present invention provides an integrated high-purity water equipment to solve the technical problems existing in the background technology.

[0005] The technical solution adopted by the present invention is as follows: The present invention provides an integrated high-purity water equipment, including a sterilization water storage mechanism, an activated carbon filtration mechanism, a replenishing mechanism, a softening mechanism, a reverse osmosis filtration mechanism, a precision filtration mechanism, a deionization mechanism, a multi-media filtration mechanism and an integrated cabin, wherein the sterilization water storage mechanism is arranged in the integrated cabin, the activated carbon filtration mechanism is arranged behind the sterilization water storage mechanism, the deionization mechanism is arranged behind the sterilization water storage mechanism, the reverse osmosis filtration mechanism is arranged behind the deionization mechanism, the replenishing mechanism is arranged above the reverse osmosis filtration mechanism, the softening mechanism is arranged behind the activated carbon filtration mechanism, the precision filtration mechanism is arranged behind the softening mechanism, and the multi-media filtration mechanism is arranged on one side of the sterilization water storage mechanism.

[0006] Furthermore, the sterilization water storage mechanism includes a rectangular water tank, a cross partition plate, an ultraviolet sterilization component and a water tank base, the water tank base is arranged in the integrated cabin, the rectangular water tank is arranged above the water tank base, the cross partition plate is arranged in the rectangular water tank, and the ultraviolet sterilization component is arranged in the cross partition plate.

[0007] Furthermore, the ultraviolet sterilization assembly includes a sterilization base, a lampshade and an ultraviolet lamp. The lampshade is arranged in the cross compartment plate, the sterilization base is fixedly connected to the lampshade, and the ultraviolet lamp is arranged on the sterilization base.

[0008] Furthermore, the cross partition plate divides the rectangular water tank into a water filling tank, a clean water tank, a water storage tank and a drainage tank. The water filling tank is located above the clean water tank, and the water storage tank is located above the drainage tank.

[0009] Furthermore, symmetrical siphon pipes are provided on the horizontal surface of the cross subdivision plate, and symmetrical pressure balancing pipes are provided on the horizontal surface of the cross subdivision plate.

[0010] Furthermore, the top of the rectangular water tank is provided with a symmetrically positioned water injection channel and a water storage channel, and the bottom of the rectangular water tank is provided with a symmetrically positioned water purification channel and a drainage channel. Both the water purification channel and the drainage channel are provided with electrically controlled valves. The water injection channel is connected to the water injection tank, the water storage channel is connected to the water storage tank, the water purification channel is connected to the water purification tank, and the drainage channel is connected to the drainage tank.

[0011] Furthermore, the multi-media filtering mechanism includes a multi-media filter, a multi-media water pump and a multi-media water pipe. The multi-media filter is arranged in the integrated cabin, the multi-media water pump is arranged on one side of the multi-media filter, the multi-media filter is connected to the multi-media water pump through the multi-media water pipe, and the multi-media water pump is connected to the clean water channel. The multi-media filter uses granular or non-granular materials to remove suspended impurities, thereby clarifying the source water. It has the characteristics of low cost, low operating cost, simple management, long filter material life, good filtration effect and small footprint.

[0012] Furthermore, the activated carbon filtration mechanism includes an activated carbon filtration device, a waste box, a filter base and a filter corrosion-resistant pump. The filter base is arranged in the integrated cabin, the activated carbon filtration device is arranged on the filter base, the waste box is arranged below the activated carbon filtration device, and the filter corrosion-resistant pump is arranged in the integrated cabin. At least two groups of the activated carbon filtration device are installed. The surface area generated by the unique porous structure of activated carbon has a strong physical adsorption capacity. The activated carbon filtration device utilizes the adsorption properties of activated carbon to remove impurities in the liquid, adsorb organic matter, colloidal particles, and microorganisms in the water, and can also effectively remove color and odor. It has the advantages of good adsorption effect, simple management, low operating costs, and long raw material life.

[0013] Furthermore, the activated carbon filter device includes a filter cabin, a top water pipe, a bottom water pipe, a supplementary interface, a filter bracket, a fiber membrane, a connecting cabin, a sweeping arm and a magnetic outer ring. The filter cabin is arranged above the filter base, the top water pipe is connected to the top of the filter cabin, the bottom water pipe is connected to the bottom of the filter cabin, the supplementary interface is arranged at the top of the filter cabin, the filter bracket is arranged in the filter cabin, the fiber membrane is arranged above the filter bracket, the connecting cabin is arranged on the filter cabin, the magnetic outer ring is rotatably arranged outside the connecting cabin, and the sweeping arm is fixedly connected to the magnetic outer ring.

[0014] Furthermore, the lower end of the connecting cabin is slidably connected to a sealing sliding pipe, and the bottom of the connecting cabin is connected to a waste discharge channel, and the waste discharge channel is also connected to the waste box.

[0015] Furthermore, a rotating sleeve is rotatably connected to the connecting cabin, a follower gear is provided on the top of the rotating sleeve, a magnetic turntable is provided on the bottom of the rotating sleeve, a rotating motor is provided on the top of the filter cabin, and a transmission gear is connected to the output end of the rotating motor, and the transmission gear is meshed with the follower gear.

[0016] Furthermore, an equal number of permanent magnets are provided on the magnetic turntable and in the magnetic outer ring. The permanent magnets on the magnetic turntable and in the magnetic outer ring attract each other. The number of permanent magnets is an even multiple, and the magnetic poles of the permanent magnets are arranged alternately.

[0017] Furthermore, a transmission base is provided on the top of the filter cabin, an exhaust cylinder is provided above the transmission base, a transmission connecting rod is connected to the top of the sealing slide pipe, and the transmission connecting rod is fixedly connected to the telescopic end of the exhaust cylinder.

[0018] Furthermore, an inlet three-way valve is connected between the top water pipes of the two groups of activated carbon filter devices, and a drain three-way valve is connected between the bottom water pipes of the two groups of activated carbon filter devices. The inlet three-way valve is connected to the filter corrosion-resistant pump through a filter water inlet pipe. An inlet pressure detector is provided on the filter water inlet pipe. The drain three-way valve is connected to a filter drain pipe. A drain pressure detector is provided on the filter drain pipe. The inlet three-way valve, the drain three-way valve, the inlet pressure detector and the drain pressure detector are electrically connected.

[0019] Furthermore, the water inlet of the filtering and corrosion-resistant pump is connected to the water outlet of the multi-media filter.

[0020] Furthermore, the replenishing mechanism includes a replenishing base and a replenishing charcoal cabin, the replenishing base is arranged above the reverse osmosis filtration mechanism, and the replenishing charcoal cabin is arranged above the replenishing base.

[0021] Furthermore, a symmetrical conveying channel is provided at the bottom of the supplementary charcoal compartment, a conveying dragon is rotated in the conveying channel, a conveying motor is provided on the outside of the conveying channel, a conveying butterfly valve is provided at the lower end of the conveying channel, and the conveying dragon is transmission-connected to the output end of the conveying motor.

[0022] Furthermore, the reverse osmosis filtration mechanism includes an osmosis frame, a first-level reverse osmosis device, a first-level pure water tank, a second-level reverse osmosis device, a second-level pure water tank, a second-level high-pressure pump, a first-level high-pressure pump and an osmosis drain pipe. The osmosis frame is arranged in an integrated cabin. The first-level reverse osmosis device, the first-level pure water tank, the second-level reverse osmosis device and the second-level pure water tank are installed on the osmosis frame. The top of the first-level reverse osmosis device is connected to the top of the first-level pure water tank. The top of the second-level reverse osmosis device is connected to the top of the second-level pure water tank. The second-level high-pressure pump is installed in the integrated cabin. The first-level high-pressure pump is installed in the integrated cabin. The water outlet end of the first-level high-pressure pump is connected to the first-level water tank. The bottom of the reverse osmosis device is connected, the secondary high-pressure pump is simultaneously connected to the bottom of the secondary reverse osmosis device and the primary pure water tank, the osmosis drainage pipe is connected to the bottom of the secondary pure water tank, the primary reverse osmosis device and the secondary reverse osmosis device use the pressure difference as the power to perform membrane separation and filtration. Under a certain pressure, water molecules can pass through the RO membrane, while inorganic salts, heavy metal ions, organic matter, colloids, bacteria, viruses and other impurities in the source water cannot pass through the RO membrane, thereby strictly distinguishing the pure water that can pass through and the concentrated water that cannot pass through. It has the advantages of low energy consumption, small equipment size, simple operation, strong adaptability, high water recovery rate, low operating cost, etc.

[0023] Furthermore, the softening mechanism includes a softening anti-corrosion pump, a softening water inlet pipe, a resin filter and a softening drain pipe. The softening anti-corrosion pump is arranged in an integrated cabin, the resin filter is arranged in an integrated cabin, the softening anti-corrosion pump and the resin filter are connected through a softening water inlet pipe, the softening drain pipe is connected to the water outlet of the resin filter, and the water inlet of the softening anti-corrosion pump is also connected to the filter drain pipe. The resin filter adopts the ion exchange principle to remove scaling ions such as calcium and magnesium in the water. When the source water containing hardness ions passes through the resin layer in the exchanger, the water The calcium and magnesium ions in the resin are replaced with the sodium ions adsorbed by the resin. The resin adsorbs the calcium and magnesium ions and the sodium ions enter the water. In this way, the water flowing out of the exchanger is softened water with the hardness ions removed. As the exchange process continues, the resin is gradually saturated with calcium and magnesium ions, and the exchange capacity of the resin decreases until it loses its softening exchange capacity. At this time, the resin must be regenerated, such as using a large amount of sodium ions in the regeneration agent (saturated salt water NaCl) to replace the calcium and magnesium ions adsorbed by the resin. The resin re-absorbs the sodium ions and restores its softening exchange capacity.

[0024] Furthermore, the precision filtration mechanism includes a precision anti-corrosion pump, a soft water storage tank and a security filter. The precision anti-corrosion pump is arranged in the integrated cabin, the security filter is arranged in the integrated cabin, and the soft water storage tank is arranged in the integrated cabin. The precision anti-corrosion pump is connected to the water inlet end of the security filter, and the water outlet end of the security filter is connected to the water inlet end of the soft water storage tank. The soft water storage tank is also connected to the water inlet end of the first-level high-pressure pump, and the water inlet end of the precision anti-corrosion pump is also connected to the filter drain pipe. When the security filter is filtering, the filter residue remains on the filter material wall, and the filtrate flows out through the filter material, thereby achieving the purpose of filtration. It has the characteristics of high filtration accuracy, uniform filter element pore size, small filtration resistance, large flux, high filter element material cleanliness, and no pollution to the filter medium.

[0025] Furthermore, the deionization mechanism includes an EDI device, a deionization base and an EDI booster pump. The deionization base is arranged in an integrated cabin, the EDI device is arranged on the top of the deionization base, and the EDI booster pump is installed in the deionization base. The EDI booster pump is connected to the water inlet end of the EDI device, and the water outlet end of the EDI device is connected to the water storage channel. The water inlet end of the EDI booster pump is also connected to the permeate drain pipe. The EDI device utilizes the polarization phenomenon in the electrodialysis process to electrochemically regenerate the ion exchange resin. First, it can perform ion exchange to minimize the number of ions in the water. Second, it can greatly increase the migration speed of ions and realize continuous ion exchange.

[0026] The beneficial effects of the integrated high-purity water equipment provided by this solution are as follows:

[0027] (1) Using pre-treatment methods, setting up a sterilization water storage mechanism, and sterilizing the source water in advance can avoid system contamination caused by microbial growth, reduce the risk of microorganisms entering sensitive units such as reverse osmosis and electrodeionization, and extend the service life of membranes and resins. On the other hand, the treated source water can be sterilized again to further kill residual bacteria, viruses, etc., to ensure the water quality is sterile. The sterilization water storage mechanism sterilizes both pure water and source water at the same time, achieving the sterilization goal of high efficiency, safety, and energy saving.

[0028] (2) The sterilization water storage mechanism uses a cross-type partition plate to divide the rectangular water tank into four compartments: a water filling tank, a water storage tank, a clean water tank, and a drainage tank. The water in the upper and lower compartments is transported by siphon. For a single small amount of high-purity water, this method can extend the overall sterilization time and improve the sterilization efficiency. For continuous preparation of high-purity water, the upper and lower compartments can ensure that there is always enough water in the lower compartment, reducing the sterilization dead corners caused by the "short circuit" of the water flow.

[0029] (3) An activated carbon filtration mechanism is set up, which uses the pressure difference between the input and output source water to automatically connect the activated carbon filtration device, and automatically replaces the activated carbon when it is saturated, ensuring that the water flow can be evenly distributed, reducing the local blockage of the activated carbon caused by long-term one-way flow, and improving the overall filtration efficiency;

[0030] (4) A magnetic turntable and a magnetic outer ring are set up, and a permanent magnet with N-pole alternately arranged can realize contactless transmission, which can drive the sweeping arm to rotate, making it easy to evenly spread the activated carbon on the fiber membrane. When saturated, the activated carbon can be pushed into the waste discharge channel to facilitate the replacement of the activated carbon;

[0031] (5) Set up a waste box to collect saturated activated carbon. After regeneration, the activated carbon can be reused for filtration, achieving the technical effect of reducing costs and increasing efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] Figure 1 This is a structural schematic diagram of an integrated high-purity water device proposed by the present invention;

[0033] Figure 2 This is a top view of an integrated high-purity water device proposed by the present invention;

[0034] Figure 3 This is a left view of an integrated high-purity water device proposed by the present invention;

[0035] Figure 4 This is a right side view of an integrated high-purity water device proposed by the present invention;

[0036] Figure 5 It is a partial structural diagram of the sterilization water storage mechanism;

[0037] Figure 6 Schematic diagram of the internal structure of the sterilized water storage mechanism;

[0038] Figure 7 This is a schematic diagram of the internal structure of the UV sterilization component;

[0039] Figure 8 It is a structural diagram of the activated carbon filtration mechanism;

[0040] Figure 9 It is a partial structural diagram of an activated carbon filtration device;

[0041] Figure 10 Schematic diagram of the internal structure of the activated carbon filter device;

[0042] Figure 11 It is a schematic diagram of the magnetic attraction relationship between the magnetic turntable and the magnetic outer ring;

[0043] Figure 12 It is a schematic diagram of the transmission structure of the activated carbon filter device;

[0044] Figure 13 A structural diagram of the supplementary mechanism;

[0045] Figure 14 To supplement the internal structure diagram of the organization;

[0046] Figure 15 It is the connection relationship diagram of the softening mechanism and the precision filtering mechanism;

[0047] Figure 16 It is a connection diagram of the deionization mechanism and the reverse osmosis filtration mechanism;

[0048] Figure 17 It is a structural diagram of a multi-media filtration mechanism.

[0049] Among them, 1. Sterilization water storage mechanism, 2. Activated carbon filtration mechanism, 3. Supplement mechanism, 4. Reverse osmosis filtration mechanism, 5. Softening mechanism, 6. Precision filtration mechanism, 7. Deionization mechanism, 8. Integrated cabin, 9. Multi-media filtration mechanism, 101. Rectangular water tank, 102. Cross compartment plate, 103. UV sterilization component, 104. Siphon, 105. Pressure balance pipe, 106. Water injection channel, 107. Water storage channel, 108. Clean water channel, 109. Drainage channel, 110. Water injection tank, 111. Clean water tank, 112. Water storage tank, 113. Drainage tank, 114, sterilization base, 115, lampshade, 116, UV lamp, 117, water tank base, 201, activated carbon filter device, 202, waste box, 203, filter base, 204, filter water inlet pipe, 205, filter drain pipe, 206, filter corrosion-resistant pump, 207, water inlet three-way valve, 208, drain three-way valve, 209, water inlet pressure detector, 210, drain pressure detector, 211, filter tank, 212, top water pipe, 213, bottom water pipe, 214, supplementary interface, 215, filter bracket, 216, fiber membrane, 217, connecting cabin, 218, magnetic turntable, 219, sweeping arm, 220, magnetic outer ring, 221, transmission connecting rod, 222, sealing slide pipe, 223, exhaust channel, 224, follower gear, 225, transmission gear, 226, rotating motor, 227, exhaust cylinder, 228, transmission base, 229, rotating sleeve, 301, replenishing base, 302, replenishing charcoal cabin, 303, conveying channel, 304, conveying dragon, 305, conveying motor, 306, conveying butterfly valve, 401, osmosis frame, 402, first-stage reverse osmosis, 4 03. Primary pure water tank, 404. Secondary reverse osmosis device, 405. Secondary pure water tank, 406. Secondary high-pressure pump, 407. Primary high-pressure pump, 408. Osmosis drain pipe, 501. Softening and anti-corrosion pump, 502. Softening water inlet pipe, 503. Resin filter, 504. Softening drain pipe, 601. Precision anti-corrosion pump, 602. Security filter, 603. Soft water storage tank, 701. EDI equipment, 702. Deionization base, 703. EDI booster pump, 901. Multi-media filter, 902. Multi-media water pump, 903. Multi-media water pipe.

[0050] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention. DETAILED DESCRIPTION

[0051] The technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments; based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of the present invention.

[0052] In the description of the present invention, it should be understood that terms such as "upper", "lower", "front", "back", "left", "right", "top", "bottom", "inside" and "outside" indicating directions or positional relationships are based on the directions or positional relationships shown in the accompanying drawings. They are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific direction, be constructed and operated in a specific direction. Therefore, they should not be understood as limiting the present invention.

[0053] like Figures 1-17 As shown, the present invention provides an integrated high-purity water equipment, including a sterilizing water storage mechanism 1, an activated carbon filtration mechanism 2, a replenishing mechanism 3, a softening mechanism 5, a reverse osmosis filtration mechanism 4, a precision filtration mechanism 6, a deionization mechanism 7, a multi-media filtration mechanism 9 and an integrated cabin 8. The sterilizing water storage mechanism 1 is arranged in the integrated cabin 8, the activated carbon filtration mechanism 2 is arranged behind the sterilizing water storage mechanism 1, the deionization mechanism 7 is arranged behind the sterilizing water storage mechanism 1, the reverse osmosis filtration mechanism 4 is arranged behind the deionization mechanism 7, the replenishing mechanism 3 is arranged above the reverse osmosis filtration mechanism 4, the softening mechanism 5 is arranged behind the activated carbon filtration mechanism 2, the precision filtration mechanism 6 is arranged behind the softening mechanism 5, and the multi-media filtration mechanism 9 is arranged on one side of the sterilizing water storage mechanism 1.

[0054] The sterilizing water storage mechanism 1 includes a rectangular water tank 101, a cross compartment plate 102, an ultraviolet sterilizing assembly 103 and a water tank base 117. The water tank base 117 is arranged in the integrated cabin 8, the rectangular water tank 101 is arranged above the water tank base 117, the cross compartment plate 102 is arranged in the rectangular water tank 101, and the ultraviolet sterilizing assembly 103 is arranged in the cross compartment plate 102; the ultraviolet sterilizing assembly 103 includes a sterilizing base 114, a lampshade 115 and an ultraviolet lamp 116, and the lampshade 117 is arranged in the integrated cabin 8. 15 is arranged in the cross compartment plate 102, the sterilization base 114 is fixedly connected to the lampshade 115, and the ultraviolet lamp 116 is arranged on the sterilization base 114; the cross compartment plate 102 divides the rectangular water tank 101 into a water filling tank 110, a clean water tank 111, a water storage tank 112 and a drainage tank 113, the water filling tank 110 is located above the clean water tank 111, and the water storage tank 112 is located above the drainage tank 113; symmetrical siphons 104 are arranged on the horizontal surface of the cross compartment plate 102, Symmetrical pressure equalization pipes 105 are provided on the horizontal surface of the Chinese-shaped partition plate 102; symmetrical water injection channels 106 and water storage channels 107 are provided on the top of the rectangular water tank 101, and symmetrical water purification channels 108 and drainage channels 109 are provided on the bottom of the rectangular water tank 101. Both the water purification channels 108 and the drainage channels 109 are provided with electrically controlled valves. The water injection channel 106 is connected to the water injection tank 110, the water storage channel 107 is connected to the water storage tank 112, the water purification channel 108 is connected to the water purification tank 111, and the drainage channel 109 is connected to the drainage tank 113; the multi-media filtering mechanism 9 includes a multi-media filter 901, a multi-media water pump 902 and a multi-media water pipe 903. The multi-media filter 901 is arranged in the integrated cabin 8, and the multi-media water pump 902 is arranged on one side of the multi-media filter 901. The multi-media filter 901 is connected to the multi-media water pump 902 through the multi-media water pipe 903, and the multi-media water pump 902 is connected to the water purification channel 108.

[0055] The activated carbon filter mechanism 2 includes an activated carbon filter device 201, a waste box 202, a filter base 203 and a filter corrosion-resistant pump 206. The filter base 203 is arranged in the integrated cabin 8, the activated carbon filter device 201 is arranged on the filter base 203, the waste box 202 is arranged below the activated carbon filter device 201, the filter corrosion-resistant pump 206 is arranged in the integrated cabin 8, and at least two groups of activated carbon filter devices 201 are installed; the activated carbon filter device 201 includes a filter cabin 211, a top water pipe 212, a bottom water pipe 213, a replenishing interface 214, a filter bracket 215, a fiber membrane 216, a connecting cabin 217, a sweeping arm 219 and a magnetic outer ring 220. The filter cabin 211 is arranged above the filter base 203, the top water pipe 2 12 is connected to the top of the filter cabin 211, the bottom water pipe 213 is connected to the bottom of the filter cabin 211, the replenishing interface 214 is provided at the top of the filter cabin 211, the filter bracket 215 is provided in the filter cabin 211, the fiber membrane 216 is provided above the filter bracket 215, the connecting cabin 217 is provided on the filter cabin 211, the magnetic outer ring 220 is rotatably provided on the outside of the connecting cabin 217, and the sweeping arm 219 is fixedly connected to the magnetic outer ring 220; the lower end of the connecting cabin 217 is slidably connected to the sealing sliding pipe 222, the bottom of the connecting cabin 217 is connected to the waste discharge channel 223, and the waste discharge channel 223 is also connected to the waste bin 202; the connecting cabin 217 is rotatably connected to the rotating sleeve 229, and the top of the rotating sleeve 229 is provided with a follower gear 22 4. A magnetic turntable 218 is provided at the bottom of the rotating sleeve 229, and a rotating motor 226 is provided at the top of the filter cabin 211. The output end of the rotating motor 226 is connected to a transmission gear 225, and the transmission gear 225 is meshed with the follower gear 224; an equal number of permanent magnets are provided on the magnetic turntable 218 and in the magnetic outer ring 220, and the permanent magnets on the magnetic turntable 218 and in the magnetic outer ring 220 attract each other, the number of permanent magnets is an even multiple, and the magnetic poles of the permanent magnets are arranged alternately; a transmission base 228 is provided at the top of the filter cabin 211, and an exhaust cylinder 227 is provided above the transmission base 228. A transmission connecting rod 221 is connected to the telescopic end of the transmission connecting rod 221 and the exhaust cylinder 227. Fixed connection; an inlet three-way valve 207 is connected between the top water pipes 212 of the two groups of activated carbon filter devices 201, and a drain three-way valve 208 is connected between the bottom water pipes 213 of the two groups of activated carbon filter devices 201. The inlet three-way valve 207 is connected to the filter corrosion-resistant pump 206 through the filter water inlet pipe 204, and the filter water inlet pipe 204 is provided with an inlet pressure detector 209. The drain three-way valve 208 is connected to the filter drain pipe 205, and the filter drain pipe 205 is provided with a drain pressure detector 210. The inlet three-way valve 207, the drain three-way valve 208, the inlet pressure detector 209 and the drain pressure detector 210 are electrically connected; the water inlet end of the filter corrosion-resistant pump 206 is connected to the water outlet end of the multi-media filter 901.

[0056] The replenishing mechanism 3 includes a replenishing base 301 and a replenishing charcoal cabin 302. The replenishing base 301 is arranged above the reverse osmosis filtration mechanism 4, and the replenishing charcoal cabin 302 is arranged above the replenishing base 301; a symmetrical conveying channel 303 is provided at the bottom of the replenishing charcoal cabin 302, a conveying dragon 304 is provided for rotation in the conveying channel 303, a conveying motor 305 is provided on the outside of the conveying channel 303, and a conveying butterfly valve 306 is provided at the lower end of the conveying channel 303, and the conveying dragon 304 is transmission-connected to the output end of the conveying motor 305.

[0057] The reverse osmosis filtration mechanism 4 includes an osmosis frame 401, a first-level reverse osmosis device 402, a first-level pure water tank 403, a second-level reverse osmosis device 404, a second-level pure water tank 405, a second-level high-pressure pump 406, a first-level high-pressure pump 407 and an osmosis drain pipe 408. The osmosis frame 401 is arranged in the integrated cabin 8, and the first-level reverse osmosis device 402, the first-level pure water tank 403, the second-level reverse osmosis device 404 and the second-level pure water tank 405 are installed on the osmosis frame 401. The top of the first-level reverse osmosis device 402 is connected to the top of the first-level pure water tank 403, the top of the second-level reverse osmosis device 404 is connected to the top of the second-level pure water tank 405, and the second-level high-pressure pump 406 is connected to the second-level pure water tank 407. 6 is installed in the integrated cabin 8, the first-level high-pressure pump 407 is installed in the integrated cabin 8, the water outlet of the first-level high-pressure pump 407 is connected to the bottom of the first-level reverse osmosis device 402, the second-level high-pressure pump 406 is connected to the bottom of the second-level reverse osmosis device 404 and the first-level pure water cabin 403 at the same time, and the permeate drainage pipe 408 is connected to the bottom of the second-level pure water cabin 405; the softening mechanism 5 includes a softening anti-corrosion pump 501, a softening water inlet pipe 502, a resin filter 503 and a softening drainage pipe 504, the softening anti-corrosion pump 501 is arranged in the integrated cabin 8, the resin filter 503 is arranged in the integrated cabin 8, and the softening anti-corrosion pump 501 and the resin filter 503 are connected through a soft The softening water inlet pipe 502 is connected, the softening drain pipe 504 is connected to the water outlet of the resin filter 503, and the water inlet of the softening anti-corrosion pump 501 is connected to the filter drain pipe 205 at the same time; the precision filtering mechanism 6 includes a precision anti-corrosion pump 601, a soft water storage tank 603 and a security filter 602. The precision anti-corrosion pump 601 is arranged in the integrated cabin 8, the security filter 602 is arranged in the integrated cabin 8, and the soft water storage tank 603 is arranged in the integrated cabin 8. The precision anti-corrosion pump 601 is connected to the water inlet of the security filter 602, the water outlet of the security filter 602 is connected to the water inlet of the soft water storage tank 603, and the soft water storage tank 603 is connected to the first The water inlet end of the high-pressure pump 407 is connected, and the water inlet end of the precision anti-corrosion pump 601 is also connected to the filter drain pipe 205; the deionization mechanism 7 includes an EDI device 701, a deionization base 702 and an EDI booster pump 703, the deionization base 702 is arranged in the integrated cabin 8, the EDI device 701 is arranged on the top of the deionization base 702, the EDI booster pump 703 is installed in the deionization base 702, the EDI booster pump 703 is connected to the water inlet end of the EDI device 701, the water outlet end of the EDI device 701 is connected to the water storage channel 107, and the water inlet end of the EDI booster pump 703 is also connected to the permeate drain pipe 408.

[0058] When in use, first send the source water into the sterilization water storage mechanism 1, and the source water is injected into the rectangular water tank 101 through the water injection channel 106. The cross partition plate 102 divides the rectangular water tank 101 into four compartments, namely the water injection compartment 110, the clean water compartment 111, the water storage compartment 112 and the drainage compartment 113. The source water first enters the water injection compartment 110 through the water injection channel 106. At this time, the ultraviolet lamp 116 is started. The ultraviolet lamp 116 can sterilize the inside of the rectangular water tank 101. The cross partition plate 102 is transparent quartz glass. Ultraviolet light can pass through quartz glass, and the transmittance of quartz glass to ultraviolet light is significant. It is superior to ordinary glass and other materials. Therefore, the ultraviolet lamp 116 can sterilize four compartments at the same time. When the source water is injected into the water injection compartment 110, the liquid level in the water injection compartment 110 gradually rises. When the liquid level is higher than the top of the siphon 104, the source water in the water injection compartment 110 is sucked into the water purification compartment 111 through the siphon 104. The pressure balance pipe 105 is used to balance the air pressure in the water injection compartment 110 and the water purification compartment 111. By sterilizing the source water in advance, it is prevented that the microorganisms in the source water are brought into the subsequent water purification components. When the source water is purified, it returns to the water storage compartment 112 through the water storage channel 107 and is stored with the water. The amount of pure water in the tank 112 increases. As the liquid level rises, the pure water in the water storage tank 112 enters the drainage tank 113 through the siphon 104. When the pure water needs to be discharged, the electric control valve on the drainage channel 109 is opened to discharge the high-purity water. After the source water completes the sterilization operation, the electric control valve of the clean water channel 108 is opened, and the source water is sent to the multi-media water pump 902 through the clean water channel 108. The multi-media water pump 902 sends the source water from the multi-media water pipe 903 to the multi-media filter 901. The multi-media filter 901 is used to remove suspended impurities in the source water, and then the source water is discharged from the bottom of the multi-media filter 901. The water flows out and enters the filter corrosion-resistant pump 206. The filter corrosion-resistant pump 206 is started and the source water is pumped into the filter water inlet pipe 204 by the filter corrosion-resistant pump 206. The water is controlled by the water inlet three-way valve 207 and the drainage three-way valve 208 at the same time, so that an activated carbon filter device 201 performs water purification separately. The source water enters the filter cabin 211 through the filter water inlet pipe 204 and is filtered by the activated carbon on the fiber membrane 216. The filtered source water passes through the fiber membrane 216 and enters the bottom water pipe 213 at the bottom of the filter cabin 211. The source water passes through the drainage three-way valve 208 and the filter drainage pipe 205 in turn and enters the softening and corrosion-resistant pump 501.The water pressure detected by the water inlet pressure detector 209 and the drainage pressure detector 210 is recorded during the first water purification. As the filtration time increases, the activated carbon gradually becomes saturated. At this time, the pressure of the water inlet pressure detector 209 increases, and the pressure detected by the drainage pressure detector 210 decreases. When the pressure change value exceeds 30%, the water inlet three-way valve 207 and the drainage three-way valve 208 simultaneously close the activated carbon filter device 201 that is purifying water, and the other activated carbon filter device 201 performs water purification. According to the type of activated carbon and the specifications and dimensions of the filter cabin 211 selected in the actual installation, the pressure change values ​​detected by the water inlet pressure detector 209 and the drainage pressure detector 210 will be different, so the pressure difference threshold also needs to be adjusted accordingly; the softening and anti-corrosion pump 501 pumps the source water into the softening water inlet pipe 502, and the softening water inlet pipe 502 sends the source water to the resin filter 503, and then the ions in the source water are adsorbed, and then the source water is discharged from the resin filter 503 and enters the softening drainage pipe 504; then the source water enters the precision anti-corrosion Pump 601, the precision anti-corrosion pump 601 pumps the source water into the security filter 602, and the security filter 602 is used to precisely filter the source water. After the precise filtration, the source water is discharged from the security filter 602 and enters the soft water storage tank 603; then the source water enters the first-level high-pressure pump 407, and the first-level high-pressure pump 407 pumps the source water into the first-level reverse osmosis device 402 for the first reverse osmosis filtration. After the filtration is completed, it enters the first-level pure water tank 403, and the source water of the first-level pure water tank 403 enters the second-level high-pressure pump 406. The secondary reverse osmosis device 404 performs a second reverse osmosis filtration. After the second reverse osmosis filtration, the source water enters the secondary pure water tank 405. The source water then enters the EDI booster pump 703 through the osmosis drain pipe 408. The EDI booster pump 703 pumps the source water into the EDI device 701. The EDI device 701 deeply purifies and desalinates the source water. After the desalination, the source water is discharged from the EDI device 701 and enters the water storage tank 112 through the water storage channel 107. The source water is then sterilized to obtain high-purity water.When it is necessary to replenish activated carbon, the activated carbon filter device 201 is in a stopped state, the saturated activated carbon is discharged first, the exhaust cylinder 227 is started, the exhaust cylinder 227 is shortened, and the sealing slide pipe 222 is moved upward, and the rotating motor 226 is started. The rotating motor 226 drives the transmission gear 225 to rotate, and the transmission gear 225 rotates to drive the follower gear 224 to rotate. The follower gear 224 rotates to drive the rotating sleeve 229 to rotate, and the rotating sleeve 229 rotates to drive the magnetic turntable 218 to rotate. Since the magnetic turntable 218 and the magnetic outer ring 220 attract each other, the rotation of the magnetic turntable 218 drives the magnetic outer ring 220 to rotate, and the rotation of the magnetic outer ring 220 drives the sweeping arm 219 to rotate. The sweeping arm 219 can assist the saturated activated carbon to enter the exhaust channel 223, and then the activated carbon enters the waste box 202 through the exhaust channel 223. The waste box 202 Saturated activated carbon can be reused through a regeneration process. Different waste discharge times are set based on the specifications and dimensions of the filter chamber 211. After waste discharge is complete, the exhaust cylinder 227 extends, driving the sealing slide 222 downward. This downward movement reseals the waste discharge channel 223. At this point, the conveying motor 305, corresponding to the conveying channel 303 connected to the activated carbon filter device 201, is activated. This motor 305 rotates the conveying dragon 304, which transports the activated carbon in the replenishing carbon chamber 302. The conveying butterfly valve 306 is then opened, allowing the activated carbon to fall into the filter chamber 211. The rotating motor 226 remains on, and the rotating sweeping arm 219 ensures that the activated carbon is evenly spread across the fiber membrane 216. The rotating motor 226 is then turned off. After refilling, the activated carbon filter device 201 can proceed with the next water purification operation.

[0059] The above is the specific working process of the present invention. Just repeat this step next time you use it.

[0060] It should be noted that, in this document, relational terms such as first and second, etc., are used only to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the terms "comprises," "comprising," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that includes a list of elements includes not only those elements but also other elements not explicitly listed, or elements inherent to such process, method, article, or apparatus.

[0061] While the embodiments of the present invention have been shown and described, it will be apparent to those skilled in the art that various changes, modifications, substitutions, and alterations can be made to these embodiments without departing from the principles and spirit of the invention.

[0062] The present invention and its embodiments are described above. This description is not restrictive. The drawings show only one embodiment of the present invention, and the actual structure is not limited thereto. In short, if a person skilled in the art is inspired by this and, without departing from the purpose of the present invention, designs structures and embodiments similar to this technical solution without inventiveness, they shall fall within the scope of protection of the present invention.

Claims

1. An integrated high-purity water device, characterized by: The invention comprises a sterilizing water storage mechanism (1), an activated carbon filtration mechanism (2), a replenishing mechanism (3), a softening mechanism (5), a reverse osmosis filtration mechanism (4), a precision filtration mechanism (6), a deionization mechanism (7), a multi-media filtration mechanism (9) and an integrated cabin (8), wherein the sterilizing water storage mechanism (1) is arranged in the integrated cabin (8), the activated carbon filtration mechanism (2) is arranged behind the sterilizing water storage mechanism (1), the deionization mechanism (7) is arranged behind the sterilizing water storage mechanism (1), the reverse osmosis filtration mechanism (4) is arranged behind the deionization mechanism (7), the replenishing mechanism (3) is arranged above the reverse osmosis filtration mechanism (4), the softening mechanism (5) is arranged behind the activated carbon filtration mechanism (2), the precision filtration mechanism (6) is arranged behind the activated carbon filtration mechanism (2), and the multi-media filtration mechanism (9) is arranged behind the activated carbon filtration mechanism (2). The structure (6) is arranged behind the softening mechanism (5), and the multi-media filtering mechanism (9) is arranged on one side of the sterilizing water storage mechanism (1); the activated carbon filtering mechanism (2) includes an activated carbon filtering device (201), a waste box (202), a filtering base (203) and a filtering corrosion-resistant pump (206), the filtering base (203) is arranged in the integrated cabin (8), the activated carbon filtering device (201) is arranged on the filtering base (203), the waste box (202) is arranged below the activated carbon filtering device (201), the filtering corrosion-resistant pump (206) is arranged in the integrated cabin (8), and at least two sets of the activated carbon filtering device (201) are installed; the sterilizing water storage mechanism (1) includes a rectangular water tank (101) , a cross partition plate (102) and a water tank base (117), wherein the water tank base (117) is arranged in the integrated cabin (8), the rectangular water tank (101) is arranged above the water tank base (117), the cross partition plate (102) is arranged in the rectangular water tank (101), symmetrical siphon pipes (104) are provided on the horizontal surface of the cross partition plate (102), and symmetrical pressure balance pipes (105) are provided on the horizontal surface of the cross partition plate (102); the activated carbon filter device (201) comprises a filter cabin (211), a top water pipe (212), a bottom water pipe (213), a supplementary interface (214), a filter bracket (215), a fiber membrane (216), and a connecting cabin (217) , a sweeping arm (219) and a magnetic outer ring (220), the filter chamber (211) is arranged above the filter base (203), the top water pipe (212) is connected to the top of the filter chamber (211), the bottom water pipe (213) is connected to the bottom of the filter chamber (211), the supplementary interface (214) is arranged at the top of the filter chamber (211), the filter bracket (215) is arranged in the filter chamber (211), the fiber membrane (216) is arranged above the filter bracket (215), the connecting chamber (217) is arranged on the filter chamber (211), the magnetic outer ring (220) is rotatably arranged outside the connecting chamber (217), and the sweeping arm (219) is fixedly connected to the magnetic outer ring (220);The lower end of the connecting cabin (217) is slidably connected to a sealing sliding pipe (222), and the bottom of the connecting cabin (217) is connected to a waste discharge channel (223), and the waste discharge channel (223) is also communicated with the waste box (202); the connecting cabin (217) is rotatably connected to a rotating sleeve shaft (229), the top of the rotating sleeve shaft (229) is provided with a follower gear (224), the bottom of the rotating sleeve shaft (229) is provided with a magnetic turntable (218), and the filter A rotating motor (226) is provided on the top of the cabin (211), and an output end of the rotating motor (226) is connected to a transmission gear (225), and the transmission gear (225) is meshed with a follower gear (224); an equal number of permanent magnets are provided on the magnetic turntable (218) and in the magnetic outer ring (220); the permanent magnets on the magnetic turntable (218) and in the magnetic outer ring (220) attract each other, the number of the permanent magnets is an even multiple, and the magnetic poles of the permanent magnets are arranged alternately.

2. The integrated high-purity water equipment according to claim 1, characterized in that: The sterilization water storage mechanism (1) further comprises an ultraviolet sterilization component (103), and the ultraviolet sterilization component (103) is arranged in the cross compartment plate (102).

3. The integrated high-purity water equipment according to claim 2, characterized in that: The cross partition plate (102) divides the rectangular water tank (101) into a water filling tank (110), a clean water tank (111), a water storage tank (112) and a drainage tank (113). The water filling tank (110) is located above the clean water tank (111), and the water storage tank (112) is located above the drainage tank (113). The top of the rectangular water tank (101) is provided with a symmetrical water filling channel (106) and a water storage channel (107). The bottom of the rectangular water tank (101) is provided with a symmetrical water cleaning channel (108) and a drainage channel (109). The clean water channel (108) and the drainage channel (109) are ) are provided with electric control valves, the water injection channel (106) is connected to the water injection cabin (110), the water storage channel (107) is connected to the water storage cabin (112), the clean water channel (108) is connected to the clean water cabin (111), and the drainage channel (109) is connected to the drainage cabin (113); the ultraviolet sterilization component (103) includes a sterilization base (114), a lampshade (115) and an ultraviolet lamp (116), the lampshade (115) is arranged in the cross compartment plate (102), the sterilization base (114) is fixedly connected to the lampshade (115), and the ultraviolet lamp (116) is arranged on the sterilization base (114).

4. The integrated high-purity water equipment according to claim 3, characterized in that: A transmission base (228) is provided on the top of the filter cabin (211), an exhaust cylinder (227) is provided above the transmission base (228), a transmission connecting rod (221) is connected to the top of the sealing slide tube (222), and the transmission connecting rod (221) is fixedly connected to the telescopic end of the exhaust cylinder (227).

5. The integrated high-purity water equipment according to claim 4, characterized in that: The multi-media filtering mechanism (9) comprises a multi-media filter (901), a multi-media water pump (902) and a multi-media water pipe (903); the multi-media filter (901) is arranged in the integrated cabin (8); the multi-media water pump (902) is arranged on one side of the multi-media filter (901); the multi-media filter (901) and the multi-media water pump (902) are connected via the multi-media water pipe (903); the multi-media water pump (902) is connected to the clean water channel (108); and the water inlet end of the filtration corrosion-resistant pump (206) is connected to the water outlet end of the multi-media filter (901).

6. The integrated high-purity water equipment according to claim 5, characterized in that: The replenishing mechanism (3) comprises a replenishing base (301) and a replenishing charcoal chamber (302), wherein the replenishing base (301) is arranged above the reverse osmosis filtration mechanism (4), and the replenishing charcoal chamber (302) is arranged above the replenishing base (301); a symmetrical conveying channel (303) is provided at the bottom of the replenishing charcoal chamber (302), a conveying dragon (304) is rotatably provided in the conveying channel (303), a conveying motor (305) is provided outside the conveying channel (303), a conveying butterfly valve (306) is provided at the lower end of the conveying channel (303), and the conveying dragon (304) is in transmission connection with the output end of the conveying motor (305).

7. The integrated high-purity water equipment according to claim 6, characterized in that: A water inlet three-way valve (207) is connected between the top water pipes (212) of the two groups of activated carbon filter devices (201), and a water discharge three-way valve (208) is connected between the bottom water pipes (213) of the two groups of activated carbon filter devices (201). The water inlet three-way valve (207) is connected to the filter corrosion-resistant pump (206) through a filter water inlet pipe (204). A water inlet pressure detector (209) is provided on the filter water inlet pipe (204). The water discharge three-way valve (208) is connected to a filter drain pipe (205). A water discharge pressure detector (210) is provided on the filter drain pipe (205). The water inlet three-way valve (207), the water discharge three-way valve (208), the water inlet pressure detector (209) and the water discharge pressure detector (210) are electrically connected.

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