A portable field ultrapure water preparation device and use method
By designing a portable field ultrapure water preparation device, the existing ultrapure water machines are solved for transportation and power supply requirements in the field environment, and efficient and portable ultrapure water preparation is achieved, with the advantages of durability and easy cleaning.
Patent Information
- Application Number
- CN202410271134.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2024-03-11
- Publication Date
- 2024-12-27
- Estimated Expiration
- 2044-03-11
AI Technical Summary
The existing ultra-pure water machines are large in size, special in shape, poor shock resistance, inconvenient for transportation, high prices, and cannot meet the needs of stable high-quality water sources and power sources in the field environment.
A portable field ultrapure water preparation device is designed, using a chassis and interface tube, built-in damper and shock absorber, equipped with universal wheels and a battery, including pretreatment unit, reverse osmosis unit, ultraviolet sterilizer, nuclear industrial grade The resin column and 0.22μm precision filter can work without power. It has a small size, regular shape and good shock resistance, making it easy to transport and carry.
It realizes efficient preparation of ultrapure water in a wild environment, suitable for use in a power-free state, reduces dependence on fixed water sources and power sources, has the advantages of durability, easy cleaning and replacement, and meets the needs of portability and ease of operation.
Smart Images

Figure CN118145827B_ABST
Abstract
Description
Technical Field
[0001] The invention belongs to the technical field of pure water equipment, and in particular to a portable field ultrapure water preparation device and a use method thereof. Background Art
[0002] Ultrapure water machine is a water treatment equipment that processes raw water such as tap water, removes the conductive medium in the water almost completely, and removes the undissociated colloids, gases and organic matter in the water to a very low level. The general water resistivity is 18.2MΩ·cm (25℃). In scientific research experiments, in order to improve the quality of collected samples and avoid contamination during the measurement process to the greatest extent, ultrapure water is required for pure water blank correction, solution preparation and container cleaning.
[0003] However, the above technologies often have the following defects: commercial ultrapure water machines are large in size, peculiar in shape, poor in shock resistance, inconvenient to transport, and expensive. The field environment often cannot meet the needs of commercially available ultrapure water machines for a stable, high-quality water source and a fixed power supply. Therefore, in response to the above problems, a portable field ultrapure water preparation device and a method of use are proposed. Summary of the invention
[0004] In order to make up for the deficiencies of the prior art, at least one technical problem raised in the background technology is solved.
[0005] The technical solution adopted by the present invention to solve its technical problems is: a portable outdoor ultrapure water preparation device described in the present invention comprises a chassis and an interface pipe; a cover plate is hinged on the front of the chassis, an audible and visual alarm is arranged on the top of the chassis, a damper is arranged inside the chassis, the damper is connected to an inner frame, the inner frame is connected to a control panel, a plurality of universal wheels are arranged at the bottom of the chassis, a pull rod is arranged at the back of the chassis, the inner frame is connected to a pretreatment unit through a symmetrically arranged limit assembly, the pretreatment unit and the top of the inner frame are jointly provided with a shock-absorbing gasket that contacts the inner wall of the chassis, and the pretreatment unit is connected to a through-hole. The shock-absorbing gasket is connected to the water inlet pipe outside the chassis, the water outlet of the water inlet pipe is connected to a coarse effect column, the water outlet of the coarse effect column is connected to the pretreatment unit, the inner wall of the inner frame is connected to a reverse osmosis unit, an ultraviolet sterilizer, a nuclear industry-grade resin column, a conductivity tester and a 0.22μm precision filter which are sequentially connected through an interface pipe, the pretreatment unit is connected to the reverse osmosis unit through an interface pipe, the 0.22μm precision filter is connected to a water outlet pipe that runs through the outside of the chassis, the inner frame is connected to a battery, the chassis is provided with a avoidance groove 2 which is always connected to the water outlet pipe, and the water outlet pipe is connected to a water gun; first, the staff pulls the pull Rod, through the cooperation of universal wheels, drives the chassis and its connected parts to move as a whole to the designated work site. By arranging dampers and shock-absorbing pads (shock-absorbing sponges) in the chassis, it plays a buffering and shock-absorbing role to avoid the inner frame in the chassis and the pretreatment unit, reverse osmosis unit, ultraviolet sterilizer, nuclear industry-grade resin column, conductivity tester, 0.22μm precision filter and battery connected to it from being damaged due to road bumps and severe vibrations during transportation and displacement. Turn on the control panel start device, and the raw water flows from the water inlet pipe into the coarse effect column first and then into the pretreatment unit for purification, and then flows into the reverse osmosis unit for re-treatment, and then Then it flows into the ultraviolet sterilizer for sterilization. The ultraviolet sterilizer uses UV lamp components to oxidize organic matter through dual-wavelength UV lamps, effectively reducing total organic carbon water, and then flows into the nuclear industry-grade resin column for reprocessing. The nuclear industry-grade resin column is an ultrapure water polishing resin with large-capacity purification, stable chemical properties, no decomposition, and no oligomers, monomers, and additives. It ensures extremely low dissolution rate and top water quality. Then it passes through the conductivity tester (i.e. imported + GF + industrial ultrapure water conductivity tester, electrode constant, with sound and light alarm and touch screen function) for conductivity test, and gradually flows into 0.The 22μm precision filter performs precision filtration to make the water purer. When water is needed, press the water gun and the treated pure water will flow into the water gun through the outlet pipe for discharge. The battery is powered and can produce 200L of ultrapure water on a single charge, which is suitable for field work without power supply. The battery can be on standby for a week. When not in use, the water machine is set to self-circulate for 15 minutes to ensure the cleanliness of the internal pipeline and shorten the preparation time for water production. The device is small in size, regular in shape, and shockproof. It is easy to transport and carry, and has a low price. It is easy to meet the portability and easy operation requirements of field scientific research and field investigations, and can also get rid of the restrictions on fixed water sources and power supplies. It has the advantages of durability and easy cleaning and replacement. .
[0006] Preferably, the pretreatment unit includes: a connecting frame connected to the limiting assembly, the inner wall of the connecting frame is connected to a meltblown filter element and an activated carbon filter, the meltblown filter element and the activated carbon filter are connected through an interface pipe, and the meltblown filter element is connected to a coarse effect column; the raw water flows from the coarse effect column into the meltblown filter element and the activated carbon filter in sequence for purification.
[0007] Preferably, the limit assembly includes: a passing hole and a storage hole which are opened in the inner frame and communicate with each other, the connecting frame is opened with the limit hole, the chassis is opened with an avoidance groove which is always communicated with the passing hole, the passing hole is clamped with a limit rod, the end of the clamped limit rod away from the chassis is clamped with a limit block, and a spring which is sleeved on the outside of the limit rod is arranged inside the storage hole; in the initial state, the limit hole and the limit block are clamped, and when the inner frame and the melt-blown filter element and activated carbon filter connected thereto need to be taken out and replaced, when the connecting frame is separated from the inner frame, the operator pulls the limit rod, which in turn drives the limit block to move, and the spring is compressed until the limit block is separated from the limit hole and is completely located inside the storage hole, and the limit rod is kept pulled unchanged, so that the inner frame and the melt-blown filter element and activated carbon filter connected thereto can be taken out and replaced.
[0008] Preferably, a baffle is connected to one end of the limit rod close to the chassis, the inner diameter of the baffle is larger than the outer diameter of the limit rod, the baffle is connected to a handle, and the limit rod and the limit block are threadedly connected; by providing the baffle, it is convenient to play a barrier role to prevent external debris (such as dust) from entering the passing hole, the storage hole and the limit hole through the avoidance groove, thereby facilitating sanitary maintenance; by providing a handle, it is convenient to pull the baffle, the limit rod and the limit block; by providing a threaded connection, it is convenient to disassemble and assemble the limit rod and the limit block.
[0009] Preferably, the reverse osmosis unit comprises: a circulation booster pump and an ion exchange resin column connected to the inner frame, the circulation booster pump and the ion exchange resin column are connected through an interface pipe, the circulation booster pump is connected to the activated carbon filter through the interface pipe, and the ion exchange resin column is connected to the ultraviolet sterilizer through the interface pipe; the ion exchange resin column is an ultrapure water polishing resin, which has the characteristics of large-capacity purification, stable chemical properties, no decomposition, and does not contain oligomers, monomers and additives, ensuring extremely low dissolution rate and top water quality; the circulation booster pump pumps water from the activated carbon filter into the interior of the ultraviolet sterilizer.
[0010] Preferably, the outer surface of the chassis is connected with a clamping ring, the clamping ring is clamped with a drainage pipe, the water outlet end of the drainage pipe is connected with a clamping pipe, the clamping pipe is threadedly connected to the water inlet pipe, and the drainage pipe is connected to a water inlet pump; the operator rotates the clamping pipe to connect it with the water inlet pipe thread;
[0011] When there is sufficient drinking water, it can be directly connected to bottled pure water through the water inlet pipe, without the need for additional water inlet pumps and drainage pipes;
[0012] When it is necessary to draw river water or lake water as inlet water, turn on the inlet pump so that the water source from a distant place flows into the inlet pipe through the drainage pipe and the clamp pipe, thus avoiding the problem of water shortage during field experiments.
[0013] When tap water needs to be drawn to connect to the water inlet, directly connect the drainage pipe to the tap water pipe;
[0014] To better meet the demand for pure water in the wild;
[0015] The clamping ring is provided to facilitate the guiding and limiting of the drainage tube, thereby preventing the drainage tube from swinging during the water flow process.
[0016] Preferably, a limiting ring is provided on the outside of the water inlet pipe, the limiting ring is connected to a connecting rope, the connecting rope is connected to a sealing block, and the sealing block is clamped with the water inlet end of the water inlet pipe; when the water inlet work is not performed and the water inlet pipe is separated from the clamping tube, in order to prevent external debris (such as dust) from entering the water inlet pipe, the operator clamps the sealing block and the water inlet pipe to seal it; by providing the connecting rope and the limiting ring, it is convenient to avoid the loss of the sealing block when it is not clamped.
[0017] Preferably, the back side of the chassis is symmetrically provided with air avoidance grooves, and the air avoidance grooves are provided with limit columns fixedly connected to the chassis. The limit columns are externally sleeved with legs, and the legs are arranged in an I-shape. The legs are threadedly connected with adjustment columns, and the end of the adjustment columns away from the limit columns is connected with a pad. In order to facilitate the stable support of the chassis and prevent the chassis from sliding during operation, the legs are rotated ninety degrees around the limit columns, and then each adjustment column is rotated in turn until each pad is in stable contact with the ground.
[0018] Preferably, the interface pipe is a polypropylene pipe, the outer surfaces of the ultraviolet sterilizer and the circulating booster pump are provided with rubber shock-proof pads, an insulation plate is provided between the chassis and the inner frame, the inner wall of the inner frame is connected to a temperature sensing device, the top of the chassis is connected to a lighting lamp, and the front of the cover is connected to a solar cell panel; the use of imported polypropylene pipes reduces the dissolution rate of the pipelines, and the provision of rubber shock-proof pads prevents the ultraviolet sterilizer and the circulating booster pump from being easily damaged during carrying.
[0019] The present invention also provides a method for using a portable outdoor ultrapure water preparation device, which is applied to the above-mentioned portable outdoor ultrapure water preparation device and comprises the following steps:
[0020] S1: Start the control panel, the raw water enters the melt-blown filter element of the pretreatment unit through the water inlet pipe, and then flows into the activated carbon filter through the interface pipe for pretreatment;
[0021] S2: The circulating booster pump flows the water treated by the activated carbon filter into the ion exchange resin column through the interface pipe for re-treatment;
[0022] S3: The ion exchange resin column flows the treated water into the ultraviolet sterilizer through the interface pipe for sterilization;
[0023] S4: The ultraviolet sterilizer flows the treated water into the nuclear industry grade resin column through the interface pipe for reprocessing;
[0024] S5: The nuclear industry grade resin column flows the treated water into the 0.22 μm precision filter through the interface tube for reprocessing, and the conductivity tester performs conductivity testing during the flow process;
[0025] S6: The ultrapure water obtained after treatment with a 0.22μm precision filter is discharged through the outlet pipe.
[0026] The beneficial effects of the present invention are as follows:
[0027] 1. A portable field ultrapure water preparation device and a method of use described in the present invention, by pulling the pull rod, the chassis and its connected components are driven to move as a whole to a designated work site through the cooperation of the universal wheels. By arranging dampers and shock-absorbing gaskets in the chassis, a buffering and shock-absorbing effect is played to avoid damage due to road bumps and severe vibrations during transportation and displacement. The battery is powered and 200L of ultrapure water can be produced on a single charge. It is suitable for field work without power supply. The battery can be on standby for a week. When not in use, the water machine is set to self-circulate for 2 hours and 15 minutes to ensure the cleanliness of the internal pipelines and shorten the water production preparation time. The device is small in size, regular in shape, and shock-resistant. It is easy to transport and carry, low in price, and can meet the needs of field scientific research and field investigation for portability and ease of operation. It can also get rid of the restrictions on fixed water sources and power supplies, and has the advantages of durability and easy cleaning and replacement.
[0028] 2. The portable outdoor ultrapure water preparation device and use method described in the present invention, by pulling the limit rod, the limit block is displaced and the spring is compressed until the limit block is separated from the limit hole and is completely located inside the storage hole. The limit rod is kept pulled unchanged, and the inner frame and the melt-blown filter element and activated carbon filter connected thereto can be taken out, thereby facilitating the replacement of the melt-blown filter element and the activated carbon filter. BRIEF DESCRIPTION OF THE DRAWINGS
[0029] The present invention will be further described below in conjunction with the accompanying drawings.
[0030] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;
[0031] Figure 2 The present invention Figure 1 A schematic diagram of a rear-view stereoscopic structure;
[0032] Figure 3 The present invention Figure 2 A schematic diagram of the structure enlargement at the center A;
[0033] Figure 4 It is a structural schematic diagram of the chassis in the present invention;
[0034] Figure 5 It is a schematic diagram of the cross-sectional three-dimensional structure of the water inlet pipe in the present invention;
[0035] Figure 6 It is a schematic diagram of the cross-sectional three-dimensional structure of the limiting component in the present invention;
[0036] Figure 7 It is a schematic diagram of the cross-sectional three-dimensional structure of the avoidance groove 1 in the present invention;
[0037] Figure 8 is a schematic diagram of the three-dimensional structure of the second embodiment of the present invention;
[0038] Fig. 9 It is a flow chart of the method of using the portable ultrapure water preparation device of the present invention.
[0039] In the figure: 1. chassis; 2. cover plate; 3. control panel; 4. sound and light alarm; 5. damper; 6. inner frame; 71. connection frame; 72. melt-blown filter element; 73. activated carbon filter; 81. pass hole; 82. storage hole; 83. limit hole; 84. limit rod; 85. limit block; 86. spring; 87. baffle; 88. handle; 89. avoidance groove 1; 91. circulation booster pump; 92. ion exchange resin column; 10. ultraviolet sterilizer; 11. nuclear industry grade resin column; 12. conductivity tester; 13. 0.22μm precision filter; 14. Battery; 15. Water outlet pipe; 16. Avoidance groove 2; 17. Universal wheel; 18. Pull rod; 19. Shock-absorbing gasket; 20. Water inlet pipe; 21. Snap ring; 22. Drainage pipe; 23. Snap tube; 24. Limiting ring; 25. Connecting rope; 26. Sealing block; 27. Avoidance groove; 28. Limiting column; 29. Support leg; 30. Adjusting column; 31. Cushion block; 32. Patterned groove; 33. Interface pipe; 34. Temperature sensing device; 35. Lighting lamp; 36. Solar panel; 37. Water inlet pump; 38. Socket; 39. Water gun; 40. Coarse effect column. DETAILED DESCRIPTION
[0040] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further explained below in conjunction with specific implementation methods.
[0041] Embodiment 1: Figures 1 to 7As shown, a portable outdoor ultrapure water preparation device according to an embodiment of the present invention comprises a chassis 1 and an interface pipe 33; a cover plate 2 is hingedly connected to the front of the chassis 1, an audible and visual alarm 4 is arranged on the top of the chassis 1, a damper 5 is arranged inside the chassis 1, the damper 5 is connected to an inner frame 6, the inner frame 6 is connected to a control panel 3, a plurality of universal wheels 17 are arranged at the bottom of the chassis 1, a pull rod 18 is arranged on the back of the chassis 1, the inner frame 6 is connected to a pretreatment unit through a symmetrically arranged limit assembly, the pretreatment unit and the top of the inner frame 6 are jointly provided with a shock-absorbing gasket 19 that contacts the inner wall of the chassis 1, the pretreatment unit is connected to a water inlet pipe 20 that penetrates the shock-absorbing gasket 19 to the outside of the chassis 1, and the water outlet of the water inlet pipe 20 is connected to There is a coarse effect column 40, the water outlet of the coarse effect column 40 is connected to the pretreatment unit, the inner wall of the inner frame 6 is connected with a reverse osmosis unit, an ultraviolet sterilizer 10, a nuclear industry-grade resin column 11, a conductivity tester 12 and a 0.22μm precision filter 13 which are sequentially connected through an interface pipe 33, the pretreatment unit is connected with the reverse osmosis unit through an interface pipe 33, the 0.22μm precision filter 13 is connected with a water outlet pipe 15 which runs through the outside of the chassis 1, the inner frame 6 is connected with a battery 14, the chassis 1 is provided with a avoidance groove 16 which is always connected with the water outlet pipe 15, and the water outlet pipe 15 is connected with a water gun 39; when working, the staff first pulls the pull rod 18, and drives the chassis 1 and its connected components as a whole through the cooperation of the universal wheel 17. The machine body is moved to the designated work site, and a damper 5 and a shock-absorbing gasket 19 (shock-absorbing sponge) are arranged in the machine box 1 to play a buffering and shock-absorbing role, so as to avoid the inner frame 6 in the machine box 1 and the pretreatment unit, reverse osmosis unit, ultraviolet sterilizer 10, nuclear industry-grade resin column 11, conductivity tester 12, 0.22μm precision filter 13 and battery 14 connected thereto are damaged due to road bumps and severe vibrations during the transportation and displacement process. The cover plate 2 is opened, and the control panel 3 is turned on to start the device. The raw water first flows into the coarse effect column 40 from the water inlet pipe 20, and then flows into the pretreatment unit for purification after being treated by the coarse effect column 40, and then flows into the reverse osmosis unit for re-treatment, and then flows into the ultraviolet sterilizer 10 for sterilization. The ultraviolet sterilizer 10 UV ultraviolet lamp components are used to oxidize organic matter through dual-wavelength UV lamps to effectively reduce total organic carbon water, and then flow into the nuclear industry-grade resin column 11 for reprocessing. The nuclear industry-grade resin column 11 is an ultrapure water polishing resin with the characteristics of large-capacity purification, stable chemical properties, no decomposition, and no oligomers, monomers and additives, ensuring extremely low dissolution rate and top water quality. Then it passes through the conductivity tester 12 (i.e. imported + GF + industrial ultrapure water conductivity tester, electrode field number 0.01, with sound and light alarm and touch screen function, the standard value of water resistivity is 18.2MΩ·cm (25℃), when the detected resistivity does not meet the standard value, the conductivity tester 12 will sound and light alarm) for conductivity testing, and gradually flow into 0.The 22μm precision filter 13 performs precision filtration to make the water purer. When water is needed, the pure water after the water gun 39 is pressed and discharged through the water outlet pipe 15. The battery 14 is powered, and 200L of ultrapure water can be produced after one charge, which is suitable for field work without power supply. The battery 14 can standby for one week. When not in use, the water machine is set to self-circulate for 3 hours and 2 minutes to ensure the cleanliness of the internal pipeline and shorten the preparation time for water production. The device is small in size, regular in shape, and shockproof. It is easy to transport and carry. The price is low, which is convenient to meet the needs of field scientific research and field investigation for portability and easy operation. It can also get rid of the restrictions on fixed water sources and power supplies. It has the advantages of durability and easy cleaning and replacement. When a fault occurs during use, the sound and light alarm 4 is automatically activated to give an alarm prompt. The avoidance slot 2 that is always connected to the water outlet pipe 15 is set to play an avoidance role, so as to avoid the interference and jamming between the water outlet pipe 15 and the chassis 1 during the displacement process. .
[0042] Furthermore, the pretreatment unit includes: a connecting frame 71 that is clamped with the limiting assembly, the inner wall of the connecting frame 71 is connected with a meltblown filter element 72 and an activated carbon filter 73, the meltblown filter element 72 and the activated carbon filter 73 are connected through an interface pipe 33, and the meltblown filter element 72 is connected to the coarse effect column 40; when working, the raw water flows from the coarse effect column 40 into the meltblown filter element 72 and the activated carbon filter 73 in sequence for purification.
[0043] Further, the limiting assembly includes: a passing hole 81 and a receiving hole 82 which are opened in the inner frame 6 and communicate with each other, the connecting frame 71 is provided with a limiting hole 83, the chassis 1 is provided with an avoidance groove 89 which is always communicated with the passing hole 81, the passing hole 81 is clamped with a limiting rod 84, the end of the clamped limiting rod 84 away from the chassis 1 is clamped with a limiting block 85, and a spring 86 which is sleeved on the outside of the limiting rod 84 is arranged inside the receiving hole 82; when working, in the initial state, the limiting hole 83 It is engaged with the limit block 85. When the inner frame 6 and the melt-blown filter element 72 and the activated carbon filter 73 connected thereto need to be taken out and replaced, when the connecting frame 71 is separated from the inner frame 6, the operator pulls the limit rod 84, which in turn drives the limit block 85 to move, and the spring 86 is compressed until the limit block 85 is separated from the limit hole 83 and is completely located inside the storage hole 82. The limit rod 84 is kept pulled unchanged, and the inner frame 6 and the melt-blown filter element 72 and the activated carbon filter 73 connected thereto can be taken out and replaced.
[0044] Furthermore, a baffle 87 is connected to one end of the limit rod 84 close to the chassis 1, and the inner diameter of the baffle 87 is larger than the outer diameter of the limit rod 84. The baffle 87 is connected to a handle 88, and the limit rod 84 and the limit block 85 are threadedly connected. During operation, the baffle 87 is provided to facilitate the barrier effect to prevent external debris (such as dust) from entering the passing hole 81, the storage hole 82 and the limit hole 83 through the avoidance groove 89, thereby facilitating sanitary maintenance. The handle 88 is provided to facilitate pulling the baffle 87, the limit rod 84 and the limit block 85. The threaded connection facilitates the disassembly and assembly of the limit rod 84 and the limit block 85.
[0045] Furthermore, the reverse osmosis unit includes: a circulation booster pump 91 and an ion exchange resin column 92 connected to the inner frame 6, the circulation booster pump 91 and the ion exchange resin column 92 are connected through the interface pipe 33, the circulation booster pump 91 is connected to the activated carbon filter 73 through the interface pipe 33, and the ion exchange resin column 92 is connected to the ultraviolet sterilizer 10 through the interface pipe 33; when working, the ion exchange resin column 92 is an ultrapure water polishing resin, which has the characteristics of large-capacity purification, stable chemical properties, no decomposition, and no oligomers, monomers and additives, ensuring extremely low dissolution rate and top water quality; the circulation booster pump 91 pumps water from the activated carbon filter 73 into the ultraviolet sterilizer 10.
[0046] Further, the outer surface of the chassis 1 is connected with a clamp ring 21, the clamp ring 21 is clamped with a drainage pipe 22, the water outlet end of the drainage pipe 22 is connected with a clamp pipe 23, the clamp pipe 23 is threadedly connected to the water inlet pipe 20, and the drainage pipe 22 is connected to a water inlet pump 37; when working, the operator rotates the clamp pipe 23 to make it threadedly connected to the water inlet pipe 20;
[0047] When drinking water is sufficient, it is directly connected to bottled pure water through the water inlet pipe 20, without the need for an additional water inlet pump 37 and drainage pipe 22;
[0048] When it is necessary to draw river water or lake water as inlet water, the inlet pump 37 is turned on, so that the water source at a distant place flows into the inlet pipe 20 through the drainage pipe 22 and the clamp pipe 23, thereby avoiding the problem of water shortage during field experiments;
[0049] When the drainage tube 22 is directly connected to the tap water as the water inlet, the drainage tube 22 is directly connected to the tap water pipeline;
[0050] To better meet the demand for pure water in the wild;
[0051] The clamping ring 21 is provided to facilitate guiding and limiting the drainage tube 22, thereby preventing the drainage tube 22 from swinging during the water flow process.
[0052] Furthermore, a limiting ring 24 is provided on the outside of the water inlet pipe 20, the limiting ring 24 is connected to a connecting rope 25, the connecting rope 25 is connected to a sealing block 26, and the sealing block 26 is clamped with the water inlet end of the water inlet pipe 20; when the water inlet work is not performed and the water inlet pipe 20 is separated from the clamping tube 23, in order to prevent external debris (such as dust) from entering the water inlet pipe 20, the operator clamps the sealing block 26 and the water inlet pipe 20 for sealing; by providing the connecting rope 25 and the limiting ring 24, it is convenient to avoid the loss of the sealing block 26 when it is not clamped.
[0053] Furthermore, the back side of the chassis 1 is symmetrically provided with avoidance grooves 27, and the avoidance grooves 27 are provided with limit columns 28 fixedly connected to the chassis 1. The limit columns 28 are sleeved with support legs 29 on the outside, and the support legs 29 are arranged in an I-shape. The support legs 29 are threadedly connected with adjustment columns 30, and the end of the adjustment columns 30 away from the limit columns 28 is connected with a pad 31; during operation, in order to facilitate the stable support of the chassis 1 and prevent the chassis 1 from sliding during operation, the support legs 29 are rotated to rotate ninety degrees around the limit columns 28, and then each adjustment column 30 is rotated in turn until each pad 31 is in stable contact with the ground.
[0054] Furthermore, the interface pipe 33 is a polypropylene pipe, the outer surfaces of the ultraviolet sterilizer 10 and the circulating booster pump 91 are both provided with rubber shockproof pads (not shown in the figure), an insulation board (not shown in the figure) is provided between the chassis 1 and the inner frame 6, the inner wall of the inner frame 6 is connected to a temperature sensing device 34, the top of the chassis 1 is connected to a lighting lamp 35, the front of the cover plate 2 is connected to a solar panel 36, and the chassis 1 is connected to a holder 38 adapted to a water gun 39; when working, the imported polypropylene pipe is used to reduce the dissolution rate of the pipeline, and the ultraviolet sterilizer 10 and the circulating booster pump 91 are prevented from being damaged during carrying by providing rubber shockproof pads, and the insulation board is provided. By providing a solar panel 36, it is convenient to ensure that the inside of the water machine does not freeze in the low temperature environment in winter or in plateau areas, so as to ensure that the water machine can be used normally; by providing a solar panel 36, it can provide uninterrupted electricity in the wild, increase the use time of the water machine, and increase the possibility of using the water machine in the wild; by providing a temperature sensing device 34, the water temperature in the water machine is monitored in real time. If the temperature is lower than 0°C, the heating function is automatically turned on. If the temperature is higher than 5°C, the heating function is automatically turned off, so that the water machine does not freeze, so as to ensure the normal operation of the water machine and extend the service life of the water machine; by providing a lighting lamp 35, it is convenient to take water normally in the wild at night; by providing a holder 38 compatible with the water gun 39, it is convenient to hang the water gun 39.
[0055] The present application embodiment discloses a method for using a portable outdoor ultrapure water preparation device, which is applied to the above-mentioned portable outdoor ultrapure water preparation device, and includes the following steps:
[0056] S1: Start the control panel 3, the raw water enters the coarse effect column 40 through the water inlet pipe 20, flows into the melt-blown filter element 72 of the pretreatment unit after being processed by the coarse effect column 40, and then flows into the activated carbon filter 73 through the interface pipe 33 for pretreatment;
[0057] S2: The circulating booster pump 91 flows the water treated by the activated carbon filter 73 into the ion exchange resin column 92 through the interface pipe 33 for further treatment;
[0058] S3: The ion exchange resin column 92 flows the treated water into the ultraviolet sterilizer 10 through the interface pipe 33 for sterilization;
[0059] S4: The ultraviolet sterilizer 10 flows the treated water into the nuclear industry grade resin column 11 through the interface pipe 33 for further treatment;
[0060] S5: The nuclear industry grade resin column 11 flows the treated water into the 0.22 μm precision filter 13 through the interface pipe 33 for reprocessing, and the conductivity tester 12 performs conductivity testing during the flow process;
[0061] S6: The ultrapure water obtained after being treated by the 0.22 μm precision filter 13 is discharged through the water outlet pipe 15.
[0062] Example 2: Please refer to Figure 8 As shown, compared with Example 1, as another embodiment of the present invention, a pattern groove 32 is provided on a side of the pad 31 away from the adjustment column 30; during operation, the friction force is increased by providing the pattern groove 32 to avoid sliding of the pad 31 when supporting.
[0063] Working principle: First, the staff pulls the pull rod 18, and the universal wheel 17 cooperates to drive the chassis 1 and its connected components to move to the designated work site as a whole. The damper 5 and the shock-absorbing gasket 19 (shock-absorbing sponge) are arranged in the chassis 1 to play a buffering and shock-absorbing role, so as to avoid the inner frame 6 in the chassis 1 and its connected pretreatment unit, reverse osmosis unit, ultraviolet sterilizer 10, nuclear industry-grade resin column 11, conductivity tester 12, 0.22μm precision filter 13 and battery 14 from being bumpy and violent during the transportation and displacement process. The raw water first flows into the crude column 40 from the water inlet pipe 20, and then flows into the pretreatment unit for purification after being processed by the crude column 40, and then flows into the reverse osmosis unit for reprocessing, and then flows into the ultraviolet sterilizer 10 for sterilization. The ultraviolet sterilizer 10 adopts a UV ultraviolet lamp component, and oxidizes organic matter through a dual-wavelength UV lamp to effectively reduce total organic carbon water, and then flows into the nuclear industry grade resin column 11 for reprocessing. The nuclear industry grade resin column 11 is an ultrapure water polishing resin with It has the characteristics of large-capacity purification, stable chemical properties, no decomposition, no oligomers, monomers and additives, etc., ensuring extremely low dissolution rate and top water quality, and then passes through the conductivity tester 12 (i.e. imported + GF + industrial ultrapure water conductivity tester, electrode constant 0.01, with sound and light alarm and touch screen function) for conductivity test, and gradually flows into the 0.22μm precision filter 13 for precision filtration treatment to make the water quality purer. When water is needed, press the water gun 39 and the treated pure water can flow into the water gun 39 through the water outlet pipe 15 for discharge; the battery 14 is used for power supply, and 200L of ultrapure water can be produced on a single charge, which is suitable for field work without power supply. The battery 14 can be on standby for a week. When not in use, the water machine is set to self-circulate for 2 minutes in 3 hours to ensure the cleanliness of the internal pipeline and shorten the preparation time for water production; the device is small in size, regular in shape, and shockproof, which is easy to transport and carry, and has a low price. It is easy to meet the portability and easy operation requirements of field scientific research and field investigation, and can also get rid of the restrictions on fixed water sources and power supplies, and has the advantages of durability and easy cleaning and replacement;
[0064] In the initial state, the limiting hole 83 is locked with the limiting block 85. When the inner frame 6 and the melt-blown filter element 72 and the activated carbon filter 73 connected thereto need to be taken out and replaced, when the connecting frame 71 is separated from the inner frame 6, the operator pulls the limiting rod 84, thereby driving the limiting block 85 to move, and the spring 86 is compressed until the limiting block 85 is separated from the limiting hole 83 and is completely located inside the receiving hole 82. The limiting rod 84 is kept pulled unchanged, and the inner frame 6 and the melt-blown filter element 72 and the activated carbon filter 73 connected thereto can be taken out and replaced. By setting the baffle 87, it is convenient to play a blocking role to prevent external debris (such as dust) from entering the passing hole 81, the receiving hole 82 and the limiting hole 83 through the avoidance groove 1 89, which is convenient for hygienic maintenance. By setting the handle 88, it is convenient to pull the baffle 87, the limiting rod 84 and the limiting block 85. By setting the threaded connection, it is convenient to disassemble and assemble the limiting rod 84 and the limiting block 85.
[0065] In order to facilitate the use of a water source at a long distance, the operator rotates the clamping tube 23 to make it threadedly connected with the water inlet pipe 20, so that the water source at a long distance flows into the water inlet pipe 20 through the drainage pipe 22 and the clamping tube 23. The clamping ring 21 is provided to facilitate the guidance and limitation of the drainage pipe 22 to prevent the drainage pipe 22 from swinging during the water flow process; when the water inlet work is not performed and the water inlet pipe 20 is separated from the clamping tube 23, in order to prevent external debris (such as dust) from entering the water inlet pipe 20, the operator clamps the sealing block 26 with the water inlet pipe 20 for blocking; the connecting rope 25 and the limiting ring 24 are provided to facilitate the prevention of the loss of the sealing block 26 when it is not clamped;
[0066] In order to facilitate the stable support of the chassis 1 and prevent the chassis 1 from sliding during operation, the support leg 29 is rotated to rotate ninety degrees around the limit column 28, and then each adjustment column 30 is rotated in turn until each cushion block 31 is in stable contact with the ground; the interface pipe 33 is a polypropylene pipe, and the outer surfaces of the ultraviolet sterilizer 10 and the circulating booster pump 91 are both provided with rubber shock-proof pads; during operation, imported polypropylene pipes are used to reduce the dissolution rate of the pipeline, and the rubber shock-proof pads are provided to prevent the ultraviolet sterilizer 10 and the circulating booster pump 91 from being easily damaged during carrying.
[0067] The above shows and describes the basic principles, main features and advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of protection of the present invention is defined by the attached claims and their equivalents.
Claims
1. A portable field ultrapure water preparation device, comprising a housing (1) and an interface pipe (33); characterized in that: The front of the chassis (1) is hinged with a cover plate (2); the top of the chassis (1) is provided with an audible and visual alarm (4); a damper (5) is provided inside the chassis (1); the damper (5) is connected to an inner frame (6); the inner frame (6) is connected to a control panel (3); a plurality of universal wheels (17) are provided at the bottom of the chassis (1); a pull rod (18) is provided at the back of the chassis (1); the inner frame (6) is connected to a pre-processing unit via symmetrically arranged limit assemblies; the pre-processing unit and the top of the inner frame (6) are jointly provided with a shock-absorbing gasket (19) that contacts the inner wall of the chassis (1); the pre-processing unit is connected to a water inlet pipe (20) that passes through the shock-absorbing gasket (19) to the outside of the chassis (1); the water inlet pipe (20) discharges water The inner wall of the inner frame (6) is connected to a coarse effect column (40), the water outlet of the coarse effect column (40) is connected to a pretreatment unit, the inner wall of the inner frame (6) is connected to a reverse osmosis unit, an ultraviolet sterilizer (10), a nuclear industry-grade resin column (11), a conductivity tester (12) and a 0.22 μm precision filter (13) which are connected in sequence through an interface pipe (33), the pretreatment unit is connected to the reverse osmosis unit through the interface pipe (33), the 0.22 μm precision filter (13) is connected to a water outlet pipe (15) which runs through the outside of the chassis (1), the inner frame (6) is connected to a storage battery (14), the chassis (1) is provided with a second avoidance groove (16) which is always connected to the water outlet pipe (15), and the water outlet pipe (15) is connected to a water gun (39); The outer surface of the chassis (1) is connected to a clamping ring (21), the clamping ring (21) is clamped with a drainage pipe (22), the water outlet end of the drainage pipe (22) is connected to a clamping pipe (23), the clamping pipe (23) is threadedly connected to the water inlet pipe (20), and the drainage pipe (22) is connected to a water inlet pump (37); The water inlet pipe (20) is externally sleeved with a limiting ring (24), the limiting ring (24) is connected to a connecting rope (25), the connecting rope (25) is connected to a sealing block (26), and the sealing block (26) is clamped to the water inlet end of the water inlet pipe (20).
2. A portable outdoor ultrapure water preparation device according to claim 1, characterized in that: The pretreatment unit comprises: a connection frame (71) that is snap-connected to the limit assembly; a melt-blown filter element (72) and an activated carbon filter (73) are connected to the inner wall of the connection frame (71); the melt-blown filter element (72) and the activated carbon filter (73) are connected via an interface pipe (33); and the melt-blown filter element (72) is connected to a coarse effect column (40).
3. A portable outdoor ultrapure water preparation device according to claim 2, characterized in that: The limit assembly comprises: a passing hole (81) and a receiving hole (82) which are opened in the inner frame (6) and communicate with each other; the connection frame (71) is provided with a limit hole (83); the chassis (1) is provided with an avoidance groove (89) which is always communicated with the passing hole (81); the passing hole (81) is clamped with a limit rod (84); one end of the clamped limit rod (84) away from the chassis (1) is clamped with a limit block (85); and a spring (86) which is sleeved on the outside of the limit rod (84) is provided inside the receiving hole (82).
4. A portable outdoor ultrapure water preparation device according to claim 3, characterized in that: One end of the limiting rod (84) close to the chassis (1) is connected to a baffle (87); the inner diameter of the baffle (87) is larger than the outer diameter of the limiting rod (84); the baffle (87) is connected to a handle (88); and the limiting rod (84) and the limiting block (85) are threadedly connected.
5. A portable outdoor ultrapure water preparation device according to claim 4, characterized in that: The reverse osmosis unit comprises: a circulation booster pump (91) and an ion exchange resin column (92) connected to the inner frame (6); the circulation booster pump (91) and the ion exchange resin column (92) are connected via an interface pipe (33); the circulation booster pump (91) is connected via the interface pipe (33) to an activated carbon filter (73); and the ion exchange resin column (92) is connected via the interface pipe (33) to an ultraviolet sterilizer (10).
6. A portable outdoor ultrapure water preparation device according to claim 5, characterized in that: The back of the chassis (1) is symmetrically provided with air avoidance grooves (27), a limiting column (28) fixedly connected to the chassis (1) is arranged in the air avoidance groove (27), a support leg (29) is sleeved on the outside of the limiting column (28), the support leg (29) is arranged in an I-shape, an adjustment column (30) is threadedly connected to the support leg (29), and a cushion block (31) is connected to one end of the adjustment column (30) away from the limiting column (28).
7. A portable outdoor ultrapure water preparation device according to claim 6, characterized in that: The interface pipe (33) is a polypropylene pipe. The outer surfaces of the ultraviolet sterilizer (10) and the circulating booster pump (91) are both provided with rubber anti-vibration pads. A heat preservation plate is provided between the chassis (1) and the inner frame (6). The inner wall of the inner frame (6) is connected to a temperature sensing device (34). The top of the chassis (1) is connected to a lighting lamp (35). The front of the cover plate (2) is connected to a solar panel (36). The chassis (1) is connected to a holder (38) adapted to a water gun (39).
8. A method for using a portable outdoor ultrapure water preparation device, using the portable outdoor ultrapure water preparation device according to any one of claims 1 to 7, characterized in that: The above method comprises the following steps: S1: Start the control panel (3), the raw water enters the coarse effect column (40) through the water inlet pipe (20), flows into the melt-blown filter element (72) of the pre-treatment unit after being treated by the coarse effect column (40), and then flows into the activated carbon filter (73) through the interface pipe (33) for pre-treatment; S2: The circulating booster pump (91) flows the water treated by the activated carbon filter (73) into the ion exchange resin column (92) through the interface pipe (33) for further treatment; S3: The ion exchange resin column (92) flows the treated water into the ultraviolet sterilizer (10) through the interface pipe (33) for sterilization; S4: The ultraviolet sterilizer (10) flows the treated water into the nuclear industry grade resin column (11) through the interface pipe (33) for reprocessing; S5: The nuclear industry grade resin column (11) flows the treated water into the 0.22 μm precision filter (13) through the interface tube (33) for reprocessing, and the conductivity tester (12) performs conductivity testing during the flow process; S6: The ultrapure water obtained after being treated by the 0.22 μm precision filter (13) is discharged through the outlet pipe (15).
Citation Information
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