Filtering system and method for bottled drinking water production

Abstract

The invention relates to the field of bottled drinking water production, in particular to a bottled drinking water production filtering system and method. The technical problem that in the using process of an existing bottled drinking water producing and filtering system, due to the fact that multiple treatment processes are needed for filtering water, a large number of liquid pipes need to be arranged between different process treatment tanks to connect the process treatment tanks, and then the using cost of the whole bottled drinking water producing and filtering system is easily affected is solved. According to the technical scheme, the bottled drinking water production filtering system comprises a lifting assembly; the lifting assembly includes a support chassis. The special rotatable circulating guide pipe structure is arranged to replace an original fixed connecting structure, so that circulating drainage of liquid is realized, and the problem that in the using process of an existing bottled drinking water production filtering system, due to the fact that multiple treatment processes are needed for filtering a water body, the use cost is low can be solved. And a large quantity of liquid pipes are required to be arranged between different process treatment tanks to connect the process treatment tanks.

Description

Technical Field

[0001] The present invention relates to the field of bottled drinking water production, and in particular to a bottled drinking water production filtering system and method. Background Art

[0002] Bottled drinking water refers to water that is sealed in plastic bottles, glass bottles or other containers and can be drunk directly without any additives. The basic process of existing bottled drinking water should include water diversion, aeration, filtration, sterilization, aeration, filling and other main processes. Among them, the aeration and aeration processes are determined by the chemical composition of the mineral water and the type of product. In the process of collecting natural drinking mineral water, the construction of springs and drinking water projects are determined by the hydrogeological department. The amount of water used should be lower than the maximum mining amount. Excessive use will have an irreversible effect on the flow and composition of the mineral spring. In the existing filtration process, the water body is usually treated by setting up multiple process treatment tanks, and the tanks are often connected by liquid pipes. The treatment process steps of bottled drinking water are often more, which often leads to the need to lay a large number of liquid pipes to connect unused process treatment tanks, which will affect the use cost of the entire bottled drinking water production and filtration system to a certain extent. Summary of the invention

[0003] In order to overcome the problem that the existing bottled drinking water production and filtration system requires multiple treatment processes during use, and a large number of liquid pipes need to be laid between different process tanks to connect the process tanks, which can easily affect the use cost of the entire bottled drinking water production and filtration system.

[0004] The technical solution of the present invention is: a bottled drinking water production and filtration system, including a lifting assembly; the lifting assembly includes a supporting base frame; a guide assembly is arranged at the front end of the lifting assembly; the guide assembly includes a sliding arc ring; the supporting base frame and the sliding arc ring are connected by bolts; a plurality of meshing teeth are fixedly connected to the front end of the sliding arc ring; a sliding head is slidably connected to the sliding arc ring; a connecting column is installed at the lower end of the sliding head; a connecting pipe rack is installed at the lower end of the connecting column; a guide pipe is installed on the connecting pipe rack; a connecting pump cover is arranged at the rear end of the sliding arc ring; a suction pump is installed inside the connecting pump cover; and the suction pump is connected to the guide pipe by bolts; a fifth motor is installed on the connecting column; the upper end of the fifth motor is rotatably connected to a synchronous wheel through a rotating shaft; the synchronous wheel is arranged to mesh with the meshing teeth.

[0005] Preferably, a process component is arranged at the upper end of the guide component; the process component includes a first rotating disk; a primary filter tank is installed on one side of the first rotating disk; a first treatment tank is installed on the other side of the first rotating disk; a second rotating disk is arranged on one side of the first treatment tank; a liquid inlet pipe is welded to one side of the primary filter tank by argon arc welding; a fixing frame is installed on the inner side of the primary filter tank; a third motor is installed on the upper end of the fixing frame; the lower end of the third motor is rotatably connected to the second transmission wheel through a rotating shaft; the outer side of the second transmission wheel is rotatably connected to the first transmission belt; the inner side of the first transmission belt is rotatably connected to the first transmission wheel; a first rotating column is installed on the first transmission wheel; a first rotating sleeve is installed on the outer side of the first rotating column; a plurality of first stirring blades are fixedly connected to the outer side of the first rotating sleeve; a guide plate is fixedly connected to the first stirring blade.

[0006] Preferably, a second diverter cylinder is installed at the rear end of the second rotating disk; a first diverter cylinder is arranged at the lower end of the second diverter cylinder; a third diverter cylinder is arranged at the upper end of the second diverter cylinder; mounting rings are arranged between the first diverter cylinder and the second diverter cylinder and between the second diverter cylinder and the third diverter cylinder; the mounting rings are respectively welded to the first diverter cylinder and the second diverter cylinder by argon arc welding; a plurality of mounting plates are installed on the mounting ring; the mounting plates are respectively welded to the second diverter cylinder and the third diverter cylinder by argon arc welding; filter mesh sheets are fixedly connected to the inner sides of the mounting rings; the bottom end surface of the first diverter cylinder is filled with activated carbon; the filter mesh sheet inside the second diverter cylinder is filled with fine sand; the filter mesh sheet inside the third diverter cylinder is filled with gravel.

[0007] Preferably, a second treatment tank is installed at the front end of the second rotating disk; the internal structure of the second treatment tank is set to be consistent with that of the first treatment tank; a combination frame is installed at the upper end of the second treatment tank; a fourth motor is installed at the upper end of the combination frame; the lower end of the fourth motor is rotatably connected to the third transmission wheel through a rotating shaft; the outer side of the third transmission wheel is rotatably connected to the second transmission belt; the inner side of the second transmission belt is rotatably connected to the fourth transmission wheel; a second rotating column is installed on the fourth transmission wheel; two connecting frames are installed on the second rotating column; a plurality of motor shields are installed on the connecting frame; a stepping motor is installed on the inner side of the motor shield; and a guide impeller is rotatably connected to the stepping motor through a rotating shaft; a second rotating sleeve is provided at the lower end of the connecting frame; a plurality of second stirring blades are installed on the second rotating sleeve; the outer sides of the primary filter tank, the second shunt cylinder, the first treatment tank and the second treatment tank are all welded with two positioning rings by manual arc welding; the lower ends of the primary filter tank, the first shunt cylinder, the first treatment tank and the second treatment tank are all installed with liquid outlet pipes; an electric control valve is installed on the liquid outlet pipe.

[0008] Preferably, a lifting pump is installed at the rear end of the supporting chassis; a lifting pipe is installed on the lifting pump; and a liquid pipe is installed at the lower end of the lifting pump.

[0009] Preferably, a chassis assembly is fixedly connected to the lifting assembly; a wheel frame is provided at the upper end of the supporting frame; a fixed shaft is rotatably connected to the wheel frame; a fixed turbine is installed on the outer side of the fixed shaft; a positioning frame is fixedly connected to the front end of the wheel frame; a connecting worm is rotatably connected to the positioning frame; two mating heads are fixedly connected to the connecting worm; one side of the connecting worm is rotatably connected to a sixth motor via a coupling.

[0010] Preferably, a bracket assembly is fixedly connected to the chassis assembly; the bracket assembly includes a connecting frame; the connecting frame and the wheel connecting frame are welded to each other by argon arc welding; a fixing strip is installed on one side of the connecting frame; a mounting frame is fixedly connected to the front end of the connecting frame; and a mounting hole is opened on the mounting frame.

[0011] Preferably, an adjustment assembly is installed on the bracket assembly; the adjustment assembly includes a fixed slide; the fixed slide is connected to the fixed bar by bolts; the inner side of the fixed slide is rotatably connected to a connecting screw; the outer side of the connecting screw is gap-fitted with a screw slider; one side of the connecting screw is rotatably connected to a second motor through a coupling; an electric push rod is installed at the upper and lower ends of the screw slider; a doser is installed at the front end of the electric push rod; a doser tube is installed at the front end of the doser; connecting grooves are provided on both sides of the doser; a doser tank is installed on the fixed bar; a doser inlet tube is installed at the upper end of the doser tank; a plug-in tube is installed on one side of the doser tank; and an electric control valve is installed on the plug-in tube.

[0012] Preferably, a sliding assembly is provided at the rear end of the bracket assembly; the sliding assembly includes a connecting rack; two connecting racks are provided; the mounting frame is connected to the connecting rack at the front end by manual arc welding; a plurality of connecting plates are installed between the two connecting racks; a sedimentation box is provided on one side of the connecting plate; two baffles are installed on the inner side of the sedimentation box; the two baffles are arranged at the upper and lower ends; a sedimentation inclined tube is provided on one side of the baffle; a disinfection box is provided on one side of the sedimentation box; a connecting strip is installed at the front and rear ends of the disinfection box and the sedimentation box; two motor brackets are installed at the upper end of the connecting strip at the front end; a first motor is installed on the motor bracket; a meshing wheel is rotatably connected to the first motor through a rotating shaft; a plurality of universal wheels are installed at the lower ends of the disinfection box and the sedimentation box.

[0013] A filtering method for a bottled drinking water production filtering system comprises the following steps: S1. First, raw water is sent into the interior of the primary filter tank through the liquid inlet pipe, and the sixth motor drives the connecting worm to rotate, so that the rotating connecting worm drives the two matching heads to rotate, and the rotating matching heads drive the two fixed turbines to rotate, so that the rotating fixed turbine drives the fixed shaft to rotate, and the rotating fixed shaft can respectively drive the first rotating disk and the second rotating disk to rotate, and the rotating first rotating disk and the second rotating disk drive the primary filter tank to rotate to the rear end of the first rotating disk, and the electric control valve on the liquid outlet pipe at the lower end of the first rotating disk is opened, so that the raw water can enter the interior of the baffle; S2, then the second motor drives the connecting screw to rotate, so that the rotating connecting screw drives the screw slider to slide on the fixed slide, and the fixed slide drives the doser to move to the doser tank on one side, so that the plug-in tube can be inserted into the corresponding connecting groove, and the polyaluminum chloride and polyacrylamide in the doser tank are sent into the doser by opening the electric control valve on the corresponding plug-in tube. Then the second motor drives the screw slider to move, so that the doser can move to the upper end of the sedimentation tank, and then the polyaluminum chloride and polyacrylamide are sent into the sedimentation tank through the dosing tube, and precipitate under the action of the sedimentation tank and the sedimentation inclined tube. After a period of time, the water body is lifted by the liquid pipe at the lower end of the lifting pump, and the water body is lifted to the upper end of the third diverter tube moved to the middle of the first rotating disk and the second rotating disk through the lifting pipe, and the water body is filtered by the action of crushed stone, fine sand and activated carbon in turn. After a period of time, the electric control valve on the liquid outlet pipe at the lower end of the first diverter tube is opened to allow the water body to enter the inside of the pump cover; S3, then the water body is lifted to the first treatment tank located at the front end of the first rotating disk through the guide pipe by the suction pump inside the pump cover, and the third transmission wheel is driven to rotate by the fourth motor, and the fourth transmission wheel and the second rotating column are driven to rotate by the second transmission belt, and the mixing efficiency of the water body and the medicine body is improved by the action of the rotating second stirring blade and the guide impeller driven by the stepping motor inside the motor shield, and then the synchronous rotating wheel is driven to rotate by the fifth motor to drive the sliding head to slide on the sliding arc ring, and the connecting column fixed on the tube rack can drive the tube rack to rotate, and the guide pipe can be moved to the upper end of the first treatment tank to achieve the transition from the first treatment tank to the second treatment tank, and then the third transmission wheel is driven to rotate by the fourth motor located in the second treatment tank, and the fourth transmission wheel and the second rotating column are driven to rotate by the second transmission belt, and the mixing efficiency of the water body and the medicine body is further improved by the action of the rotating second stirring blade and the guide impeller driven by the stepping motor inside the motor shield; S4. When the second treatment tank rotates to the rear end of the second rotating disk, the electric control valve on the liquid outlet pipe at the lower end of the second treatment tank can be opened to allow the water to enter the disinfection box, and the second motor can be used to drive the connecting screw to rotate, so that the rotating connecting screw can drive the screw slider to slide on the fixed slide, and the fixed slide can be used to drive the doser to move to the dosing tank on the other side, so that the plug-in tube can be inserted into the corresponding connecting groove, and the electric control valve on the corresponding plug-in tube can be opened to deliver the disinfectant in the doser to the inside of the doser, and then the second motor can be used to drive the screw slider to move, so that the doser can move to the upper end of the disinfection box, and then the disinfectant is delivered into the inside of the disinfection box through the dosing tube, and the water is disinfected under the action of the disinfectant to achieve filtering treatment of the water.

[0014] Beneficial effects of the present invention: 1. By setting a special rotatable circulation guide pipe structure to replace the original fixed connection structure, the circulation drainage of the liquid can be realized, so as to a certain extent, the existing bottled drinking water production and filtration system can solve the problem that during the use of the existing bottled drinking water production and filtration system, because the filtration of the water body requires multiple treatment processes, and a large number of liquid pipes need to be laid between different process tanks to connect the process tanks, which can easily affect the use cost of the entire bottled drinking water production and filtration system; 2. A fifth motor is provided to drive the synchronous rotating wheel to rotate, so as to drive the sliding head to slide on the sliding arc ring, and the connecting column fixed on the tube connecting frame can drive the tube connecting frame to rotate, and the guide pipe can be moved to the upper end of the first treatment tank to realize the transition between the first diversion cylinder and the first treatment tank. Conversely, when the transition between the first treatment tank and the second treatment tank is carried out, the above steps can also be reversed to realize the guidance of the water body, thereby improving the convenience of the entire bottled drinking water production and filtration system to a certain extent; 3. The meshing wheel is driven by the first motor to rotate, so that the sedimentation box and the disinfection box can be displaced under the action of the mutually meshing connecting gear rail and the meshing wheel. At the same time, the displacement stability of the sedimentation box and the disinfection box can be improved to a certain extent by setting a plurality of universal wheels at the lower ends of the sedimentation box and the disinfection box. In this way, the floor space of the entire bottled drinking water production and filtration system can be reduced by the movable and switchable sedimentation box and the disinfection box, thereby greatly improving the working efficiency of the entire bottled drinking water production and filtration system. 4. The connecting screw is driven to rotate by the second motor, so that the screw slider is driven to slide on the fixed slide by the rotating connecting screw, and the doser is driven to move to the dosing tank on one side by the fixed slide, so that the plug-in tube can be inserted into the corresponding connecting groove, and the medicine body in the dosing tank is delivered to the inside of the doser by opening the electric control valve on the corresponding plug-in tube, and then the screw slider is driven to move by the second motor, so that the doser can move to the upper end of the sedimentation tank or the disinfection tank, and then the medicine body is delivered to the inside of the sedimentation tank or the disinfection tank through the dosing tube, so as to further reduce the use cost of the entire bottled drinking water production and filtration system through the adjustable doser. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 Shown is a first three-dimensional structural schematic diagram of the bottled drinking water production and filtration system of the present invention; Figure 2 Shown is a second three-dimensional structural schematic diagram of the bottled drinking water production and filtration system of the present invention; Figure 3 Shown is a first three-dimensional structural schematic diagram of the sliding assembly of the bottled drinking water production and filtration system of the present invention; Figure 4 The second stereoscopic structure schematic diagram of the sliding assembly of the bottled drinking water production and filtration system of the present invention is shown; Figure 5 Shown is a first three-dimensional structural schematic diagram of the regulating component of the bottled drinking water production and filtration system of the present invention; Figure 6 Shown is a schematic diagram of the three-dimensional structure of the guide assembly of the bottled drinking water production and filtration system of the present invention; Figure 7 Shown is a second three-dimensional structural schematic diagram of the regulating assembly of the bottled drinking water production and filtration system of the present invention; Figure 8 Shown is a three-dimensional structural schematic diagram of a chassis assembly of a bottled drinking water production and filtration system of the present invention; Fig. 9 Shown is a first three-dimensional structural schematic diagram of the process components of the bottled drinking water production and filtration system of the present invention; Fig.10 Shown is a second three-dimensional structural schematic diagram of the process components of the bottled drinking water production and filtration system of the present invention; Fig.11 Shown is a third three-dimensional structural schematic diagram of the process components of the bottled drinking water production and filtration system of the present invention; Fig.12 Shown is a fourth three-dimensional structural schematic diagram of the process components of the bottled drinking water production and filtration system of the present invention.

[0016] Description of reference numerals: 1. sliding assembly; 2. bracket assembly; 3. adjustment assembly; 4. process assembly; 5. guide assembly; 6. lifting assembly; 7. chassis assembly; 101. connecting rack; 102. connecting plate; 103. sedimentation box; 104. baffle; 105. sedimentation inclined pipe; 106. disinfection box; 107. connecting strip; 108. motor bracket; 109. first motor; 110. meshing wheel; 111. universal wheel; 201. mounting frame; 202. mounting hole; 203. connecting frame; 204. fixing strip; 301. fixing slide Frame; 302, connecting screw rod; 303, screw rod slider; 304, second motor; 305, electric push rod; 306, dosing device; 307, dosing tube; 308, connecting groove; 309, dosing tank; 310, inlet tube; 311, plug tube; 401, first rotating disk; 402, second rotating disk; 403, primary filter tank; 404, inlet tube; 405, fixed frame; 406, first transmission wheel; 407, first transmission belt; 408, second transmission wheel; 409, third motor; 410, first rotating column; 411, first rotating moving sleeve; 412, first stirring blade; 413, guide plate; 414, first shunt cylinder; 415, second shunt cylinder; 416, third shunt cylinder; 417, mounting ring; 418, filter screen; 419, mounting plate; 420, first treatment tank; 421, second treatment tank; 422, assembly frame; 423, fourth motor; 424, third transmission wheel; 425, second transmission belt; 426, fourth transmission wheel; 427, second rotating column; 428, connecting frame; 429, motor shield; 430, guide impeller; 431, second rotating sleeve; 432, second stirring blade; 433, liquid outlet pipe; 434, positioning ring; 501, sliding arc ring; 502, meshing teeth; 503, sliding head; 504, connecting column; 505, connecting pipe frame; 506, guide pipe; 507, connecting pump cover; 508, fifth motor; 509, synchronous rotating wheel; 601, supporting base frame; 602, lifting pump; 603, lifting pipe; 701, connecting wheel frame; 702, fixed shaft; 703, fixed turbine; 704, positioning frame; 705, connecting worm; 706, matching head; 707, sixth motor. DETAILED DESCRIPTION

[0017] The present invention will be further described below in conjunction with the accompanying drawings and embodiments. Example

[0018] A bottled drinking water production and filtration system, based on Figure 1-12As shown, it includes a lifting assembly 6; the lifting assembly 6 includes a supporting frame 601; the front end of the lifting assembly 6 is provided with a guide assembly 5; the guide assembly 5 includes a sliding arc ring 501; the supporting frame 601 is connected to the sliding arc ring 501 by bolts; the front end of the sliding arc ring 501 is fixed with a plurality of meshing teeth 502; a sliding head 503 is slidably connected to the sliding arc ring 501; a connecting column 504 is installed at the lower end of the sliding head 503; the connecting column 501 is connected to the sliding arc ring 501 by a plurality of meshing teeth 502; a sliding head 503 is slidably connected to the sliding arc ring 501; a connecting column 504 is installed at the lower end of the sliding head 503; the connecting column 504 is connected to the sliding arc ring 501 by a plurality of meshing teeth 502; the sliding head 503 is connected to the sliding arc ring 501 by a plurality of meshing teeth 502; the sliding head 503 is connected to the sliding head 503 ... 04 is provided with a connecting pipe rack 505 at the lower end; a guide pipe 506 is provided on the connecting pipe rack 505; a connecting pump cover 507 is provided at the rear end of the sliding arc ring 501; a suction pump is installed inside the connecting pump cover 507; and the suction pump is connected to the guide pipe 506 by bolts; a fifth motor 508 is provided on the connecting column 504; the upper end of the fifth motor 508 is connected to a synchronous rotating wheel 509 through a rotating shaft; the synchronous rotating wheel 509 is arranged to mesh with the meshing teeth 502.

[0019] The process component 4 is arranged at the upper end of the guide component 5; the process component 4 includes a first rotating disk 401; a primary filter tank 403 is installed on one side of the first rotating disk 401; a first processing tank 420 is installed on the other side of the first rotating disk 401; a second rotating disk 402 is arranged on one side of the first processing tank 420; a liquid inlet pipe 404 is welded to one side of the primary filter tank 403 by argon arc welding; a fixing frame 405 is installed on the inner side of the primary filter tank 403; a third motor 409 is installed on the upper end of the fixing frame 405; The lower end of the third motor 409 is rotatably connected to the second transmission wheel 408 via a rotating shaft; the outer side of the second transmission wheel 408 is rotatably connected to the first transmission belt 407; the inner side of the first transmission belt 407 is rotatably connected to the first transmission wheel 406; a first rotating column 410 is installed on the first transmission wheel 406; a first rotating sleeve 411 is installed on the outer side of the first rotating column 410; a plurality of first stirring blades 412 are fixedly connected to the outer side of the first rotating sleeve 411; a guide plate 413 is fixedly connected to the first stirring blade 412.

[0020] The rear end of the second rotating disk 402 is provided with a second flow dividing cylinder 415; the lower end of the second flow dividing cylinder 415 is provided with a first flow dividing cylinder 414; the upper end of the second flow dividing cylinder 415 is provided with a third flow dividing cylinder 416; a mounting ring 417 is provided between the first flow dividing cylinder 414 and the second flow dividing cylinder 415 and between the second flow dividing cylinder 415 and the third flow dividing cylinder 416; the mounting ring 417 is respectively connected to the first flow dividing cylinder 414 and the second flow dividing cylinder 415 by argon arc welding. The mounting ring 417 is provided with a plurality of mounting plates 419; the mounting plates 419 are respectively connected to the second diverter tube 415 and the third diverter tube 416 by argon arc welding; the inner side of the mounting ring 417 is fixedly connected with a filter mesh 418; the bottom end surface of the first diverter tube 414 is filled with activated carbon; the filter mesh 418 in the second diverter tube 415 is filled with fine sand; the filter mesh 418 in the third diverter tube 416 is filled with gravel.

[0021] A second processing tank 421 is installed at the front end of the second rotating disk 402; the internal structure of the second processing tank 421 is set to be consistent with that of the first processing tank 420; a combination frame 422 is installed at the upper end of the second processing tank 421; a fourth motor 423 is installed at the upper end of the combination frame 422; the lower end of the fourth motor 423 is rotatably connected to a third transmission wheel 424 through a rotating shaft; the outer side of the third transmission wheel 424 is rotatably connected to a second transmission belt 425; the inner side of the second transmission belt 425 is rotatably connected to a fourth transmission wheel 426; a second rotating column 427 is installed on the fourth transmission wheel 426; two connecting frames 428 are installed on the second rotating column 427; A plurality of motor shields 429 are installed on the connecting frame 428; a stepper motor is installed on the inner side of the motor shield 429; and a guide impeller 430 is rotatably connected to the stepper motor via a rotating shaft; a second rotating sleeve 431 is provided at the lower end of the connecting frame 428; a plurality of second stirring blades 432 are installed on the second rotating sleeve 431; two positioning rings 434 are welded to the outer sides of the primary filter tank 403, the second diverter cylinder 415, the first treatment tank 420 and the second treatment tank 421 by manual arc welding; a liquid outlet pipe 433 is installed at the lower end of the primary filter tank 403, the first diverter cylinder 414, the first treatment tank 420 and the second treatment tank 421; an electric control valve is installed on the liquid outlet pipe 433.

[0022] A lifting pump 602 is installed at the rear end of the supporting frame 601 ; a lifting pipe 603 is installed on the lifting pump 602 ; and a liquid pipe is installed at the lower end of the lifting pump 602 .

[0023] The lifting assembly 6 is fixedly connected to a chassis assembly 7; a connecting wheel frame 701 is provided at the upper end of the supporting base frame 601; a fixed shaft 702 is rotatably connected to the connecting wheel frame 701; a fixed turbine 703 is installed on the outer side of the fixed shaft 702; a positioning frame 704 is fixedly connected to the front end of the connecting wheel frame 701; a connecting worm 705 is rotatably connected to the positioning frame 704; two mating heads 706 are fixedly connected to the connecting worm 705; one side of the connecting worm 705 is rotatably connected to a sixth motor 707 via a coupling.

[0024] The chassis assembly 7 is fixedly connected to the bracket assembly 2; the bracket assembly 2 includes a connecting frame 203; the connecting frame 203 and the wheel connecting frame 701 are welded by argon arc welding; a fixing strip 204 is installed on one side of the connecting frame 203; the front end of the connecting frame 203 is fixedly connected to the mounting frame 201; the mounting frame 201 is provided with a mounting hole 202.

[0025] The bracket assembly 2 is provided with an adjustment assembly 3; the adjustment assembly 3 comprises a fixed slide 301; the fixed slide 301 is connected to the fixed bar 204 by bolts; a connecting screw 302 is rotatably connected to the inner side of the fixed slide 301; a screw slider 303 is fitted in the outer clearance of the connecting screw 302; a second motor 304 is rotatably connected to one side of the connecting screw 302 through a coupling; an electric push rod 305 is installed at the upper and lower ends of the screw slider 303; a doser 306 is installed at the front end of the electric push rod 305; a doser tube 307 is installed at the front end of the doser 306; connecting grooves 308 are provided on both sides of the doser 306; a doser tank 309 is installed on the fixed bar 204; a drug inlet tube 310 is installed at the upper end of the doser tank 309; a plug-in tube 311 is installed at one side of the doser tank 309; an electric control valve is installed on the plug-in tube 311.

[0026] The rear end of the bracket assembly 2 is provided with a sliding assembly 1; the sliding assembly 1 includes a connecting rack 101; two connecting racks 101 are provided; the mounting frame 201 is connected to the front end connecting rack 101 by manual arc welding; a plurality of connecting plates 102 are installed between the two connecting racks 101; a sedimentation box 103 is provided on one side of the connecting plate 102; two baffles 104 are installed on the inner side of the sedimentation box 103; the two baffles 104 are arranged at the upper and lower ends; the baffles 104 A sedimentation inclined tube 105 is provided on one side; a disinfection box 106 is provided on one side of the sedimentation box 103; a connecting strip 107 is installed at the front and rear ends of the disinfection box 106 and the sedimentation box 103; two motor brackets 108 are installed at the upper end of the connecting strip 107 at the front end; a first motor 109 is installed on the motor bracket 108; a meshing wheel 110 is rotatably connected to the first motor 109 through a rotating shaft; a plurality of universal wheels 111 are installed at the lower ends of the disinfection box 106 and the sedimentation box 103.

[0027] A filtering method for a bottled drinking water production filtering system comprises the following steps: S1. First, the raw water is sent into the interior of the primary filter tank 403 through the liquid inlet pipe 404, and the sixth motor 707 drives the connecting worm 705 to rotate, so that the rotating connecting worm 705 drives the two matching heads 706 to rotate, and the rotating matching heads 706 drive the two fixed turbines 703 to rotate, so that the rotating fixed turbines 703 drive the fixed shaft 702 to rotate, and the rotating fixed shaft 702 can respectively drive the first rotating disk 401 and the second rotating disk 402 to rotate, and the primary filter tank 403 is driven to rotate to the rear end of the first rotating disk 401 by the rotating first rotating disk 401 and the second rotating disk 402, and the electric control valve on the liquid outlet pipe 433 at the lower end of the first rotating disk 401 is opened, so that the raw water can enter the interior of the baffle 104; S2, then the second motor 304 drives the connecting screw 302 to rotate, so that the rotating connecting screw 302 drives the screw slider 303 to slide on the fixed slide 301, and the fixed slide 301 drives the doser 306 to move to the doser tank 309 on one side, so that the plug-in tube 311 can be inserted into the corresponding connecting groove 308, and the polyaluminum chloride and polyacrylamide in the doser tank 309 are sent into the doser 306 by opening the electric control valve on the corresponding plug-in tube 311, and then the second motor 304 drives the screw slider 303 to move, so that the doser 306 can move to the precipitation tank 309. The upper end of the box 103 is then fed with polyaluminium chloride and polyacrylamide into the interior of the sedimentation box 103 through the dosing pipe 307, and precipitated under the action of the sedimentation box 103 and the sedimentation inclined pipe 105. After a period of time, the water body is lifted by the liquid pipe at the lower end of the lifting pump 602, and the water body is lifted to the upper end of the third diverter cylinder 416 moved to the middle of the first rotating disk 401 and the second rotating disk 402 through the lifting pipe 603, and the water body is filtered in turn through the action of crushed stone, fine sand and activated carbon. After a period of time, the electric control valve on the liquid outlet pipe 433 at the lower end of the first diverter cylinder 414 is opened to allow the water body to enter the interior of the pump cover 507; S3, then the water is lifted to the first treatment tank 420 located at the front end of the first rotating disk 401 through the suction pump inside the pump cover 507 through the guide pipe 506, so that the third transmission wheel 424 is driven to rotate by the fourth motor 423, so that the fourth transmission wheel 426 and the second rotating column 427 are driven to rotate by the second transmission belt 425, so that the mixing efficiency of the water and the medicine is improved through the action of the rotating second stirring blade 432 and the guide impeller 430 driven by the stepping motor inside the motor shield 429, and then the synchronous rotating wheel 509 is driven to rotate by the fifth motor 508 to drive the sliding head 503 to slide on the sliding arc ring 501 , and the connecting column 504 fixed on the connecting tube frame 505 can drive the connecting tube frame 505 to rotate, and the guide tube 506 can move to the upper end of the first processing tank 420 to achieve the transition between the first processing tank 420 and the second processing tank 421, and then the third transmission wheel 424 is driven to rotate by the fourth motor 423 located in the second processing tank 421, so as to drive the fourth transmission wheel 426 and the second rotating column 427 to rotate through the second transmission belt 425, so as to further improve the mixing efficiency of the water body and the drug body through the rotating second stirring blade 432 and the guide impeller 430 driven by the stepping motor inside the motor shield 429; S4. When the second treatment tank 421 rotates to the rear end of the second rotating disk 402, the electric control valve on the liquid outlet pipe 433 at the lower end of the second treatment tank 421 can be opened to allow water to enter the disinfection box 106, and the connecting screw 302 can be driven to rotate by the second motor 304, so that the screw slider 303 can slide on the fixed slide 301 through the rotating connecting screw 302, and the dosing device 306 can be driven to move to the dosing tank 309 on the other side through the fixed slide 301, so that The plug-in tube 311 can be inserted into the corresponding connecting groove 308, and the disinfectant in the dosing tank 309 is delivered to the inside of the dosing device 306 by opening the electric control valve on the corresponding plug-in tube 311. Then, the second motor 304 drives the screw slider 303 to move, so that the dosing device 306 can move to the upper end of the disinfection box 106, and then the disinfectant is delivered to the inside of the disinfection box 106 through the dosing tube 307. The water body is disinfected under the action of the disinfectant to achieve filtering treatment of the water body.

[0028] When working, first, the raw water is sent into the interior of the primary filter tank 403 through the liquid inlet pipe 404, and the sixth motor 707 drives the connecting worm 705 to rotate, so that the rotating connecting worm 705 drives the two matching heads 706 to rotate, and the rotating matching heads 706 drive the two fixed turbines 703 to rotate, so that the rotating fixed turbine 703 drives the fixed shaft 702 to rotate, and the rotating fixed shaft 702 can respectively drive the first rotating disk 401 and the second rotating disk 402 to rotate, and the primary filter tank 403 is driven to rotate to the rear end of the first rotating disk 401 by the rotating first rotating disk 401 and the second rotating disk 402, and the electric control valve on the liquid outlet pipe 433 at the lower end of the first rotating disk 401 is opened, so that the raw water can enter the interior of the baffle 104.

[0029] Then, the second motor 304 drives the connecting screw 302 to rotate, so that the screw slider 303 is driven to slide on the fixed slide 301 through the rotating connecting screw 302, and the fixed slide 301 drives the doser 306 to move to the doser tank 309 on one side, so that the plug-in tube 311 can be inserted into the corresponding connecting groove 308, and the polyaluminum chloride and polyacrylamide in the doser tank 309 are sent into the doser 306 by opening the electric control valve on the corresponding plug-in tube 311, and then the second motor 304 drives the screw slider 303 to move, so that the doser 306 can move to the sedimentation tank 1 03, and then the polyaluminium chloride and polyacrylamide are sent into the sedimentation box 103 through the dosing pipe 307, and are precipitated under the action of the sedimentation box 103 and the sedimentation inclined pipe 105. After a period of time, the water body is lifted by the liquid pipe at the lower end of the lifting pump 602, and the water body is lifted to the upper end of the third diverter cylinder 416 moved to the middle of the first rotating disk 401 and the second rotating disk 402 through the lifting pipe 603, and the water body is filtered by the action of crushed stone, fine sand and activated carbon in turn. After a period of time, the electric control valve on the liquid outlet pipe 433 at the lower end of the first diverter cylinder 414 is opened to allow the water body to enter the interior of the pump cover 507; Then, the water is lifted to the first treatment tank 420 located at the front end of the first rotating disk 401 through the suction pump connected to the pump cover 507 through the guide pipe 506, and the third transmission wheel 424 is driven to rotate by the fourth motor 423, and the fourth transmission wheel 426 and the second rotating column 427 are driven to rotate by the second transmission belt 425, so that the mixing efficiency of the water and the medicine is improved through the action of the rotating second stirring blade 432 and the guide impeller 430 driven by the stepping motor inside the motor shield 429, and then the synchronous rotating wheel 509 is driven by the fifth motor 508 to rotate. The sliding head 503 is driven to slide on the sliding arc ring 501, and the connecting column 504 fixed on the connecting tube frame 505 can drive the connecting tube frame 505 to rotate, so that the guide tube 506 can move to the upper end of the first processing tank 420 to achieve the transition between the first processing tank 420 and the second processing tank 421, and then the third transmission wheel 424 is driven to rotate by the fourth motor 423 located in the second processing tank 421, so as to drive the fourth transmission wheel 426 and the second rotating column 427 to rotate through the second transmission belt 425, so as to rotate the second stirring blade 4 32 and the guide impeller 430 driven by the stepping motor inside the motor shield 429, so as to further improve the mixing efficiency of the water body and the medicine body. When the second treatment tank 421 rotates to the rear end of the second rotating disk 402, the electric control valve on the liquid outlet pipe 433 at the lower end of the second treatment tank 421 can be opened to allow the water to enter the disinfection box 106, and the connecting screw rod 302 is driven to rotate by the second motor 304, so as to drive the screw slider 303 to slide on the fixed slide 301 through the rotating connecting screw rod 302, and drive the fixed slide 301 to The dosing device 306 can be moved to the dosing tank 309 on the other side, so that the plug-in tube 311 can be inserted into the corresponding connecting groove 308, and the disinfectant in the dosing tank 309 is sent into the dosing device 306 by opening the electric control valve on the corresponding plug-in tube 311, and then the second motor 304 drives the screw slider 303 to move, so that the dosing device 306 can be moved to the upper end of the disinfection box 106, and then the disinfectant is sent into the disinfection box 106 through the dosing tube 307, and the water body is disinfected under the action of the disinfectant to achieve filtering treatment of the water body; When the user is using the bottled drinking water production and filtration system, the user can also drive the meshing wheel 110 to rotate through the first motor 109, so that the sedimentation box 103 and the disinfection box 106 can be displaced under the action of the mutually meshing connecting rack 101 and the meshing wheel 110. At the same time, the multiple universal wheels 111 arranged at the lower ends of the sedimentation box 103 and the disinfection box 106 can also improve the displacement stability of the sedimentation box 103 and the disinfection box 106 to a certain extent. In this way, the floor space of the entire bottled drinking water production and filtration system can be reduced by the movable and switchable sedimentation box 103 and disinfection box 106, thereby greatly improving the working efficiency of the entire bottled drinking water production and filtration system.

[0030] Through the above steps, a special rotatable circulation guide structure is set to replace the original fixed connection structure to realize the circulation drainage of the liquid, thereby to a certain extent solving the problem that during the use of the existing bottled drinking water production and filtration system, because a variety of treatment processes are required for filtering water bodies, and a large number of liquid pipes need to be laid to connect the process treatment tanks between different process treatment tanks, which can easily affect the use cost of the entire bottled drinking water production and filtration system.

[0031] The embodiments of the present invention are described in detail above with reference to the accompanying drawings, but the present invention is not limited to the above embodiments, and various changes can be made within the knowledge scope of those skilled in the art without departing from the spirit of the present invention.

Claims

1. A bottled drinking water production and filtration system, comprising a lifting assembly (6); characterized in that: The lifting assembly (6) comprises a supporting frame (601); a guide assembly (5) is provided at the front end of the lifting assembly (6); the guide assembly (5) comprises a sliding arc ring (501); the supporting frame (601) and the sliding arc ring (501) are connected by bolts; a plurality of meshing teeth (502) are fixedly connected to the front end of the sliding arc ring (501); a sliding head (503) is slidably connected to the sliding arc ring (501); a connecting column (504) is installed at the lower end of the sliding head (503); the lower end of the connecting column (504) is connected to the sliding arc ring (501); A pipe connecting frame (505) is installed at the end; a guide pipe (506) is installed on the pipe connecting frame (505); a pump connecting cover (507) is provided at the rear end of the sliding arc ring (501); a suction pump is installed inside the pump connecting cover (507); and the suction pump and the guide pipe (506) are connected by bolts; a fifth motor (508) is installed on the connecting column (504); the upper end of the fifth motor (508) is rotatably connected to a synchronous rotating wheel (509) via a rotating shaft; and the synchronous rotating wheel (509) is configured to mesh with the meshing teeth (502).

2. A bottled drinking water production and filtration system according to claim 1, characterized in that: A process component (4) is arranged at the upper end of the guide component (5); the process component (4) comprises a first rotating disk (401); a primary filter tank (403) is installed on one side of the first rotating disk (401); a first processing tank (420) is installed on the other side of the first rotating disk (401); a second rotating disk (402) is arranged on one side of the first processing tank (420); a liquid inlet pipe (404) is welded to one side of the primary filter tank (403) by argon arc welding; a fixing frame (405) is installed on the inner side of the primary filter tank (403); a third motor (409) is installed on the upper end of the fixing frame (405); ); the lower end of the third motor (409) is rotatably connected to the second transmission wheel (408) via a rotating shaft; the outer side of the second transmission wheel (408) is rotatably connected to the first transmission belt (407); the inner side of the first transmission belt (407) is rotatably connected to the first transmission wheel (406); a first rotating column (410) is installed on the first transmission wheel (406); a first rotating sleeve (411) is installed on the outer side of the first rotating column (410); a plurality of first stirring blades (412) are fixedly connected to the outer side of the first rotating sleeve (411); a guide plate (413) is fixedly connected to the first stirring blade (412).

3. A bottled drinking water production and filtration system according to claim 2, characterized in that: A second flow dividing tube (415) is installed at the rear end of the second rotating disk (402); a first flow dividing tube (414) is installed at the lower end of the second flow dividing tube (415); a third flow dividing tube (416) is installed at the upper end of the second flow dividing tube (415); a mounting ring (417) is installed between the first flow dividing tube (414) and the second flow dividing tube (415) and between the second flow dividing tube (415) and the third flow dividing tube (416); the mounting ring (417) is connected to the first flow dividing tube (414) and the second flow dividing tube (415) through an argon arc. The welding is configured as a welding connection; a plurality of mounting plates (419) are mounted on the mounting ring (417); the mounting plates (419) are respectively connected to the second diverter tube (415) and the third diverter tube (416) by argon arc welding; a filter mesh (418) is fixedly connected to the inner side of the mounting ring (417); the bottom end surface of the first diverter tube (414) is filled with activated carbon; the filter mesh (418) inside the second diverter tube (415) is filled with fine sand; and the filter mesh (418) inside the third diverter tube (416) is filled with crushed stone.

4. A bottled drinking water production and filtration system according to claim 2, characterized in that: A second processing tank (421) is installed at the front end of the second rotating disk (402); the internal structure of the second processing tank (421) is configured to be consistent with that of the first processing tank (420); a combination frame (422) is installed at the upper end of the second processing tank (421); a fourth motor (423) is installed at the upper end of the combination frame (422); the lower end of the fourth motor (423) is rotatably connected to a third transmission wheel (424) via a rotating shaft; the outer side of the third transmission wheel (424) is rotatably connected to a second transmission belt (425); the inner side of the second transmission belt (425) is rotatably connected to a fourth transmission wheel (426); a second rotating column (427) is installed on the fourth transmission wheel (426); two connecting frames (428) are installed on the second rotating column (427); A plurality of motor shields (429) are installed on the frame (428); a stepper motor is installed on the inner side of the motor shield (429); and a guide impeller (430) is rotatably connected to the stepper motor via a rotating shaft; a second rotating sleeve (431) is provided at the lower end of the connecting frame (428); a plurality of second stirring blades (432) are installed on the second rotating sleeve (431); two positioning rings (434) are welded to the outer sides of the primary filter tank (403), the second flow dividing cylinder (415), the first processing tank (420) and the second processing tank (421) by manual arc welding; a liquid outlet pipe (433) is installed at the lower end of the primary filter tank (403), the first flow dividing cylinder (414), the first processing tank (420) and the second processing tank (421); and an electric control valve is installed on the liquid outlet pipe (433).

5. The bottled drinking water production and filtration system according to claim 1, characterized in that: A lifting pump (602) is installed at the rear end of the supporting base frame (601); a lifting pipe (603) is installed on the lifting pump (602); and a liquid pipe is installed at the lower end of the lifting pump (602).

6. The bottled drinking water production and filtration system according to claim 1, characterized in that: The lifting assembly (6) is fixedly connected to a chassis assembly (7); a connecting wheel frame (701) is provided at the upper end of the supporting chassis (601); a fixed shaft (702) is rotatably connected to the connecting wheel frame (701); a fixed turbine (703) is installed on the outer side of the fixed shaft (702); a positioning frame (704) is fixedly connected to the front end of the connecting wheel frame (701); a connecting worm (705) is rotatably connected to the positioning frame (704); two mating heads (706) are fixedly connected to the connecting worm (705); and a sixth motor (707) is rotatably connected to one side of the connecting worm (705) via a coupling.

7. A bottled drinking water production and filtration system according to claim 6, characterized in that: The chassis assembly (7) is fixedly connected to a bracket assembly (2); the bracket assembly (2) comprises a connecting frame (203); the connecting frame (203) and the wheel connecting frame (701) are welded together by argon arc welding; a fixing strip (204) is installed on one side of the connecting frame (203); a mounting frame (201) is fixedly connected to the front end of the connecting frame (203); and a mounting hole (202) is provided on the mounting frame (201).

8. A bottled drinking water production and filtration system according to claim 7, characterized in that: The bracket assembly (2) is provided with an adjustment assembly (3); the adjustment assembly (3) comprises a fixed slide (301); the fixed slide (301) is connected to a fixed bar (204) via bolts; a connecting screw (302) is rotatably connected to the inner side of the fixed slide (301); a screw slider (303) is clearance-matched on the outer side of the connecting screw (302); one side of the connecting screw (302) is rotatably connected to a second motor (304) via a coupling; the upper and lower ends of the screw slider (303) are both provided with An electric push rod (305); a doser (306) is installed at the front end of the electric push rod (305); a doser pipe (307) is installed at the front end of the doser (306); connecting grooves (308) are provided on both sides of the doser (306); a doser tank (309) is installed on the fixing bar (204); a drug inlet pipe (310) is installed at the upper end of the doser tank (309); a plug-in pipe (311) is installed on one side of the doser tank (309); and an electric control valve is installed on the plug-in pipe (311).

9. The bottled drinking water production and filtration system according to claim 7, characterized in that: A sliding assembly (1) is provided at the rear end of the support assembly (2); the sliding assembly (1) comprises a connecting rack (101); two connecting racks (101) are provided; the mounting frame (201) is connected to the front end connecting rack (101) by manual arc welding; a plurality of connecting plates (102) are installed between the two connecting racks (101); a settling box (103) is provided on one side of the connecting plate (102); two baffles (104) are installed on the inner side of the settling box (103); the two baffles (104) are arranged at the upper and lower ends; the baffles (104) A sedimentation inclined pipe (105) is provided on one side of the sedimentation box (103); a disinfection box (106) is provided on one side of the sedimentation box (103); a connecting bar (107) is installed at the front and rear ends of the disinfection box (106) and the sedimentation box (103); two motor brackets (108) are installed at the upper end of the connecting bar (107) at the front end; a first motor (109) is installed on the motor bracket (108); a meshing wheel (110) is rotatably connected to the first motor (109) via a rotating shaft; and a plurality of universal wheels (111) are installed at the lower ends of the disinfection box (106) and the sedimentation box (103).

10. A filtration method for a bottled drinking water production and filtration system, comprising a bottled drinking water production and filtration system according to any one of claims 1 to 9, characterized in that: The following steps are involved: S1. First, raw water is sent into the interior of the primary filter tank (403) through the liquid inlet pipe (404), and the sixth motor (707) is used to drive the connecting worm (705) to rotate, so that the rotating connecting worm (705) drives the two matching heads (706) to rotate, and the rotating matching heads (706) drive the two fixed turbines (703) to rotate, so that the rotating fixed turbines (703) drive the fixed shaft (702) to rotate, and the rotating fixed shaft (702) can respectively drive the first rotating disk (401) and the second rotating disk (402) to rotate, and the primary filter tank (403) is driven to rotate to the rear end of the first rotating disk (401) through the rotating first rotating disk (401) and the second rotating disk (402), and the electric control valve on the liquid outlet pipe (433) at the lower end of the first rotating disk (401) is opened, so that the raw water can enter the interior of the baffle (104); S2, then the connecting screw (302) is driven to rotate by the second motor (304), so that the screw slider (303) is driven to slide on the fixed slide (301) by the rotating connecting screw (302), and the doser (306) is driven to move to the doser tank (309) on one side by the fixed slide (301), so that the plug tube (311) can be inserted into the corresponding connecting groove (308), and the polyaluminium chloride and polyacrylamide in the doser tank (309) are sent into the doser (306) by opening the electric control valve on the corresponding plug tube (311), and then the screw slider (303) is driven to move by the second motor (304), so that the doser (306) can move To the upper end of the sedimentation box (103), polyaluminium chloride and polyacrylamide are then fed into the sedimentation box (103) through the dosing pipe (307), and sedimentation is carried out under the action of the sedimentation box (103) and the sedimentation inclined pipe (105). After a period of time, the water body is lifted by the liquid pipe at the lower end of the lifting pump (602), and the water body is lifted to the upper end of the third diverter tube (416) moved to the middle of the first rotating disk (401) and the second rotating disk (402) through the lifting pipe (603), and the water body is filtered in turn through the action of crushed stone, fine sand and activated carbon. After a period of time, the electric control valve on the liquid outlet pipe (433) at the lower end of the first diverter tube (414) is opened to allow the water body to enter the interior of the pump cover (507); S3, then the water is lifted to the first treatment tank (420) located at the front end of the first rotating disk (401) through the suction pump inside the pump cover (507), and the third transmission wheel (424) is driven to rotate through the fourth motor (423), and the fourth transmission wheel (426) and the second rotating column (427) are driven to rotate through the second transmission belt (425), so that the mixing efficiency of the water and the medicine is improved through the action of the rotating second stirring blade (432) and the guide impeller (430) driven by the stepping motor inside the motor shield (429), and then the synchronous rotating wheel (509) is driven to rotate through the fifth motor (508), so as to drive the sliding head (503) to slide on the sliding arc ring (501). , and the connecting column (504) fixed on the connecting tube rack (505) can drive the connecting tube rack (505) to rotate, and the guide tube (506) can move to the upper end of the first processing tank (420) to achieve the transition between the first processing tank (420) and the second processing tank (421), and then the third transmission wheel (424) is driven to rotate by the fourth motor (423) located in the second processing tank (421), so as to drive the fourth transmission wheel (426) and the second rotating column (427) to rotate through the second transmission belt (425), so as to further achieve the improvement of the mixing efficiency of the water body and the drug body through the action of the rotating second stirring blade (432) and the guide impeller (430) driven by the stepping motor inside the motor shield (429); S4. When the second treatment tank (421) rotates to the rear end of the second rotating disk (402), the electrically controlled valve on the liquid outlet pipe (433) at the lower end of the second treatment tank (421) can be opened to allow water to enter the disinfection box (106), and the connecting screw (302) can be driven to rotate by the second motor (304), so that the screw slider (303) can be driven to slide on the fixed slide (301) by the rotating connecting screw (302), and the dosing device (306) can be driven to move to the dosing tank (309) on the other side by the fixed slide (301). , so that the plug-in tube (311) can be inserted into the corresponding connecting groove (308), and the disinfectant in the dosing tank (309) is delivered to the inside of the dosing device (306) by opening the electric control valve on the corresponding plug-in tube (311), and then the second motor (304) drives the screw slider (303) to move, so that the dosing device (306) can be moved to the upper end of the disinfection box (106), and then the disinfectant is delivered to the inside of the disinfection box (106) through the dosing tube (307), and the water body is disinfected under the action of the disinfectant, so as to achieve filtering treatment of the water body.

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