Pole reversing type water electrolysis disinfection equipment

Abstract

The invention discloses reverse pole type water electrolysis disinfection equipment, and belongs to the technical field of disinfectant production equipment.The reverse pole type water electrolysis disinfection equipment comprises a machine box, a second material mixing mechanism, a feeding mechanism, a first material mixing mechanism, a water inlet pipe and an electrolysis assembly, the feeding mechanism, the first material mixing mechanism, the water inlet pipe and the electrolysis assembly are fixedly connected in the case, the feeding mechanism is communicated with the first material mixing mechanism, the water inlet pipe is communicated with the first material mixing mechanism, the first material mixing mechanism is communicated with the second material mixing mechanism, and the second material mixing mechanism is communicated with the electrolysis assembly. Sodium chloride and water are mixed twice before entering the electrolysis assembly, dissolution of the sodium chloride is fully guaranteed, the stability of the concentration of a sodium chloride solution during electrolysis is effectively guaranteed, the production efficiency is effectively improved, meanwhile, equipment blockage caused by sodium chloride hardening is avoided, and stable operation of the equipment is guaranteed.

Description

Technical Field

[0001] The present invention belongs to the technical field of disinfection solution production equipment, and particularly relates to a bipolar water electrolysis disinfection device. Background Art

[0002] The bipolar water electrolysis disinfection device is a water treatment device that generates disinfection substances through electrolysis of water and combines the electrode polarity inversion technology. By electrolyzing water added with sodium chloride, strong oxidizing substances such as hypochlorous acid are produced to make a disinfection solution. The electrode polarity of the electrolytic cell is periodically inverted (such as switching the positive and negative electrodes every 1-2 hours) to prevent scaling (such as calcium and magnesium deposition) or single-pole corrosion on the electrode surface and maintain the electrolysis efficiency.

[0003] The bipolar water electrolysis disinfection device is widely used in various scenarios that require disinfection because it only needs water and sodium chloride to prepare the disinfection solution, has a low production difficulty, and the produced disinfection solution is safe and environmentally friendly. However, in traditional bipolar water electrolysis disinfection devices, sodium chloride and water are usually added separately during the production of the disinfection solution, and some small and medium-sized devices are manually added. Sodium chloride does not dissolve immediately when it enters the water, which results in unstable salt solution concentration during the electrolysis process, reduces the production efficiency, and the undissolved sodium chloride may agglomerate and block pipelines and other equipment in the device, affecting the stability of the device. Summary of the Invention

[0004] The technical problem to be solved by the present invention is to overcome the above-mentioned disadvantages of the prior art and provide a bipolar water electrolysis disinfection device. Before sodium chloride and water enter the electrolysis component, the present invention mixes them twice, and also heats and dissolves them before entering the second mixing mechanism, fully ensuring the dissolution of sodium chloride, effectively ensuring the stability of the sodium chloride solution concentration during electrolysis, improving the utilization rate of sodium chloride, effectively improving the production efficiency, and at the same time avoiding the agglomeration of sodium chloride from blocking the device and ensuring the stable operation of the device.

[0005] The technical solution adopted to solve the above technical problem is: a bipolar water electrolysis disinfection device, including a chassis, a second mixing mechanism, a feeding mechanism, a first mixing mechanism, a water inlet pipe and an electrolysis component. The second mixing mechanism is rotatably connected inside the chassis, the feeding mechanism, the first mixing mechanism, the water inlet pipe and the electrolysis component are fixedly connected inside the chassis. The feeding mechanism is communicated with the first mixing mechanism, the water inlet pipe is communicated with the first mixing mechanism, the first mixing mechanism is communicated with the second mixing mechanism, and the second mixing mechanism is communicated with the electrolysis component; A control motor is arranged on one side of the second mixing mechanism, and the control motor can drive the second mixing mechanism to rotate; A liquid pumping mechanism is arranged on the other side of the second mixing mechanism, and the rotation of the second mixing mechanism can drive the liquid pumping mechanism; The control motor can also drive the feeding mechanism to supply materials.

[0006] Through the above technical solution, the control motor drives the feeding mechanism to send sodium chloride into the first mixing mechanism, the water inlet pipe can input water into the first mixing mechanism, sodium chloride and water can be mixed in the first mixing mechanism, and the control motor can also drive the second mixing mechanism to rotate. The rotation of the second mixing mechanism can drive the liquid pumping mechanism. The liquid pumping mechanism can not only help the water and sodium chloride in the first mixing mechanism to be mixed, but also pump the mixed liquid in the first mixing mechanism into the second mixing mechanism. The rotation of the second mixing mechanism can further accelerate the dissolution of sodium chloride. The dissolved sodium chloride solution enters the electrolysis component, and the electrolysis component outputs the electrolyzed solution outside the chassis to complete the production of the disinfectant. Before sodium chloride and water enter the electrolysis component, they are mixed twice, which fully ensures the dissolution of sodium chloride, effectively ensures the stability of the concentration of the sodium chloride solution during electrolysis, improves the utilization rate of sodium chloride, effectively improves the production efficiency, and at the same time avoids the caking of sodium chloride from blocking the equipment, ensuring the stable operation of the equipment.

[0007] Further, a driving rod is fixedly connected to the control motor shaft, and a driving bevel gear is fixedly connected to the top of the driving rod.

[0008] Through the above technical solution, since a driving rod is fixedly connected to the control motor shaft and a driving bevel gear is fixedly connected to the top of the driving rod, the control motor can drive the driving rod to rotate, and the rotation of the driving rod can drive the driving bevel gear to rotate.

[0009] Further, the feeding mechanism includes a feeding machine shell, a storage hopper, a feeding worm, a driven rod and a driven helical gear ring. The feeding machine shell is fixedly connected inside the chassis, the storage hopper is fixedly connected to one side of the top of the feeding machine shell, the storage hopper is communicated with the feeding machine shell, the feeding worm is rotatably connected inside the feeding machine shell, the driven rod is rotatably connected to the chassis, and the driven helical gear ring is fixedly connected to the rotating shaft of the feeding worm.

[0010] Through the above technical solution, since the feeding machine shell is fixedly connected inside the chassis, the storage hopper is fixedly connected to one side of the top of the feeding machine shell, the storage hopper is communicated with the feeding machine shell, the feeding worm is rotatably connected inside the feeding machine shell, the driven rod is rotatably connected to the chassis, and the driven helical gear ring is fixedly connected to the rotating shaft of the feeding worm, sodium chloride can be stored in the storage hopper, so that the rotation of the feeding worm can transport the sodium chloride in the storage hopper from one end of the feeding machine shell to the other end.

[0011] Further, a driven bevel gear is fixedly connected to one end of the driven rod, a locking tooth is hinged to the other end of the driven rod, the locking tooth is in one-way meshing with the driven helical gear ring, and the driven bevel gear is meshed with the driving bevel gear.

[0012] Through the above technical solution, since one end of the driven rod is fixedly connected with a driven bevel gear, the other end of the driven rod is hinged with a locking tooth, the locking tooth is in one-way meshing with the driven helical gear ring, and the driven bevel gear is meshed with the driving bevel gear, the rotation of the driving bevel gear can drive the rotation of the driven bevel gear, the rotation of the driven bevel gear can drive the rotation of the driven rod, the forward rotation of the driven rod can drive the rotation of the driven helical gear ring, that is, drive the feeding worm to rotate, and the reverse rotation of the driven rod cannot drive the rotation of the driven helical gear ring, that is, does not drive the feeding worm to rotate.

[0013] Further, a driven gear is fixedly connected to the upper part of the outer side of the second mixing mechanism, a driving gear is fixedly connected to the driving rod, the driving gear is meshed with the driven gear, and a plurality of stirring blades are fixedly arranged inside the second mixing mechanism.

[0014] Through the above technical solution, since a driven gear is fixedly connected to the upper part of the outer side of the second mixing mechanism, a driving gear is fixedly connected to the driving rod, the driving gear is meshed with the driven gear, and a plurality of stirring blades are fixedly arranged inside the second mixing mechanism, the rotation of the driving rod can drive the rotation of the driving gear, the rotation of the driving gear can drive the rotation of the driven gear, that is, drive the rotation of the second mixing mechanism, and the rotation of the second mixing mechanism can stir the mixed solution of sodium chloride and water in the second mixing mechanism, accelerating the dissolution of sodium chloride.

[0015] Further, the liquid pumping mechanism includes an eccentric disk, a connecting rod and a piston column. The eccentric disk is rotatably connected inside the machine box. One end of the connecting rod is hinged to the edge of the eccentric disk, the other end of the connecting rod is hinged to the bottom of the piston column, and the top of the piston column is slidably connected to the first mixing mechanism.

[0016] Through the above technical solution, since the eccentric disk is rotatably connected inside the machine box, one end of the connecting rod is hinged to the edge of the eccentric disk, the other end of the connecting rod is hinged to the bottom of the piston column, and the top of the piston column is slidably connected to the first mixing mechanism, the rotation of the eccentric disk can make one end of the connecting rod rotate with the eccentric disk, and then the other end of the connecting rod drives the piston column to slide vertically back and forth inside the first mixing mechanism.

[0017] Further, a first bevel gear ring is arranged on the edge of the eccentric disk, a second bevel gear ring is fixedly connected to the lower part of the outer side of the second mixing mechanism, and the first bevel gear ring is meshed with the second bevel gear ring.

[0018] Through the above technical solution, since a first bevel gear ring is arranged on the edge of the eccentric disk, a second bevel gear ring is fixedly connected to the lower part of the outer side of the second mixing mechanism, and the first bevel gear ring is meshed with the second bevel gear ring, the rotation of the second mixing mechanism can drive the rotation of the second bevel gear ring, the rotation of the second bevel gear ring can drive the rotation of the first bevel gear ring, and the rotation of the first bevel gear ring can drive the rotation of the eccentric disk.

[0019] Furthermore, the first mixing mechanism includes a mixing cylinder, an end cover, and a liquid inlet pipe. The mixing cylinder penetrates through one end of the feeding machine housing and is communicated with the feeding machine housing. The end cover is fixedly connected to the top end of the mixing cylinder. A water inlet pipe is fixedly connected to the end cover and is communicated with the mixing cylinder. A top cover is arranged at the top of the second mixing mechanism. The top cover is fixedly connected inside the machine box. The second mixing mechanism is rotatably connected to the top cover. One end of the liquid inlet pipe is communicated with one side of the lower part of the mixing cylinder. The other end of the liquid inlet pipe penetrates through the top cover. The second mixing mechanism is communicated with the mixing cylinder through the liquid inlet pipe. A piston plate is fixedly connected to the top of the piston column. The piston plate is vertically slidably connected to the lower part of the mixing cylinder.

[0020] Through the above technical solution, since the mixing cylinder penetrates through one end of the feeding machine housing and is communicated with the feeding machine housing, the end cover is fixedly connected to the top end of the mixing cylinder, a water inlet pipe is fixedly connected to the end cover and is communicated with the mixing cylinder, and the mixing cylinder is arranged at the end of the feeding machine housing far from the storage hopper, water can enter the mixing cylinder through the water inlet pipe, and sodium chloride in the storage hopper can be conveyed from the end of the feeding machine housing close to the storage hopper into the mixing cylinder through the feeding worm, so that sodium chloride and water are mixed in the mixing cylinder. The water input into the mixing cylinder from the water inlet pipe can wash the feeding worm in the mixing cylinder, effectively ensuring full contact and fusion of sodium chloride and water. Since a top cover is arranged at the top of the second mixing mechanism, the top cover is fixedly connected inside the machine box, the second mixing mechanism is rotatably connected to the top cover, one end of the liquid inlet pipe is communicated with one side of the lower part of the mixing cylinder, the other end of the liquid inlet pipe penetrates through the top cover, the second mixing mechanism is communicated with the mixing cylinder through the liquid inlet pipe, a piston plate is fixedly connected to the top of the piston column, and the piston plate is vertically slidably connected to the lower part of the mixing cylinder, the vertical reciprocating sliding of the piston column in the mixing cylinder can drive the piston plate to vertically reciprocate in the mixing cylinder, which can not only disturb and mix the mixed solution of sodium chloride and water in the mixing cylinder, but also pump the mixed solution of sodium chloride and water into the second mixing mechanism through the liquid inlet pipe.

[0021] Furthermore, two groups of airtight plates are symmetrically hinged to the bottom of the end cover, and the airtight plates can only be turned downwards.

[0022] Through the above technical solution, since two groups of airtight plates are symmetrically hinged to the bottom of the end cover and the airtight plates can only be turned downwards, when the piston plate vertically slides upwards in the mixing cylinder, the airtight plates are closed, and the piston plate compresses the air in the mixing cylinder, so that the temperature in the mixing cylinder rises, further helping sodium chloride to dissolve. When the piston plate vertically slides downwards in the mixing cylinder, the airtight plates are opened, and the mixing cylinder is filled with air to help pump the mixed solution of sodium chloride and water into the second mixing mechanism.

[0023] Further, one end of the electrolysis assembly is fixedly connected to a feed pipe, and the other end of the electrolysis assembly is fixedly connected to a discharge pipe. Both the feed pipe and the discharge pipe are in communication with the electrolysis assembly. A receiving tray is fixedly connected to the top of the feed pipe. A discharge interface is provided at the bottom of the second mixing mechanism, and the discharge interface is rotatably connected to the receiving tray. The second mixing mechanism is in communication with the electrolysis assembly through the feed pipe.

[0024] Through the above technical solution, since one end of the electrolysis assembly is fixedly connected to a feed pipe, the other end of the electrolysis assembly is fixedly connected to a discharge pipe, both the feed pipe and the discharge pipe are in communication with the electrolysis assembly, a receiving tray is fixedly connected to the top of the feed pipe, a discharge interface is provided at the bottom of the second mixing mechanism, the discharge interface is rotatably connected to the receiving tray, and the second mixing mechanism is in communication with the electrolysis assembly through the feed pipe, the second mixing mechanism can rotate between the top cover and the receiving tray. The rotation of the second mixing mechanism can stir the mixed solution of sodium chloride and water, further helping the sodium chloride to dissolve. The dissolved mixed solution of sodium chloride and water can enter the electrolysis assembly through the feed pipe, and the electrolysis assembly transports the electrolyzed solution to the outside of the chassis through the discharge pipe, completing the production of the disinfectant.

[0025] The beneficial effects of the present invention are as follows: (1) In the present invention, the second mixing mechanism rotates, driving the piston rod to reciprocate vertically in the first mixing mechanism. The vertical reciprocating movement of the piston rod can drive the piston plate to reciprocate vertically in the mixing cylinder, which can not only disturb and mix the mixed solution of sodium chloride and water in the mixing cylinder, but also pump the mixed solution of sodium chloride and water into the second mixing mechanism through the liquid guiding pipe. When the piston plate slides vertically upward in the mixing cylinder, the airtight plate closes, and the piston plate compresses the air in the mixing cylinder, increasing the temperature in the mixing cylinder and further helping the sodium chloride to dissolve. At this time, the stirring blades rotate with the second mixing mechanism to stir the mixed solution of sodium chloride and water in the second mixing mechanism, accelerating the dissolution of sodium chloride. Multiple methods help the sodium chloride to dissolve, effectively ensuring the stability of the concentration of the sodium chloride solution during electrolysis, improving the utilization rate of sodium chloride, and effectively improving the production efficiency; (2) In the present invention, water can enter the mixing cylinder through the water inlet pipe, and the sodium chloride in the storage hopper can be transported from one end of the feeding machine housing close to the storage hopper to the mixing cylinder through the feeding worm, realizing the mixing of sodium chloride and water in the mixing cylinder. The water input into the mixing cylinder through the water inlet pipe can wash the feeding worm in the mixing cylinder, effectively ensuring the full contact and fusion of sodium chloride and water, avoiding the caking and blockage of sodium chloride to the equipment, and ensuring the stable operation of the equipment. Description of the Drawings

[0026] Figure 1 is a schematic structural diagram of an inverted-polarity water electrolysis disinfection device of the present invention; Figure 2 is an internal structural schematic diagram of an inverted-polarity water electrolysis disinfection device of the present invention; Figure 3 It is a schematic structural diagram of the cooperation between the driving rod and the internal components of the feeding mechanism of an inverted-pole type hydroelectric electrolysis disinfection device of the present invention; Figure 4 It is a schematic exploded structural diagram of the feeding mechanism of an inverted-pole type hydroelectric electrolysis disinfection device of the present invention; Figure 5 It is an inverted-pole type hydroelectric electrolysis disinfection device of the present invention Figure 4 Partial enlarged view at A; Figure 6 It is a perspective sectional view of the feeding machine housing and the mixing cylinder of an inverted-pole type hydroelectric electrolysis disinfection device of the present invention; Figure 7 It is a schematic structural diagram of the second mixing mechanism of an inverted-pole type hydroelectric electrolysis disinfection device of the present invention; Figure 8 It is a schematic structural diagram of the cooperation between the second mixing mechanism and the liquid pumping mechanism of an inverted-pole type hydroelectric electrolysis disinfection device of the present invention; Figure 9 It is a schematic exploded structural diagram of the liquid pumping mechanism of an inverted-pole type hydroelectric electrolysis disinfection device of the present invention; Figure 10 It is a schematic exploded structural diagram of the first mixing mechanism of an inverted-pole type hydroelectric electrolysis disinfection device of the present invention; Figure 11 It is a schematic structural diagram of the end cover of an inverted-pole type hydroelectric electrolysis disinfection device of the present invention; Figure 12 It is a schematic structural diagram of the motor assembly of an inverted-pole type hydroelectric electrolysis disinfection device of the present invention.

[0027] Reference numerals: 1, chassis; 2, second mixing mechanism; 3, control motor; 4, feeding mechanism; 5, first mixing mechanism; 6, liquid pumping mechanism; 7, water inlet pipe; 8, electrolysis assembly; 21, driven gear; 22, second bevel gear ring; 23, stirring blade; 24, discharge interface; 25, top cover; 31, driving rod; 311, driving bevel gear; 312, driving gear; 41, feeding machine housing; 42, storage hopper; 43, feeding worm; 44, driven rod; 45, driven helical gear ring; 441, driven bevel gear; 442, locking tooth; 51, mixing cylinder; 52, end cover; 53, liquid guiding pipe; 521, airtight plate; 61, eccentric disk; 62, connecting rod; 63, piston column; 631, piston plate; 81, feed pipe; 82, discharge pipe; 811, receiving plate. Detailed implementation manners

[0028] In order to make the objectives, technical solutions and advantages of the present invention clearer, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not used to limit the present invention.

[0029] As Figure 1 - Figure 2 shown, an inverted-pole type hydroelectric electrolysis disinfection device includes a chassis 1, a second mixing mechanism 2, a feeding mechanism 4, a first mixing mechanism 5, a water inlet pipe 7, and an electrolysis component 8. The second mixing mechanism 2 is rotatably connected inside the chassis 1, and the feeding mechanism 4, the first mixing mechanism 5, the water inlet pipe 7, and the electrolysis component 8 are fixedly connected inside the chassis 1. The feeding mechanism 4 is communicated with the first mixing mechanism 5, the water inlet pipe 7 is communicated with the first mixing mechanism 5, the first mixing mechanism 5 is communicated with the second mixing mechanism 2, and the second mixing mechanism 2 is communicated with the electrolysis component 8; A control motor 3 is arranged on one side of the second mixing mechanism 2, and the control motor 3 can drive the second mixing mechanism 2 to rotate; A liquid pumping mechanism 6 is arranged on the other side of the second mixing mechanism 2, and the rotation of the second mixing mechanism 2 can drive the liquid pumping mechanism 6; The control motor 3 can also drive the feeding mechanism 4 to supply materials.

[0030] In this embodiment, the control motor 3 drives the feeding mechanism 4 to send sodium chloride into the first mixing mechanism 5, the water inlet pipe 7 can input water into the first mixing mechanism 5, sodium chloride and water can be mixed in the first mixing mechanism 5, and the control motor 3 can also drive the second mixing mechanism 2 to rotate. The rotation of the second mixing mechanism 2 can drive the liquid pumping mechanism 6. The liquid pumping mechanism 6 can not only help the water and sodium chloride in the first mixing mechanism 5 to be mixed, but also pump the mixed liquid in the first mixing mechanism 5 into the second mixing mechanism 2. The rotation of the second mixing mechanism 2 can further accelerate the dissolution of sodium chloride. The dissolved sodium chloride solution enters the electrolysis component 8, and the electrolysis component 8 outputs the electrolyzed solution outside the chassis 1 to complete the production of the disinfectant. Before sodium chloride and water enter the electrolysis component 8, they are mixed twice, which fully ensures the dissolution of sodium chloride, effectively ensures the stability of the concentration of the sodium chloride solution during electrolysis, improves the utilization rate of sodium chloride, effectively improves the production efficiency, and at the same time avoids the caking and blocking of sodium chloride in the equipment, ensuring the stable operation of the equipment.

[0031] As Figure 2 - Figure 6 shown, a driving rod 31 is fixedly connected to the rotating shaft of the control motor 3, and a driving bevel gear 311 is fixedly connected to the top of the driving rod 31; The feeding mechanism 4 includes a feeding housing 41, a storage hopper 42, a feeding worm 43, a driven rod 44, and a driven helical gear ring 45. The feeding housing 41 is fixedly connected inside the chassis 1, the storage hopper 42 is fixedly connected to one side of the top of the feeding housing 41, the storage hopper 42 is communicated with the feeding housing 41, the feeding worm 43 is rotatably connected inside the feeding housing 41, the driven rod 44 is rotatably connected to the chassis 1, and the driven helical gear ring 45 is fixedly connected to the rotating shaft of the feeding worm 43; One end of the follower rod 44 is fixedly connected with a driven bevel gear 441, and the other end of the follower rod 44 is hinged with a locking tooth 442. The locking tooth 442 is in one-way meshing with the driven helical gear ring 45, and the driven bevel gear 441 is meshed with the driving bevel gear 311.

[0032] In this embodiment, the control motor 3 can drive the driving rod 31 to rotate. The rotation of the driving rod 31 can drive the driving bevel gear 311 to rotate. The rotation of the driving bevel gear 311 can drive the driven bevel gear 441 to rotate. The rotation of the driven bevel gear 441 can drive the follower rod 44 to rotate. The forward rotation of the follower rod 44 can drive the driven helical gear ring 45 to rotate, that is, drive the feeding worm 43 to rotate. The reverse rotation of the follower rod 44 cannot drive the driven helical gear ring 45 to rotate, that is, does not drive the feeding worm 43 to rotate. The rotation of the feeding worm 43 can convey sodium chloride in the storage hopper 42 from one end of the feeding machine housing 41 to the other end. That is, the forward rotation of the control motor 3 can drive the feeding mechanism 4 to supply sodium chloride, and the reverse rotation of the control motor 3 does not drive the feeding mechanism 4 to supply sodium chloride.

[0033] As Figure 7 - Figure 8 As shown in the figure, a driven gear 21 is fixedly connected to the upper part of the outer side of the second mixing mechanism 2. A driving gear 312 is fixedly connected to the driving rod 31. The driving gear 312 is meshed with the driven gear 21. A plurality of stirring blades 23 are fixedly arranged inside the second mixing mechanism 2.

[0034] In this embodiment, the rotation of the driving rod 31 can drive the driving gear 312 to rotate. The rotation of the driving gear 312 can drive the driven gear 21 to rotate, that is, drive the second mixing mechanism 2 to rotate. The arrangement of the stirring blades 23 enables the rotation of the second mixing mechanism 2 to stir the mixed solution of sodium chloride and water in the second mixing mechanism 2, accelerating the dissolution of sodium chloride.

[0035] As Figure 8 - Figure 11 As shown in the figure, the liquid pumping mechanism 6 includes an eccentric disc 61, a connecting rod 62 and a piston column 63. The eccentric disc 61 is rotatably connected inside the chassis 1. One end of the connecting rod 62 is hinged to the edge of the eccentric disc 61, and the other end of the connecting rod 62 is hinged to the bottom of the piston column 63. The top of the piston column 63 is slidably connected with the first mixing mechanism 5; A first bevel gear ring is arranged on the edge of the eccentric disc 61. A second bevel gear ring 22 is fixedly connected to the lower part of the outer side of the second mixing mechanism 2. The first bevel gear ring is meshed with the second bevel gear ring 22; The first mixing mechanism 5 includes a mixing cylinder 51, an end cover 52 and a liquid inlet pipe 53. The mixing cylinder 51 penetrates through one end of the feeding machine housing 41, and the mixing cylinder 51 is communicated with the feeding machine housing 41. The end cover 52 is fixedly connected to the top of the mixing cylinder 51, and a water inlet pipe 7 is fixedly connected to the end cover 52. The water inlet pipe 7 is communicated with the mixing cylinder 51. A top cover 25 is arranged at the top of the second mixing mechanism 2. The top cover 25 is fixedly connected inside the machine case 1, and the second mixing mechanism 2 is rotatably connected to the top cover 25. One end of the liquid inlet pipe 53 is communicated with one side of the lower part of the mixing cylinder 51, and the other end of the liquid inlet pipe 53 penetrates through the top cover 25. The second mixing mechanism 2 is communicated with the mixing cylinder 51 through the liquid inlet pipe 53. The top of the piston column 63 is fixedly connected with a piston plate 631, and the piston plate 631 is vertically slidably connected to the lower part of the mixing cylinder 51; Two groups of airtight plates 521 are symmetrically hinged to the bottom of the end cover 52, and the airtight plates 521 can only be turned downwards.

[0036] In this embodiment, the mixing cylinder 51 is arranged at one end of the feeding machine housing 41 far from the storage hopper 42. Water can enter the mixing cylinder 51 through the water inlet pipe 7. Sodium chloride in the storage hopper 42 can be conveyed from one end of the feeding machine housing 41 close to the storage hopper 42 to the mixing cylinder 51 through the feeding worm 43, so as to realize the mixing of sodium chloride and water in the mixing cylinder 51. The water input into the mixing cylinder 51 from the water inlet pipe 7 can wash the feeding worm 43 in the mixing cylinder 51, effectively ensuring the full contact and fusion of sodium chloride and water; The rotation of the second mixing mechanism 2 can drive the rotation of the second bevel gear ring 22. The rotation of the second bevel gear ring 22 can drive the rotation of the first bevel gear ring. The rotation of the first bevel gear ring can drive the rotation of the eccentric disc 61. The rotation of the eccentric disc 61 can make one end of the connecting rod 62 rotate with the eccentric disc 61, and then the other end of the connecting rod 62 drives the piston column 63 to vertically reciprocate in the first mixing mechanism 5; The vertical reciprocating sliding of the piston column 63 can drive the piston plate 631 to vertically reciprocate in the mixing cylinder 51, which can not only disturb and mix the mixed solution of sodium chloride and water in the mixing cylinder 51, but also pump the mixed solution of sodium chloride and water into the second mixing mechanism 2 through the liquid inlet pipe 53; Among them, when the piston plate 631 vertically slides upwards in the mixing cylinder 51, the airtight plate 521 is closed, and the piston plate 631 compresses the air in the mixing cylinder 51, so that the temperature in the mixing cylinder 51 rises, further helping the sodium chloride to dissolve. When the piston plate 631 vertically slides downwards in the mixing cylinder 51, the airtight plate 521 is opened, and the mixing cylinder 51 is filled with air to help the mixed solution of sodium chloride and water to be pumped into the second mixing mechanism 2.

[0037] Such as Figure 2 and Figure 12As shown, one end of the electrolysis assembly 8 is fixedly connected to a feed pipe 81, and the other end of the electrolysis assembly 8 is fixedly connected to a discharge pipe 82. Both the feed pipe 81 and the discharge pipe 82 are in communication with the electrolysis assembly 8. The top of the feed pipe 81 is fixedly connected to a receiving tray 811. A discharge interface 24 is provided at the bottom of the second mixing mechanism 2, and the discharge interface 24 is rotatably connected to the receiving tray 811. The second mixing mechanism 2 is in communication with the electrolysis assembly 8 through the feed pipe 81.

[0038] In this embodiment, the second mixing mechanism 2 can rotate between the top cover 25 and the receiving tray 811. The rotation of the second mixing mechanism 2 can stir the mixed solution of sodium chloride and water, further helping the sodium chloride to dissolve. The dissolved mixed solution of sodium chloride and water can enter the electrolysis assembly 8 through the feed pipe 81, and the electrolysis assembly 8 transports the electrolyzed completed solution to the outside of the chassis 1 through the discharge pipe 82 to complete the production of the disinfectant.

[0039] Working principle: During operation, water can enter the mixing cylinder 51 through the water inlet pipe 7. Sodium chloride can be stored in the storage hopper 42. At this time, the control motor 3 is started, and the control motor 3 rotates forward. The control motor 3 can drive the driving rod 31 to rotate forward. The forward rotation of the driving rod 31 can drive the driving bevel gear 311 to rotate forward. The forward rotation of the driving bevel gear 311 can drive the driven bevel gear 441 to rotate forward. The forward rotation of the driven bevel gear 441 can drive the driven rod 44 to rotate forward. The forward rotation of the driven rod 44 can drive the driven helical ring 45 to rotate, that is, drive the feeding worm 43 to rotate. The sodium chloride in the storage hopper 42 can be transported from one end of the feeding machine housing 41 close to the storage hopper 42 to the mixing cylinder 51 through the feeding worm 43, realizing the mixing of sodium chloride and water in the mixing cylinder 51. The water input into the mixing cylinder 51 from the water inlet pipe 7 can wash the feeding worm 43 in the mixing cylinder 51, effectively ensuring the full contact and fusion of sodium chloride and water; At this time, the rotating driving rod 31 can drive the driving gear 312 to rotate. The rotation of the driving gear 312 can drive the driven gear 21 to rotate, that is, drive the second mixing mechanism 2 to rotate. The rotation of the second mixing mechanism 2 can drive the second bevel gear ring 22 to rotate. The rotation of the second bevel gear ring 22 can drive the first bevel gear ring to rotate. The rotation of the first bevel gear ring can drive the eccentric disk 61 to rotate. The rotation of the eccentric disk 61 can make one end of the connecting rod 62 rotate with the eccentric disk 61, and then the other end of the connecting rod 62 drives the piston column 63 to slide vertically back and forth in the first mixing mechanism 5; The vertical reciprocating sliding of the piston column 63 can drive the piston plate 631 to slide vertically back and forth in the mixing cylinder 51, which can not only disturb and mix the mixed solution of sodium chloride and water in the mixing cylinder 51, but also pump the mixed solution of sodium chloride and water into the second mixing mechanism 2 through the liquid guiding pipe 53; Among them, when the piston plate 631 slides vertically upward in the mixing cylinder 51, the airtight plate 521 closes, and the piston plate 631 compresses the air in the mixing cylinder 51, causing the temperature in the mixing cylinder 51 to rise, which further helps the sodium chloride to dissolve. When the piston plate 631 slides vertically downward in the mixing cylinder 51, the airtight plate 521 opens, and the mixing cylinder 51 is filled with air to help pump the mixed solution of sodium chloride and water into the second mixing mechanism 2; At this time, the second mixing mechanism 2 rotates, and the stirring blades 23 rotate with the second mixing mechanism 2 to stir the mixed solution of sodium chloride and water in the second mixing mechanism 2, accelerating the dissolution of sodium chloride. The dissolved mixed solution of sodium chloride and water can enter the electrolysis component 8 through the feed pipe 81, and the electrolysis component 8 transports the electrolyzed solution to the outside of the chassis 1 through the discharge pipe 82 to complete the production of the disinfectant; In the actual production process, the addition amount of sodium chloride is much less than that of water. When only water needs to be added without adding sodium chloride, only need to control the motor 3 to reverse. The motor 3 can drive the driving rod 31 to reverse. The reverse rotation of the driving rod 31 can drive the driving bevel gear 311 to reverse. The reverse rotation of the driving bevel gear 311 can drive the driven bevel gear 441 to reverse. The reverse rotation of the driven bevel gear 441 can drive the driven rod 44 to reverse. The reverse rotation of the driven rod 44 does not drive the driven helical gear ring 45 to rotate, that is, it does not drive the feeding worm 43 to rotate, and the feeding mechanism 4 does not supply sodium chloride to the mixing cylinder 51. At the same time, the second mixing mechanism 2 does not stop rotating, and the liquid pumping mechanism 6 does not stop working. The liquid pumping mechanism 6 pumps the heated water in the mixing cylinder 51 into the second mixing mechanism 2, and the second mixing mechanism 2 continues to stir the mixed solution of sodium chloride and water. That is, the feeding mechanism 4 stops working, stops adding sodium chloride, and does not affect the mixing of sodium chloride and water and the dissolution of sodium chloride.

[0040] The above is only a preferred embodiment of the present invention and is not intended to limit the protection scope of the present invention.

Claims

1. A reverse polarity water electrolysis disinfection device, comprising a housing (1), a second mixing mechanism (2), a feeding mechanism (4), a first mixing mechanism (5), a water inlet pipe (7) and an electrolysis assembly (8), characterized in that: The second mixing mechanism (2) is rotatably connected in the housing (1); the feeding mechanism (4), the first mixing mechanism (5), the water inlet pipe (7) and the electrolytic component (8) are fixedly connected in the housing (1); the feeding mechanism (4) is in communication with the first mixing mechanism (5); the water inlet pipe (7) is in communication with the first mixing mechanism (5); the first mixing mechanism (5) is in communication with the second mixing mechanism (2); and the second mixing mechanism (2) is in communication with the electrolytic component (8); A control motor (3) is provided on one side of the second mixing mechanism (2), and the control motor (3) is capable of driving the second mixing mechanism (2) to rotate; A liquid pumping mechanism (6) is provided on the other side of the second mixing mechanism (2), and the second mixing mechanism (2) can drive the liquid pumping mechanism (6) when it rotates; The control motor (3) can also drive the feeding mechanism (4) to feed materials; The pumping mechanism (6) comprises an eccentric disk (61), a connecting rod (62) and a piston column (63); the eccentric disk (61) is rotatably connected in the chassis (1); one end of the connecting rod (62) is hinged to the edge of the eccentric disk (61); the other end of the connecting rod (62) is hinged to the bottom of the piston column (63); and the top of the piston column (63) is slidably connected to the first mixing mechanism (5).

2. The inverted water electrolysis disinfection equipment according to claim 1, characterized in that: A driving rod (31) is fixedly connected to the rotating shaft of the control motor (3), and a driving bevel gear (311) is fixedly connected to the top of the driving rod (31).

3. A reverse polarity water electrolysis disinfection equipment according to claim 2, characterized in that: The feeding mechanism (4) comprises a feeding casing (41), a storage hopper (42), a feeding worm (43), a driven rod (44) and a driven helical gear ring (45); the feeding casing (41) is fixedly connected in the chassis (1); the storage hopper (42) is fixedly connected to one side of the top of the feeding casing (41); the storage hopper (42) is communicated with the feeding casing (41); the feeding worm (43) is rotatably connected in the feeding casing (41); the driven rod (44) is rotatably connected to the chassis (1); and the driven helical gear ring (45) is fixedly connected to the rotating shaft of the feeding worm (43).

4. A reverse polarity water electrolysis disinfection equipment according to claim 3, characterized in that: One end of the driven rod (44) is fixedly connected to a driven bevel gear (441), and the other end of the driven rod (44) is hingedly connected to a latching tooth (442), the latching tooth (442) is unidirectionally meshed with the driven helical gear ring (45), and the driven bevel gear (441) is meshed with the driving bevel gear (311).

5. The inverted water electrolysis disinfection equipment according to claim 2, characterized in that: A driven gear (21) is fixedly connected to the upper outer portion of the second mixing mechanism (2), a driving gear (312) is fixedly connected to the driving rod (31), the driving gear (312) is meshed with the driven gear (21), and a plurality of stirring blades (23) are fixedly arranged on the inner side of the second mixing mechanism (2).

6. A reverse polarity water electrolysis disinfection equipment according to claim 5, characterized in that: A first bevel gear ring is provided on the edge of the eccentric disk (61), a second bevel gear ring (22) is fixedly connected to the lower outer portion of the second mixing mechanism (2), and the first bevel gear ring is meshed with the second bevel gear ring (22).

7. A reverse polarity water electrolysis disinfection equipment according to claim 6, characterized in that: The first mixing mechanism (5) comprises a mixing barrel (51), an end cover (52) and a liquid inlet pipe (53); the mixing barrel (51) passes through one end of the feeder housing (41); the mixing barrel (51) is in communication with the feeder housing (41); the end cover (52) is fixedly connected to the top of the mixing barrel (51); a water inlet pipe (7) is fixedly connected to the end cover (52); the water inlet pipe (7) is in communication with the mixing barrel (51); a top cover (25) is provided on the top of the second mixing mechanism (2); the top cover (25) is fixedly connected in the chassis (1), the second mixing mechanism (2) is rotatably connected to the top cover (25), one end of the liquid introduction tube (53) is connected to one side of the lower part of the mixing barrel (51), and the other end of the liquid introduction tube (53) passes through the top cover (25), the second mixing mechanism (2) is connected to the mixing barrel (51) through the liquid introduction tube (53), and the top of the piston column (63) is fixedly connected to a piston plate (631), and the piston plate (631) is vertically slidably connected to the lower part of the mixing barrel (51).

8. A reverse polarity water electrolysis disinfection equipment according to claim 7, characterized in that: Two groups of air-blocking plates (521) are symmetrically hinged at the bottom of the end cover (52), and the air-blocking plates (521) can only be flipped downwards.

9. The inverted water electrolysis disinfection equipment according to claim 1, characterized in that: One end of the electrolysis component (8) is fixedly connected to a feed pipe (81), and the other end of the electrolysis component (8) is fixedly connected to a discharge pipe (82); the feed pipe (81) and the discharge pipe (82) are both connected to the electrolysis component (8); the top of the feed pipe (81) is fixedly connected to a receiving plate (811); a discharge interface (24) is provided at the bottom of the second mixing mechanism (2); the discharge interface (24) is rotatably connected to the receiving plate (811); and the second mixing mechanism (2) is connected to the electrolysis component (8) via the feed pipe (81).

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