Device and method for preparing small molecules and hydrogen-rich water by using micro-electrolysis material

Abstract

The application provides a device and method for preparing small molecules and hydrogen-rich water by using micro-electrolytic materials, relates to the technical field of water processing, and comprises a treatment box, an active cavity is formed in the treatment box, openings are formed in the two sides of the active cavity and are communicated with the active cavity, a rotating block is rotatably installed in the active cavity, at least two mounting holes are formed in the rotating block in a penetrating manner, the mounting holes are communicated with the openings in the two sides of the treatment box, and a treatment cylinder is detachably installed in the mounting holes. The device and method for preparing small molecules and hydrogen-rich water by using micro-electrolytic materials are provided, the treatment box, the rotating block, the treatment cylinder, the micro-electrolytic material, the rotating grinding mechanism and the driving mechanism are arranged, hydrogen-rich water and small molecule water can be prepared by switching new micro-electrolytic materials after the micro-electrolytic material is used for a long time, the micro-electrolytic material can be ground and treated by the rotating grinding mechanism during the switching process, and therefore, the preparation efficiency of hydrogen is ensured, and the hydrogen concentration of hydrogen-rich water is ensured.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of water processing, and in particular to a device and method for preparing small molecule water and hydrogen-rich water by using micro-electrolytic materials. BACKGROUND

[0002] With the popularization of the concept of healthy drinking water, functional water with small molecule characteristics and high hydrogen concentration has become a research hotspot. Small molecule water can participate in cell metabolism more efficiently due to its small molecular cluster (nuclear magnetic resonance half-width ≤100 Hz) and strong penetration; and hydrogen-rich water can remove free radicals in the body and relieve oxidative stress-related diseases through the selective antioxidant effect of hydrogen.

[0003] Currently, using micro-electrolytic materials to prepare small molecule and hydrogen-rich water is a common technical means. The basic principle is to place micro-electrolytic materials (such as certain metals or alloy materials) in water, generate hydrogen and change the water molecular structure through the electrochemical reaction between the micro-electrolytic materials and the water, thereby obtaining hydrogen-rich water and small molecule water. The existing preparation device usually includes a water storage container, the micro-electrolytic materials are directly placed in the water storage container, or the micro-electrolytic materials are filled in a specific reaction assembly and placed in the water storage container, and the reaction is realized by the contact between water and micro-electrolytic materials.

[0004] In actual application process, the existing device and method for preparing small molecule and hydrogen-rich water by using micro-electrolytic materials have obvious deficiencies. After long time contact with water and reaction, oxides are gradually generated on the surface of the micro-electrolytic materials. These oxides will cover the surface of the micro-electrolytic materials and form an oxide film, which hinders the further contact and reaction between the micro-electrolytic materials and the water, reduces the amount of hydrogen generated, and reduces the hydrogen concentration of hydrogen-rich water. At the same time, it also affects the change effect of water molecular structure, and reduces the preparation efficiency of small molecule water. SUMMARY

[0005] Based on the technical problems in the background art, the present application provides a device and method for preparing small molecule and hydrogen-rich water by using micro-electrolytic materials.

[0006] The device for preparing small molecule and hydrogen-rich water by using micro-electrolytic materials provided by the present application comprises a treatment box, an active cavity is formed in the treatment box, openings communicating with the active cavity are formed on both sides of the active cavity, a rotating block is rotatably installed in the active cavity, at least two mounting holes are formed through the rotating block, the mounting holes can communicate with the openings on both sides of the treatment box, a treatment cylinder is detachably installed in the mounting holes, and the treatment cylinder is filled with micro-electrolytic materials.

[0007] A rotating grinding mechanism is installed on the treatment cylinder, and the rotating grinding mechanism can extrude and grind the micro-electrolytic materials in the treatment cylinder.

[0008] The driving mechanism is installed on the processing box, and when the rotating block rotates to switch the processing cylinder in the movable cavity, the driving mechanism can drive the rotating grinding mechanism to grind the micro-electrolysis material.

[0009] Preferably, the rotating grinding mechanism comprises a hard filter plate gear, a first face gear cylinder, a hard filter plate, a second face gear cylinder and a transmission assembly; the first face gear cylinder is fixedly connected to one side of the hard filter plate gear, one end of the processing cylinder is provided with a first movable groove in sliding fit with the first face gear cylinder, the second face gear cylinder is fixedly connected to one side of the hard filter plate, and the other end of the processing cylinder is provided with a second movable groove in sliding fit with the second face gear cylinder.

[0010] When the hard filter plate gear drives the first face gear cylinder to rotate synchronously, the transmission assembly converts the rotating action of the first face gear cylinder into the rotating action of the second face gear cylinder and the hard filter plate.

[0011] Preferably, the transmission assembly comprises a first face gear, a second face gear, a first transmission gear, a second transmission gear and an extendable transmission rod; the extendable transmission rod is rotatably installed in the processing cylinder, the first face gear and the second face gear are respectively installed at two ends of the extendable transmission rod, the first transmission gear is rotatably installed in the processing cylinder through a rotating shaft, the first transmission gear is in mesh with the first face gear, the first transmission gear is in mesh with the first face gear cylinder, and the processing cylinder is provided with a first elastic sliding groove in sliding fit with the rotating shaft of the first transmission gear.

[0012] The second transmission gear is rotatably installed in the processing cylinder, the second transmission gear is in mesh with the second face gear, the second transmission gear is in mesh with the second face gear cylinder, and the processing cylinder is provided with a second elastic sliding groove in sliding fit with the rotating shaft of the second transmission gear.

[0013] Preferably, the extendable transmission rod comprises a rotating cylinder, a first hexagonal rod, a second hexagonal rod and a pressing spring; the rotating cylinder is rotatably installed in the processing cylinder, the end of the rotating cylinder is provided with a hexagonal groove, the first hexagonal rod and the second hexagonal rod are respectively inserted into the hexagonal grooves at two ends of the rotating cylinder, one end of the first hexagonal rod away from the rotating cylinder is fixedly connected with the first face gear, one end of the second hexagonal rod away from the rotating cylinder is fixedly connected with the second face gear, and the pressing spring is located in the hexagonal groove and abuts against the ends of the first hexagonal rod and the second hexagonal rod.

[0014] Preferably, the driving mechanism comprises an arc-shaped rack; the processing box is provided with an annular groove in sliding fit with the hard filter plate gear, the arc-shaped rack is fixedly installed in the annular groove, and the hard filter plate gear is in mesh with the arc-shaped rack.

[0015] Preferably, the driving mechanism further comprises arc-shaped protrusions; the number of the arc-shaped protrusions 16 is two, and the two arc-shaped protrusions are fixedly installed on the inner walls of the two sides of the movable cavity, and the two sides of the rotating block are provided with limiting sliding grooves which are in sliding fit with the arc-shaped protrusions.

[0016] The hard filter plate gear and the hard filter plate can be in sliding fit with the two arc-shaped protrusions, respectively.

[0017] Preferably, the first end face gear cylinder and the second end face gear cylinder are both provided with a reset assembly, the reset assembly comprises a limiting protrusion, an expansion block and a reset spring, the limiting protrusion is fixedly connected to the outer periphery of the first end face gear cylinder, the processing cylinder is provided with an annular reset sliding groove which is in sliding fit with the limiting protrusion, the limiting protrusion is provided with an expansion slot, one end of the expansion block is slidably installed in the expansion slot, the other end of the expansion block abuts against the inner wall of the annular reset sliding groove, and the reset spring is located in the expansion slot and has two ends which abut against the end inner wall of the expansion slot and the end of the expansion block, respectively.

[0018] Preferably, the processing box is provided with a cleaning channel, the cleaning channel is provided with a valve, the rotating block is provided with a liquid delivery channel which is in communication with the cleaning channel, the processing cylinder is provided with a water inlet which is in communication with the liquid delivery channel, the processing box is provided with a sewage pipe, and the processing cylinder is further provided with a sewage outlet which is in communication with the sewage pipe.

[0019] The inner wall of the movable cavity of the processing box is fixedly connected with a semi-cylinder, the semi-cylinder is inserted into the liquid delivery channel, and when the rotating block is in communication with the openings on the two sides of the processing box, the semi-cylinder blocks the water inlet on the rotating block.

[0020] A method for preparing small molecules and hydrogen-rich water by using micro-electrolytic materials, the preparation method is as follows:

[0021] S1, install the processing box on the water pipe to ensure that tap water needs to pass through the micro-electrolytic material in one of the processing cylinders;

[0022] S2, monitor the water quality;

[0023] S3, treat the surface oxides of the micro-electrolytic materials and discharge the treated oxides.

[0024] Preferably, in S3, when treating the surface oxides of the micro-electrolytic materials, a new rotating block is switched and the micro-electrolytic materials in the rotating block which has been used for a long time are ground.

[0025] The apparatus and method for preparing small molecule and hydrogen-rich water using micro-electrolysis materials proposed in this invention have the following beneficial effects: By setting up a processing box, rotating block, processing cylinder, micro-electrolysis material, rotating grinding mechanism and driving mechanism, hydrogen-rich water and small molecule water can be prepared by switching to new micro-electrolysis materials after long-term use of the micro-electrolysis material. During the switching process, the micro-electrolysis material can also be ground by rotating grinding mechanism, thereby ensuring the hydrogen preparation efficiency and the hydrogen concentration of hydrogen-rich water. Attached Figure Description

[0026] Figure 1 This is a schematic diagram of the overall structure of a device for preparing small molecules and hydrogen-rich water using micro-electrolysis materials, as proposed in this invention.

[0027] Figure 2 This is a side cross-sectional view of an apparatus for preparing small molecules and hydrogen-rich water using micro-electrolysis materials, as proposed in this invention.

[0028] Figure 3 This is a cross-sectional view of the processing tank in an apparatus for preparing small molecules and hydrogen-rich water using micro-electrolysis materials, as proposed in this invention.

[0029] Figure 4 This is a schematic diagram of the end face of the processing cylinder in an apparatus for preparing small molecules and hydrogen-rich water using micro-electrolysis materials, as proposed in this invention.

[0030] Figure 5 This is a side cross-sectional view of an apparatus for preparing small molecules and hydrogen-rich water using micro-electrolysis materials, as proposed in this invention.

[0031] Figure 6 This is a schematic diagram of the hard filter plate and the gear cylinder at the second end face in an apparatus for preparing small molecules and hydrogen-rich water using micro-electrolysis materials proposed in this invention.

[0032] Figure 7 This is a schematic diagram of the rotating cylinder, the first hexagonal rod, and the second hexagonal rod in the device for preparing small molecules and hydrogen-rich water using micro-electrolysis materials proposed in this invention.

[0033] Figure 8 This invention proposes a device for preparing small molecules and hydrogen-rich water using micro-electrolysis materials. Figure 5 Enlarged view of point A in the middle;

[0034] Figure 9 This invention proposes a device for preparing small molecules and hydrogen-rich water using micro-electrolysis materials. Figure 5 Enlarged view of section B in the middle.

[0035] In the figure: 1, treatment box; 2, rotating block; 3, treatment cylinder; 4, micro electrolysis material; 5, hard filter plate gear; 6, No. 1 face gear cylinder; 7, hard filter plate; 8, No. 2 face gear cylinder; 9, No. 1 face gear; 10, No. 2 face gear; 11, rotating cylinder; 12, No. 1 six-rib rod; 13, No. 2 six-rib rod; 14, abutting spring; 15, arc-shaped rack; 16, arc-shaped lug; 17, limiting lug; 18, telescopic block; 19, return spring; 20, cleaning channel; 21, infusion channel; 22, blow-off pipe; 23, semicircular column; 24, switching motor. DETAILED DESCRIPTION

[0036] REFERENCE Figures 1-9The utility model provides a kind of device for preparing small molecule and hydrogen-rich water using micro electrolytic material, including processing box 1, processing box 1 is opened in movable cavity, the two sides of movable cavity are opened with the opening being communicated with movable cavity, rotatable block 2 is rotatably installed in movable cavity, two installation ports are opened in rotatable block 2, the number of installation port is set according to actual situation, installation port can be communicated with the two side openings of processing box 1, detachably installed with processing cylinder 3 in installation port, the thickness of processing cylinder 3 needs to be designed according to actual situation, the time of tap water stays in processing cylinder 3 is designed according to the flow rate of tap water, micro electrolytic material 4 is filled in processing cylinder 3, the material of micro electrolytic material 4 is iron-pak tube composite material, rotatable grinding mechanism is installed on processing cylinder 3, rotatable grinding mechanism can extrude and grind micro electrolytic material 4 in processing cylinder 3, driving mechanism is installed on processing box 1, when rotatable block 2 rotates and switches processing cylinder 3 in movable cavity, driving mechanism can drive rotatable grinding mechanism to grind micro electrolytic material 4, in actual situation, water temperature monitoring device and heating device also need to be installed, for monitoring the water temperature of tap water, the temperature of water is heated by heating device to ensure that tap water passes through micro electrolytic material 4 and keeps at 20-40 DEG C, water quality monitoring device, such as hydrogen concentration detector, is also installed, to determine the hydrogen concentration in water in real time, to ensure the quality of hydrogen-rich water, and the change of water conductivity can be monitored using conductivity meter, in the process of micro electrolytic reaction, the ion concentration in water will change, the edge of conductivity can reflect the progress and degree of reaction, the size of water molecule group is determined by nuclear magnetic resonance technology, the water molecule group of small molecule water is smaller, and the nuclear magnetic resonance half-peak numerical value is relatively smaller, for example, below 80Hz, one of processing cylinder 3 is communicated with the two side openings of processing box 1, and tap water is prepared by contacting and reacting with micro electrolytic material 4 in processing cylinder 3 to prepare small molecule water and hydrogen-rich water, after long time use, whether the oxide on the surface of micro electrolytic material 4 is covered too much to affect the preparation of hydrogen-rich water can be judged according to monitoring condition, so the following operation is carried out, the output shaft of switching motor 24 is fixedly connected with rotatable block 2, rotatable block 2 drives two processing cylinders 3 to rotate and switch positions by the work of switching motor 24, unused processing cylinder 3 is switched over, in the switching process, processing cylinder 3 is in the state of rotation, while processing cylinder 3 rotates, driving mechanism works to drive rotatable grinding mechanism to extrude and grind micro electrolytic material 4 in the processing cylinder 3 used for a long time, to grind the oxide layer on the surface of micro electrolytic material 4, without disassembling and replacing processing cylinder 3, to improve the service life of micro electrolytic material 4.

[0037] As Figure 2 , Figure 5 and Figure 6As shown in the figure, the rotating grinding mechanism comprises a hard filter plate gear 5, a first face gear cylinder 6, a hard filter plate 7, a second face gear cylinder 8 and a transmission assembly; the hard filter plate gear 5 is a circular hard filter plate, a plurality of teeth are formed on the outer periphery of the hard filter plate in a circumferential direction, a plurality of protrusions are arranged on the side surface of the hard filter plate gear 5 and the hard filter plate 7, and filter sheets are arranged on the outer side of the hard filter plate gear 5 and the hard filter plate 7; the first face gear cylinder 6 is fixedly connected to one side of the hard filter plate gear 5, one end of the processing cylinder 3 is provided with a first movable slot which is in sliding fit with the first face gear cylinder 6, the second face gear cylinder 8 is fixedly connected to one side of the hard filter plate 7, and the other end of the processing cylinder 3 is provided with a second movable slot which is in sliding fit with the second face gear cylinder 8; when the hard filter plate gear 5 drives the first face gear cylinder 6 to rotate synchronously, the transmission assembly converts the rotating action of the first face gear cylinder 6 into the rotating action of the second face gear cylinder 8 and the hard filter plate 7; the first face gear cylinder 6 rotates in the processing cylinder 3, the hard filter plate gear 5 rotates synchronously driven by the first face gear cylinder 6, the rotating action of the first face gear cylinder 6 is transmitted to the rotating action of the second face gear cylinder 8 through the transmission assembly, and the hard filter plate 7 rotates synchronously driven by the second face gear cylinder 8; while the hard filter plate gear 5 and the hard filter plate 7 rotate, the protrusions on the side surfaces of the hard filter plate gear 5 and the hard filter plate 7 drive the micro-electrolytic material 4 in the processing cylinder 3 to move, so that the micro-electrolytic material 4 moves and is pressed against each other to grind the oxides on the surface of the micro-electrolytic material 4, ensuring the contact area of the micro-electrolytic material 4 with the body and tap water, and ensuring the preparation efficiency of hydrogen.

[0038] As shown in the figure, Figure 5 and Figure 9 As shown in the figure, the transmission assembly comprises a first face gear 9, a second face gear 10, a first transmission gear 25, a second transmission gear 26 and an extendable transmission rod; the end faces of the first face gear cylinder 6 and the second face gear cylinder 8 are connected to the end faces to form face gears in the form of an annular array of teeth, the extendable transmission rod is rotatably installed in the processing cylinder 3, the first face gear 9 and the second face gear 10 are respectively installed at both ends of the extendable transmission rod, the first transmission gear 25 is rotatably installed in the processing cylinder 3 through a rotating shaft, the first transmission gear 25 is in meshing engagement with the first face gear 9, the first transmission gear 25 is in meshing engagement with the first face gear cylinder 6, and the processing cylinder 3 is provided with a first elastic sliding slot which is in sliding fit with the rotating shaft of the first transmission gear 25;

[0039] The second transmission gear 26 is rotatably installed in the processing cylinder 3, the second transmission gear 26 is engaged with the second end face gear 10, the second transmission gear 26 is engaged with the second end face gear cylinder 8, the second elastic sliding groove is slidably matched with the rotation shaft of the second transmission gear 26 in the processing cylinder 3, in the process of switching the processing cylinder 3, when the hard filter plate gear 5 rotates, the hard filter plate gear 5 drives the first end face gear cylinder 6 to rotate, the first end face gear cylinder 6 drives the first transmission gear 25 to rotate, the first transmission gear 25 drives the first end face gear 10 to rotate, and then the first end face gear 10 drives the telescopic transmission rod and the second end face gear 10 to synchronously rotate, the second end face gear 10 drives the second transmission gear 26 to rotate, and the second transmission gear 26 drives the second end face gear cylinder 8 and the hard filter plate 7 to rotate; the rotation shafts of the first transmission gear 25 and the second transmission gear 26 are both sleeved with sliding blocks, the sliding blocks slide in the elastic sliding grooves, the first elastic sliding groove and the second elastic sliding groove are both provided with rebound springs, and the rebound springs can drive the first transmission gear 25 and the second transmission gear 26 to slide and reset.

[0040] As shown in Figure 5 , Figure 7 and Figure 9 , the telescopic transmission rod comprises a rotating cylinder 11, a first six-rib rod 12, a second six-rib rod 13 and a pressing spring 14; the rotating cylinder 11 is rotatably installed in the processing cylinder 3, the end of the rotating cylinder 11 is provided with a six-rib groove, the first six-rib rod 12 and the second six-rib rod 13 are respectively inserted into the six-rib grooves at the two ends of the rotating cylinder 11, the end of the first six-rib rod 12 away from the rotating cylinder 11 is fixedly connected with the first end face gear 9, the end of the second six-rib rod 13 away from the rotating cylinder 11 is fixedly connected with the second end face gear 10, the pressing spring 14 is located in the six-rib groove, and the two ends of the pressing spring 14 are respectively abutted against the ends of the first six-rib rod 12 and the second six-rib rod 13; in actual conditions, the first six-rib rod 12 and the second six-rib rod 13 can respectively extend and retract in the two ends of the rotating cylinder 11, the first six-rib rod 12, the second six-rib rod 13 and the rotating cylinder 11 cannot rotate, and the first end face gear 9 and the second end face gear 10 can also slide in the processing cylinder 3.

[0041] As shown in Figure 2 and Figure 3As shown, the drive mechanism includes an arc-shaped rack 15; an annular groove is provided in the processing box 1 to slide with the hard filter plate gear 5. The thickness of the annular groove varies in different places. For example, the section of the arc-shaped rack 15 and the part adjacent to it are thicker than other sections to ensure the sliding of the hard filter plate gear 5. The arc-shaped rack 15 is fixedly installed in the annular groove. The hard filter plate gear 5 meshes with the arc-shaped rack 15. In actual operation, the switching motor 24 drives the rotating block 2 to rotate. The rotating block 2 drives the processing cylinder 3 to rotate synchronously to switch positions. When the processing cylinder 3 is rotated after use, the hard filter plate gear 5 and the arc-shaped rack 15 on the processing cylinder 3 mesh, causing the hard filter plate gear 5 to rotate. Since the processing cylinder 3 cannot rotate in the installation port, the hard filter plate 7 also rotates. The hard filter plate gear 5 and the hard filter plate 7 rotate together and grind the micro-electrolytic material 4 in the processing cylinder 3, grinding away the oxide on its surface.

[0042] In practice, when grinding the micro-electrolysis material 4 by rotating the hard filter plate gear 5 and the hard filter plate 7, the following structure is used to improve the grinding effect.

[0043] like Figure 3 and Figure 4 As shown, the drive mechanism also includes two arc-shaped protrusions 16. The two arc-shaped protrusions 16 are fixedly installed on the inner walls of the two sides of the movable cavity. The rotating block 2 has a limiting groove on both sides that slides with the arc-shaped protrusions 16. The hard filter plate gear 5 and the hard filter plate 7 can slide with the two arc-shaped protrusions 16 respectively. In actual practice, in order to improve the grinding effect of the micro-electrolysis material 4 particles, when the processing cylinder 3 rotates, the processing cylinder 3 slides along the arc-shaped protrusions 16 and is squeezed by the two arc-shaped protrusions 16, which makes the gap between the hard filter plate gear 5 and the hard filter plate 7 smaller, thereby squeezing the micro-electrolysis material 4 and improving the grinding effect between the micro-electrolysis material 4.

[0044] like Figure 5 , Figure 6 and Figure 8As shown in the figure, the first end face gear cylinder 6 and the second end face gear cylinder 8 are both provided with a reset assembly, and the reset assembly comprises a limiting protrusion 17, an expansion block 18 and a reset spring 19; the limiting protrusion 17 is fixedly connected to the outer periphery of the first end face gear cylinder 6, and the processing cylinder 3 is provided with an annular reset sliding groove which is in sliding cooperation with the limiting protrusion 17; the limiting protrusion 17 is provided with an expansion slot, one end of the expansion block 18 is slidingly installed in the expansion slot, and the other end of the expansion block 18 abuts against the inner wall of the annular reset sliding groove; the reset spring 19 is located in the expansion slot, and the two ends of the reset spring 19 respectively abut against the end inner wall of the expansion slot and the end of the expansion block 18; four reset assemblies are fixedly installed on the outer periphery of the first end face gear cylinder 6 and the second end face gear cylinder 8, which can ensure the stable expansion and contraction of the first end face gear cylinder 6 and the second end face gear cylinder 8, thereby ensuring the change of the distance between the hard filter plate gear 5 and the hard filter plate 7; when the distance between the hard filter plate gear 5 and the hard filter plate 7 becomes small, the limiting protrusion 17 is driven by the first end face gear cylinder 6 or the second end face gear cylinder 8 to move downward, the reset spring 19 is compressed, and the expansion block 18 is retracted in the expansion slot; the first end face gear cylinder 6 and the second end face gear cylinder 8 are reset by the rebounding action of the reset spring 19; when the first end face gear cylinder 6 and the second end face gear cylinder 8 rotate, the reset assembly is driven to rotate synchronously.

[0045] In actual conditions, when the micro-electrolytic material 4 is ground, the micro-electrolytic material 4 may be ground into fine particles, and in order to ensure the safety of drinking water, the fine particles generated by grinding need to be washed away, and the specific operation is as follows.

[0046] As Figure 1 and Figure 2As shown in the figure, the cleaning channel 20 is arranged in the processing box 1, the valve is arranged in the cleaning channel 20, the infusion channel 21 is arranged in the rotating block 2 and communicated with the cleaning channel 20, the water inlet is arranged in the processing cylinder 3 and communicated with the infusion channel 21, the drain pipe 22 is arranged on the processing box 1, the drain outlet is arranged on the processing cylinder 3 and communicated with the drain pipe 22, the filter piece is arranged in the water inlet and the drain outlet, so that the micro electrolysis material 4 in the processing box 1 cannot leak out, and the debris generated by grinding can be flushed out, the semicylinder 23 is fixedly connected to the inner wall of the movable cavity of the processing box 1, the semicylinder 23 is inserted into the infusion channel 21, when the rotating block 2 is communicated with the openings on the two sides of the processing box 1, the semicylinder 23 blocks the water inlet on the rotating block 2, in the actual situation, after the two processing cylinders 3 are switched, the hard filter plate gear 5 and the hard filter plate 7 are not pressed by the arc-shaped protrusions, so that the spacing between the hard filter plate gear 5 and the hard filter plate 7 is in the maximum state, then the valve in the cleaning channel 20 is opened, the tap water enters the infusion channel 21 through the cleaning channel 20, and then the tap water reaches the processing cylinder 3 through the water inlet to flush the debris generated by grinding, the debris is flushed out from the gap between the micro electrolysis materials 4 and discharged from the drain pipe 22, so that the debris cannot enter the drinking water after subsequent switching, and the safety of the drinking water is ensured.

[0047] The preparation method is as follows:

[0048] S1, the processing box 1 is installed on the water pipe, so that the tap water needs to pass through the micro electrolysis material 4 in one of the processing cylinders 3, when the processing box 1 is installed, the drain pipe 22 is arranged downward as far as possible, so that the debris generated by grinding can be conveniently discharged;

[0049] S2, the water quality is monitored, for example, the water temperature, the water flow rate, the hydrogen content and the like;

[0050] S3, the surface oxide of the micro electrolysis material 4 is treated, and the treated oxide is discharged.

[0051] In S3, when the surface oxide of the micro electrolysis material 4 is treated, the new rotating block 2 is switched, and the micro electrolysis material 4 in the rotating block 2 used for a long time is ground.

[0052] The above is only the preferred specific embodiment of the present application, but the protection scope of the present application is not limited to this, any person skilled in the art can make equivalent replacement or change according to the technical scheme and the inventive concept of the present application within the technical range disclosed by the present application, which should be covered in the protection scope of the present application.

Claims

1. An apparatus for preparing small molecule and hydrogen-rich water using micro-electrolysis materials, characterized in that, The device includes a processing box (1), which has a movable cavity. Both sides of the movable cavity have openings that communicate with the movable cavity. A rotating block (2) is rotatably installed in the movable cavity. At least two mounting ports are provided through the rotating block (2). The mounting ports can communicate with the openings on both sides of the processing box (1). A processing cylinder (3) is detachably installed in the mounting port. The processing cylinder (3) is filled with micro-electrolysis material (4). The processing cylinder (3) is equipped with a rotary grinding mechanism, which can squeeze and grind the micro-electrolytic material (4) inside the processing cylinder (3). The processing box (1) is equipped with a drive mechanism. When the rotating block (2) rotates and switches the processing cylinder (3) in the active cavity, the drive mechanism can drive the rotating grinding mechanism to grind the micro-electrolytic material (4). The rotating grinding mechanism includes a hard filter plate gear (5), a first end face gear cylinder (6), a hard filter plate (7), a second end face gear cylinder (8), and a transmission assembly; the first end face gear cylinder (6) is fixedly connected to one side of the hard filter plate gear (5), one end of the processing cylinder (3) is provided with a first movable groove that slides with the first end face gear cylinder (6), the second end face gear cylinder (8) is fixedly connected to one side of the hard filter plate (7), and the other end of the processing cylinder (3) is provided with a second movable groove that slides with the second end face gear cylinder (8); When the hard filter plate gear (5) drives the first end face gear cylinder (6) to rotate synchronously, the rotation action of the first end face gear cylinder (6) is converted into the rotation action of the second end face gear cylinder (8) and the hard filter plate (7) through the transmission assembly. The transmission assembly includes a first end face gear (9), a second end face gear (10), a first transmission gear (25), a second transmission gear (26), and a telescopic transmission rod; the telescopic transmission rod is rotatably installed inside the processing cylinder (3), the first end face gear (9) and the second end face gear (10) are respectively installed at both ends of the telescopic transmission rod, the first transmission gear (25) is rotatably installed inside the processing cylinder (3) via a rotating shaft, the first transmission gear (25) meshes with the first end face gear (9), the first transmission gear (25) meshes with the first end face gear cylinder (6), and the processing cylinder (3) has a first elastic groove that slides with the rotating shaft of the first transmission gear (25); The second transmission gear (26) is rotatably installed inside the processing cylinder (3). The second transmission gear (26) meshes with the second end face gear (10) and meshes with the second end face gear cylinder (8). The processing cylinder (3) is provided with a second elastic groove that slides with the shaft of the second transmission gear (26).

2. The apparatus for preparing small molecules and hydrogen-rich water using micro-electrolysis materials according to claim 1, characterized in that, The telescopic transmission rod includes a rotating cylinder (11), a first hexagonal rod (12), a second hexagonal rod (13), and a retaining spring (14). The rotating cylinder (11) is rotatably installed inside the processing cylinder (3). A hexagonal groove is opened through the end of the rotating cylinder (11). The first hexagonal rod (12) and the second hexagonal rod (13) are respectively inserted into the hexagonal grooves at both ends of the rotating cylinder (11). The end of the first hexagonal rod (12) away from the rotating cylinder (11) is fixedly connected to the first end face gear (9). The end of the second hexagonal rod (13) away from the rotating cylinder (11) is fixedly connected to the second end face gear (10). The retaining spring (14) is located in the hexagonal groove, and the two ends of the retaining spring (14) abut against the ends of the first hexagonal rod (12) and the second hexagonal rod (13), respectively.

3. The apparatus for preparing small molecules and hydrogen-rich water using micro-electrolysis materials according to claim 2, characterized in that, The drive mechanism includes an arc-shaped rack (15); the processing box (1) has an annular groove that slides with the hard filter plate gear (5), the arc-shaped rack (15) is fixedly installed in the annular groove, and the hard filter plate gear (5) meshes with the arc-shaped rack (15).

4. The apparatus for preparing small molecule and hydrogen-rich water using micro-electrolysis materials according to claim 3, characterized in that, The driving mechanism also includes an arc-shaped protrusion (16); there are two arc-shaped protrusions (16), and the two arc-shaped protrusions (16) are respectively fixedly installed on the inner walls of the two sides of the movable cavity. The rotating block (2) has a limiting groove on both sides that slides with the arc-shaped protrusions (16). The hard filter plate gear (5) and hard filter plate (7) can slide and engage with the two arc-shaped protrusions (16) respectively.

5. The apparatus for preparing small molecules and hydrogen-rich water using micro-electrolysis materials according to claim 4, characterized in that, Both the first end face gear cylinder (6) and the second end face gear cylinder (8) are equipped with reset components. The reset components include a limiting protrusion (17), a telescopic block (18), and a reset spring (19). The limiting protrusion (17) is fixedly connected to the outer periphery of the first end face gear cylinder (6). The processing cylinder (3) has an annular reset groove that slides with the limiting protrusion (17). The limiting protrusion (17) has a telescopic groove. One end of the telescopic block (18) is slidably installed in the telescopic groove. The other end of the telescopic block (18) abuts against the inner wall of the annular reset groove. The reset spring (19) is located in the telescopic groove. The two ends of the reset spring (19) abut against the inner wall of the end of the telescopic groove and the end of the telescopic block (18), respectively.

6. The apparatus for preparing small molecule and hydrogen-rich water using micro-electrolysis materials according to claim 1, characterized in that, The processing tank (1) is provided with a cleaning channel (20), and a valve is installed in the cleaning channel (20). The rotating block (2) is provided with a liquid inlet channel (21) that communicates with the cleaning channel (20). The processing cylinder (3) is provided with a water inlet that communicates with the liquid inlet channel (21). The processing tank (1) is provided with a sewage pipe (22), and the processing cylinder (3) is also provided with a sewage outlet that communicates with the sewage pipe (22). The inner wall of the active cavity of the treatment box (1) is fixedly connected to a semi-cylinder (23). The semi-cylinder (23) is inserted into the infusion channel (21). When the rotating block (2) is connected to the openings on both sides of the treatment box (1), the semi-cylinder (23) blocks the water inlet on the rotating block (2).

7. A method for preparing small molecules and hydrogen-rich water using micro-electrolysis materials, employing the apparatus for preparing small molecules and hydrogen-rich water using micro-electrolysis materials as described in any one of claims 1-6, characterized in that, The preparation method is as follows: S1. Install the treatment box (1) on the water pipe to ensure that the tap water needs to pass through the micro-electrolysis material (4) in one of the treatment cylinders (3). S2. Monitor water quality; S3. Treat the oxides on the surface of the micro-electrolysis material (4) and discharge the treated oxides.

8. The method for preparing small molecule and hydrogen-rich water using micro-electrolysis materials according to claim 7, characterized in that, In S3, when processing the surface oxide of the micro-electrolytic material (4), a new rotating block (2) is switched and the micro-electrolytic material (4) inside the rotating block (2) after long-term use is ground.

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