Hydrogen-rich water cup integrating solid electrolytic film and microbubble gas-liquid mixing

Abstract

The invention discloses a hydrogen-rich water cup integrating solid electrolytic film and microbubble gas-liquid mixing, and belongs to the technical field of hydrogen-rich water cups, the hydrogen-rich water cup comprises a water cup outer cylinder, a water cup inner cylinder is fixedly mounted on the inner ring wall of the water cup outer cylinder, a cup cover is rotatably mounted on the upper surface between the water cup outer cylinder and the water cup inner cylinder, and an oxygen discharge hole is formed in the cup cover; the lower end of the water cup inner cylinder extends out of the water cup outer cylinder, a base is fixedly installed on the outer surface of the water cup inner cylinder, a mixed scrubbing exchange mechanism is fixedly installed in the base, and an electrolysis mechanism is fixedly installed in the space between the water cup outer cylinder and the water cup inner cylinder. Through the design of the electrolysis mechanism and the mixing and scrubbing exchange mechanism, the three functions of transmission switching, water flow circulation and magnetic suction cleaning are integrated into the same mechanism, function reuse is achieved through the overturning conversion face of the sealed cup bottom, an independent mixing device and an independent cleaning device do not need to be additionally arranged, and the water cup is more compact in overall structure and convenient to carry; and practicability and portability are both considered.

Description

Technical Field

[0001] This invention relates to the field of hydrogen-rich cup technology, specifically to a hydrogen-rich water cup that integrates a solid electrolysis membrane with microbubble gas-liquid mixing. Background Technology

[0002] Hydrogen-rich water, also known as hydrogen-reduced water, is simply hydrogen-rich water. It is a type of drinking water that contains hydrogen with strong reducing power. Unlike ordinary water, hydrogen-rich water is a type of drinking water that can remove excess reactive oxygen species in the body through its antioxidant and reducing power.

[0003] For example, the national authorized patent announcement number CN213060509U discloses a portable rechargeable hydrogen-rich water cup, including a hydrogen-rich water cup body, an electrolysis chamber, an electrolysis positive electrode, a wireless current receiver, a wireless charging base, and a control switch. The hydrogen-rich water cup body has a lid on top and a vacuum insulation layer on the outside. The electrolysis chamber is located at the bottom of the hydrogen-rich water cup body, and a water inlet is provided at the connection between the electrolysis chamber and the hydrogen-rich water cup body. A filter screen is installed at the water inlet. The electrolysis positive and negative electrodes are installed on top of the battery. The wireless current receiver is located at the bottom of the electrolysis chamber. The wireless charging base is connected to the charging head via a wire. This portable rechargeable hydrogen-rich water cup, equipped with a wireless charging base and a wireless current receiver, achieves current transmission through electromagnetic induction, enabling wireless charging of the battery. It is both convenient and safe. The presence of electrolysis positive and negative electrodes, along with battery-controlled current transmission, allows for the electrolysis of water within the hydrogen-rich water cup.

[0004] However, the aforementioned portable rechargeable hydrogen-rich water cups still have the following key drawbacks:

[0005] 1. Electrolysis relies solely on simple positive and negative electrodes without a dedicated ion-selective separation structure. During electrolysis, the oxygen produced at the anode easily mixes with the hydrogen produced at the cathode, which not only reduces the purity of the hydrogen but may also pose a safety risk due to the hydrogen-oxygen mixture. At the same time, the anode is prone to generating harmful impurities such as ozone and residual chlorine. These impurities enter the drinking water with the water and cannot be effectively discharged. Long-term consumption may have an impact on human health.

[0006] 2. Lacking an efficient gas-liquid mixing structure, the hydrogen produced by electrolysis exists in the water as large bubbles. These bubbles rise quickly and have a small contact area with the water, resulting in most of the hydrogen escaping from the water surface without dissolving. This leads to a low concentration of hydrogen-rich water and the undissolved hydrogen readily volatilizes, resulting in poor stability of the hydrogen-rich water. The hydrogen content drops significantly after a short period of time, making it impossible to guarantee an effective hydrogen concentration for drinking.

[0007] 3. It only has the basic functions of "electrolysis hydrogen production + wireless charging", and does not take into account the problem that scale and impurities are easy to accumulate on the inner wall of the water cup after long-term use. There is no special cleaning structure, and the cup body needs to be disassembled or external tools are needed for cleaning, which is cumbersome. At the same time, the filter screen needs to be replaced frequently to avoid clogging the water inlet, which increases maintenance costs and inconvenience of use. Summary of the Invention

[0008] The purpose of this invention is to provide a hydrogen-rich water cup that integrates a solid-state electrolysis membrane and microbubble gas-liquid mixing, in order to solve the problems mentioned in the background art, such as easy mixing of hydrogen and oxygen, inability to remove harmful impurities, low hydrogen dissolution efficiency and poor stability of hydrogen-rich water, lack of dedicated cleaning structure and high maintenance cost of filter screen.

[0009] To achieve the above objectives, the present invention provides the following technical solution:

[0010] A hydrogen-rich water cup integrating a solid-state electrolysis membrane and microbubble gas-liquid mixing includes: an outer cup cylinder, an inner cup cylinder fixedly installed on the inner ring wall of the outer cup cylinder, and a cup lid rotatably installed on the upper surface between the outer cup cylinder and the inner cup cylinder, the cup lid having an oxygen vent hole, the lower end of the inner cup cylinder extending from the outer cup cylinder and having a base fixedly installed on its outer surface, a mixing and washing mechanism fixedly installed in the base, the mixing and washing mechanism being able to seal the bottom of the inner cup cylinder after being rotated 180°, and each rotation will respectively turn the mixing end or the washing end of the mixing and washing mechanism toward the inner cup cylinder;

[0011] An electrolysis mechanism is fixedly installed in the gap between the outer cylinder and the inner cylinder of the water cup, and the electrolysis end of the electrolysis mechanism is connected to both ends of the outer surface of the inner cylinder of the water cup, so that the decomposition can be carried out by the action of the electrodes on both sides of the electrolysis mechanism during the electrolysis process.

[0012] When the mixing end of the mixing and washing mechanism faces the inner cylinder of the water cup, it will draw in the water source in the inner cylinder of the water cup and discharge it back into the inner cylinder of the water cup. This allows the water to flow at high speed in a closed circulation loop, so that after hydrogen is generated, it can quickly integrate into the high-speed flowing water, and under the squeezing and shearing action of the water flow, the hydrogen is broken into tiny bubbles.

[0013] When the brushing end of the mixing and washing mechanism faces the inner cylinder of the water cup, it is horizontally opposite to and magnetically attracted to the first magnetic block fixedly installed on the inner ring wall of the lifting ring. The lifting ring is slidably installed on the outer surface of the heat insulation frame, and the heat insulation frame is fixedly installed on the outer surface of the outer cylinder of the water cup. The first magnetic block of the lifting ring is simultaneously slidably installed in the guide port. The guide port is embedded at both ends of the outer surface of the heat insulation frame, so that the lifting ring can slide up and down on the outer surface of the heat insulation frame through the first magnetic block to magnetically attract the brushing end to slide up and down in the guide groove opened in the outer cylinder of the water cup to wash the cup wall.

[0014] Preferably, the electrolysis mechanism includes a ring frame, which is fixedly installed in the gap between the outer cylinder and the inner cylinder of the water cup. The ring frame is equipped with a nickel-metal hydride battery and a control module. The nickel-metal hydride battery is electrically connected to two sets of electrode assemblies through the control module. The electrode assemblies are composed of two sets of solid electrolytic membranes and electrode sheets attached to the inner sides, and the electrode sheets attached to the inner sides are the anode and the cathode, respectively.

[0015] The solid electrolytic membrane is arranged in a U-shape in the gap between the outer cylinder and the inner cylinder of the water cup. Its inner reaction surface is connected to the water in the inner cylinder of the water cup, and its outer surface is sealed and fixed to the outer cylinder of the water cup. When energized, the solid electrolytic membrane allows hydrogen ions to pass through, while the oxygen generated by the anode electrode plate is discharged through the vent hole of the cup lid. This vent hole is a one-way valve, while the hydrogen generated by the cathode electrode plate directly enters the water in the inner cylinder of the water cup.

[0016] Preferably, a Type-C charging port is fixedly installed on the outer surface of the ring frame. The Type-C charging port is electrically connected to the internal nickel-metal hydride battery through the control module to replenish the nickel-metal hydride battery. The Type-C charging port extends to the outer surface of the outer cylinder of the water cup.

[0017] Preferably, the mixing and washing replacement mechanism includes a sealed cup bottom, which is rotatably installed inside the inner cylinder of the water cup through a connecting pipe fixed at both ends and extends rotatably and sealably into the gap between the outer cylinder of the water cup and the inner cylinder of the water cup. A first bevel gear is fixedly installed at one end of the connecting pipe extending into the gap. The first bevel gear meshes with a first double bevel gear, and the first double bevel gear is rotatably installed on the outer surface of the L-shaped tube.

[0018] The L-shaped tube is connected to the outer surface of the connecting tube by a sleeve that is mounted on the upper surface. The other end of the first double bevel gear meshes with the second double bevel gear. The second double bevel gear is rotatably mounted in the connecting frame via a shaft. The connecting frame is fixedly mounted on both ends of the outer surface of the inner cylinder of the water cup. The other end of the second double bevel gear meshes with the second bevel gear. The second bevel gear is fixedly mounted on the outer surface of the output shaft at both ends of the dual-axis motor. The dual-axis motor is fixedly mounted on the upper surface of the mounting plate. The mounting plate is fixedly mounted in the base.

[0019] Preferably, this enables the dual-axis motor to engage with the second double bevel gear via the second bevel gear, which in turn engages with the first double bevel gear. The first double bevel gear then engages with the first bevel gear and drives the bottom of the sealed cup to flip inside the cup via the connecting pipes on both sides.

[0020] Preferably, the other ends of the two sets of L-shaped tubes are respectively connected to the inlet and outlet of the micro water pump, and the micro water pump is fixedly installed on the other end of the mounting plate.

[0021] Preferably, two sets of filter tubes are connected and installed on one side of the bottom of the sealed cup. The two sets of filter tubes are respectively connected to two sets of connecting pipes to form a circulation channel from the water in the inner cylinder of the water cup to the connecting pipe, to the L-shaped pipe, to the micro water pump, to another set of L-shaped pipes, to another set of connecting pipes, and back to the inner cylinder of the water cup.

[0022] Preferably, a magnetic groove is embedded and fixedly installed on the other side of the bottom of the sealing cup. The magnetic groove and the magnetic ring attract each other. The magnetic ring is protruding and fixedly installed on the lower surface of the connecting plate, so that the connecting plate can be attracted and fixed in the magnetic groove on the bottom of the sealing cup by the magnetic ring.

[0023] Preferably, the outer surface of the connecting disc is provided with bristles.

[0024] Preferably, two sets of second magnetic blocks are fixedly installed on the upper surface of the connecting plate. The second magnetic blocks are horizontally opposite to the first magnetic blocks and magnetically attract each other. A connecting plate is fixedly installed in the middle section of the upper surface of the connecting plate. Two sets of guide wheels are rotatably installed at both ends of the connecting plate. The guide wheels roll in the guide groove.

[0025] Compared with the prior art, the beneficial effects of the present invention are:

[0026] 1. The solid-state electrolysis membrane possesses ion-selective permeability, allowing only hydrogen ions to migrate directionally to the cathode. Harmful impurities such as oxygen and ozone generated at the anode cannot penetrate the membrane and are ultimately discharged directionally through the oxygen vent in the cup lid. This fundamentally avoids the safety risks of hydrogen-oxygen mixing and the residue of harmful impurities. The pure hydrogen gas generated at the cathode directly enters the water storage chamber inside the cup, producing pure hydrogen-rich water free of contaminants. This solves the problems of incomplete hydrogen-oxygen separation and impurities affecting drinking safety in traditional electrolyzed water cups, making long-term consumption safer. At the same time, the control module of the electrolysis mechanism can output a stable current, preventing the electrode plates from wearing out too quickly, further ensuring the stability of equipment operation and the safety of drinking water.

[0027] 2. Utilizing a micro water pump and a closed-loop circulation channel design, water circulates along the path from the inner cylinder of the cup to the filter tube, then to the connecting tube, the L-shaped tube, and finally back to the micro water pump. The high-speed water flow generates strong extrusion and shearing forces at the interface between the L-shaped tube and the connecting tube, breaking hydrogen into tiny bubbles. This significantly increases the gas-liquid contact area, resulting in a marked improvement in hydrogen dissolution efficiency. The filter tube also filters out scale particles and small foreign objects in the water, preventing channel blockage and ensuring stable circulation efficiency. Furthermore, the tiny bubbles have strong suspension properties in the water, maintaining hydrogen content for a long time and avoiding the problem of hydrogen easily escaping in traditional water cups. This ensures that users can still obtain high-concentration hydrogen-rich water when drinking, guaranteeing the drinking effect.

[0028] 3. Through the transmission system of dual-axis motor-bevel gear-double bevel gear, the bottom of the sealed cup can be driven to achieve a precise 180° flipping change, quickly switching to the washing end. The connecting plate is firmly attached to the bottom of the sealed cup through "magnetic groove-magnetic ring", and it is not easy to fall off when flipping. During cleaning, the strong magnetic attraction of "first magnetic block-second magnetic block" is greater than that of the former. The user can hold the lifting ring and slide it along the heat insulation frame to drive the connecting plate to move synchronously without contacting the sewage. The guide wheel rolls along the guide groove to ensure that the bristles clean the cup wall without dead corners. After cleaning, the lifting ring can be pushed down to reset. There is no need to disassemble parts or replace consumables, which greatly reduces maintenance costs and operation difficulty and meets the daily convenient cleaning needs. Attached Figure Description

[0029] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0030] Figure 2 This is a schematic diagram of the structure of the heat insulation frame of the present invention;

[0031] Figure 3 This is a schematic diagram of the overall side cross-section of the present invention;

[0032] Figure 4 This is a schematic diagram of the reverse side of the mixed brushing and changing mechanism of the present invention;

[0033] Figure 5 This is a schematic diagram of the electrolysis mechanism of the present invention;

[0034] Figure 6 This is a schematic diagram of the lifting ring and the first magnetic block of the present invention;

[0035] Figure 7 This is a schematic diagram of the structure of the hybrid brushing and changing mechanism of the present invention;

[0036] Figure 8 This is a schematic diagram of the connecting disc and brush bristles of the present invention.

[0037] Figure 9 This is a schematic diagram of the filter tube of the present invention.

[0038] In the diagram: 1. Heat insulation frame; 101. Outer cylinder of the water cup; 102. Cup lid; 103. Base; 104. Guide port; 105. Lifting ring; 106. Inner cylinder of the water cup; 107. First magnet; 108. Connecting frame; 109. Guide rail groove; 2. Electrolysis mechanism; 201. Solid electrolytic membrane; 202. Electrode sheet; 203. Ring frame; 204. Type-C charging port; 3. Mixing brushing and changing mechanism; 301. Mounting plate; 302. Sealing... 303. Sealed cup bottom; 304. Miniature water pump; 305. Magnetic ring; 306. L-shaped tube; 307. Sleeve; 308. Connecting tube; 309. Dual-shaft motor; 310. Second bevel gear; 311. Second double bevel gear; 312. First double bevel gear; 313. First bevel gear; 314. Connecting disc; 315. Brush bristles; 316. Filter tube; 317. Connecting plate; 318. Guide wheel; 319. Magnetic groove; 310. Second magnetic block. Detailed Implementation

[0039] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0040] like Figures 1-4As shown, a hydrogen-rich water cup integrating a solid-state electrolytic membrane and microbubble gas-liquid mixing includes: an outer cylinder 101, an inner cylinder 106 fixedly installed on the inner ring wall of the outer cylinder 101, and a lid 102 rotatably installed on the upper surface between the outer cylinder 101 and the inner cylinder 106. The lid 102 has an oxygen discharge hole. The lower end of the inner cylinder 106 extends from the outer cylinder 101 and a base 103 is fixedly installed on its outer surface. A mixing and washing mechanism 3 is fixedly installed in the base 103. The mixing and washing mechanism 3 can seal the bottom of the inner cylinder 106 after being rotated 180°, and each rotation will turn the mixing end or the washing end of the mixing and washing mechanism 3 toward the inner cylinder 106.

[0041] An electrolysis mechanism 2 is fixedly installed in the gap between the outer cylinder 101 and the inner cylinder 106 of the water cup, and the electrolysis end of the electrolysis mechanism 2 is connected to both ends of the outer surface of the inner cylinder 106 of the water cup, so that the decomposition can be carried out by the action of the electrodes on both sides of the electrolysis mechanism 2 during the electrolysis process.

[0042] When the mixing end of the mixing brushing and changing mechanism 3 faces the inner cylinder 106 of the water cup, it will draw in the water source in the inner cylinder 106 of the water cup and discharge it into the inner cylinder 106 of the water cup again, so that the water flows at high speed in the closed circulation loop, so that after the hydrogen is generated, it can quickly integrate into the high-speed flowing water, and under the squeezing and shearing action of the water flow, the hydrogen is broken into tiny bubbles.

[0043] When the brushing end of the mixing and washing mechanism 3 faces the inner cylinder 106 of the water cup, it will be horizontally opposite to and magnetically attracted to the first magnetic block 107 fixedly installed on the inner ring wall of the lifting ring 105. The lifting ring 105 is slidably installed on the outer surface of the heat insulation frame 1, and the heat insulation frame 1 is fixedly installed on the outer surface of the outer cylinder 101 of the water cup. The first magnetic block 107 of the lifting ring 105 is simultaneously slidably installed in the guide port 104. The guide port 104 is embedded at both ends of the outer surface of the heat insulation frame 1, so that the lifting ring 105 can slide up and down on the outer surface of the heat insulation frame 1 through the first magnetic block 107 to magnetically attract the brushing end to slide up and down in the guide groove 109 opened in the outer cylinder 101 of the water cup to wash the cup wall.

[0044] Through the synergistic action of the heat insulation frame 1, the outer cylinder 101 of the water cup, the inner cylinder 106 of the water cup, the lifting ring 105, the first magnetic block 107, the guide rail groove 109, the electrolysis mechanism 2, and the mixing and brushing replacement mechanism 3, the entire process of "safe electrolytic hydrogen production to efficient microbubble hydrogen dissolution to convenient magnetic brushing" is achieved. The specific working process is as follows: After injecting the water to be treated into the water storage chamber of the inner cylinder 106 of the water cup, the cup lid 102 is closed. First, the power supply is prepared by the electrolysis mechanism 2. Then, the electrolysis mechanism 2 starts working. Its internal electrodes cooperate with the solid electrolysis membrane 201 to achieve hydrogen and oxygen separation. The oxygen, ozone and other impurities generated at the anode are separated from the oxygen in the cup lid 102 along a preset path. The hydrogen gas is discharged through the outlet, while the cathode generates pure hydrogen gas which directly enters the water storage chamber of the inner cylinder 106 of the water cup. This prevents the mixing of hydrogen and oxygen and the introduction of harmful impurities, ensuring the purity of the hydrogen gas and its safety for drinking. Next, it enters the microbubble mixing stage. Initially, the mixing end of the mixing and washing mechanism 3 faces the water storage chamber of the inner cylinder 106, and the mixing and washing mechanism 3 simultaneously seals the bottom of the inner cylinder 106. After the water flow driving function of the mixing and washing mechanism 3 is activated, the water in the storage chamber enters the closed circulation channel under its action. The high-speed water flow generates compression and shearing forces, breaking the hydrogen gas generated by the electrolysis mechanism 2 into microbubbles. These microbubbles are then carried by the water flow back into the microbubble system. The water is discharged into the storage chamber. Due to the small particle size and large specific surface area of ​​the microbubbles, the contact time with the water is prolonged, and the dissolution efficiency is greatly improved, ultimately forming high-concentration hydrogen-rich water. Furthermore, the microbubbles have strong suspension properties, which can maintain the hydrogen content in the water for a long time. When scale or impurities adhere to the inner wall of the inner cylinder 106 of the water cup, the flipping function of the mixing and washing mechanism 3 is activated, causing its washing end to face the storage chamber. At this time, the washing end of the mixing and washing mechanism 3 forms a magnetic attraction with the first magnetic block 107 on the inner ring wall of the lifting ring 105. The user can then hold the lifting ring 105 and slide it up and down along the outer surface of the heat insulation frame 1, allowing the lifting ring 105 to move along the guide along the first magnetic block 107. The mouth 104 remains vertically moving, while the magnetic attraction drives the brush end of the mixing and brushing mechanism 3 to detach from it and move vertically along the guide groove 109 on the inner wall of the inner cylinder 106 of the water cup to perform up and down brushing, so that the brush end makes close contact with the cup wall to remove impurities. After cleaning, the lifting ring 105 can be pushed back to make the brush end re-attract and reset with the mixing and brushing mechanism 3. Then, the mixing end can be switched back to the mixing end by the flipping function of the mixing and brushing mechanism 3, so as to restart the electrolysis hydrogen production and microbubble mixing process. This solves the problems of difficult cleaning and high maintenance cost of traditional water cups while achieving the preparation of high-safety, high-concentration hydrogen-rich water, and takes into account both practicality and convenience.

[0045] like Figures 5-6As shown, the electrolysis mechanism 2 includes a ring frame 203, which is fixedly installed in the gap between the outer cylinder 101 and the inner cylinder 106 of the water cup. The ring frame 203 is equipped with a nickel-metal hydride battery and a control module. The nickel-metal hydride battery is electrically connected to two sets of electrode assemblies through the control module. The electrode assembly consists of two sets of solid electrolytic membranes 201 and electrode plates 202 attached to the inner sides. The electrode plates 202 attached to the inner sides are the anode and the cathode, respectively.

[0046] The solid electrolytic membrane 201 is arranged in a U-shape in the gap between the outer cylinder 101 and the inner cylinder 106 of the water cup. Its inner reaction surface is connected to the water in the inner cylinder 106 of the water cup, and its outer surface is sealed and fixed to the outer cylinder 101 of the water cup. When energized, the solid electrolytic membrane 201 allows hydrogen ions to pass through, while the oxygen generated by the anode electrode plate 202 is discharged through the vent hole of the cup lid 102. This vent hole is a one-way valve, while the hydrogen generated by the cathode electrode plate 202 directly enters the water in the inner cylinder 106 of the water cup.

[0047] Among them, a type-c charging port 204 is fixedly installed on the outer surface of the ring frame 203. The type-c charging port 204 is electrically connected to the internal nickel-metal hydride battery through the control module to replenish the nickel-metal hydride battery. The type-c charging port 204 extends to the outer surface of the outer cylinder 101 of the water cup.

[0048] Through the design of the solid-state electrolytic membrane 201, electrode plates 202, ring frame 203, and Type-C charging port 204, when hydrogen-rich water needs to be prepared, the nickel-metal hydride battery inside the ring frame 203 is first replenished with power through the Type-C charging port 204, which extends from the outer surface of the ring frame 203 to the outer cylinder 101 of the water cup. The Type-C charging port 204 forms a path with the nickel-metal hydride battery through the control module. The control module monitors the battery level in real time and automatically cuts off the charging circuit after the battery is fully charged to avoid overcharging and damage to the nickel-metal hydride battery, while ensuring the safety of the charging process and the battery life. After the power supply is prepared, the control module outputs a stable current to the two sets of electrode assemblies. The electrode plates 202, which are attached to the inner side of the two sets of solid-state electrolytic membranes 201, begin to work, allowing the inner reaction surface of the U-shaped solid-state electrolytic membrane 201 to be directly connected to the water in the inner cylinder 106 of the water cup, while the outer side is sealed and fixed to the outer cylinder 101 of the water cup. This structure expands the contact area between the solid-state electrolytic membrane 201 and the water. This design allows for a more complete electrolysis reaction, improving hydrogen generation efficiency and preventing water leakage from the inner cylinder 106 of the water cup into the gap between the outer and inner cylinders. After energization, the anode electrode 202 catalyzes the decomposition of water molecules in the water, producing hydrogen ions, oxygen, and electrons. At this time, the solid electrolysis membrane 201 plays a role in ion selective permeation, allowing only hydrogen ions to migrate through the membrane to the cathode side. Electrons are transferred to the cathode electrode 202 through the external circuit. Oxygen generated at the anode cannot penetrate the solid electrolysis membrane 201 and will accumulate in the ring 203 and the solid electrolysis membrane 201. Subsequently, it will be discharged from the cup through the vent hole of the cup lid 102 along the inner cylinder 106 of the water cup. The hydrogen ions that migrate to the cathode side combine with electrons on the surface of the cathode electrode 202 to generate pure hydrogen gas, which will then directly enter the water in the inner cylinder 106 of the water cup, completing the electrolysis hydrogen production process. Compared with the traditional electrolysis structure, this design reduces ion transport resistance, increases the electrolysis reaction rate, and can produce hydrogen-rich water that meets the needs more quickly, shortening the user's waiting time.

[0049] like Figures 7-9 As shown, the mixed washing and changing mechanism 3 includes a sealed cup bottom 302. The sealed cup bottom 302 is rotatably installed inside the inner cylinder 106 of the water cup through a connecting pipe 307 fixedly installed at both ends, and extends rotatably and sealably into the gap between the outer cylinder 101 of the water cup and the inner cylinder 106 of the water cup. A first bevel gear 312 is fixedly installed at one end of the connecting pipe 307 extending into the gap. The first bevel gear 312 meshes with a first double bevel gear 311, and the first double bevel gear 311 is rotatably installed on the outer surface of the L-shaped tube 305.

[0050] The L-shaped tube 305 is mounted on the outer surface of the connecting tube 307 via a sleeve 306 that is connected to its upper surface. The other end of the first double bevel gear 311 meshes with the second double bevel gear 310. The second double bevel gear 310 is rotatably mounted inside the connecting frame 108 via a shaft. The connecting frame 108 is fixedly mounted on both ends of the outer surface of the inner cylinder of the water cup 106. The other end of the second double bevel gear 310 meshes with the second bevel gear 309, which is fixedly mounted on both ends of the dual-shaft motor 308. At the outer surface of the output shaft, the dual-axis motor 308 is fixedly mounted on the upper surface of the mounting plate 301, which is fixedly mounted inside the base 103. This allows the dual-axis motor 308 to mesh with the second double bevel gear 310 via the second bevel gear 309, which in turn meshes with the first double bevel gear 311. The first double bevel gear 311 can mesh with the first bevel gear 312 and drive the sealed cup bottom 302 to flip and change its surface inside the inner cylinder 106 of the water cup via the connecting pipes 307 on both sides.

[0051] The other ends of the two sets of L-shaped tubes 305 are respectively connected to the inlet and outlet of the micro water pump 303, which is fixedly installed on the other end of the mounting plate 301. Two sets of filter tubes 315 are connected to one side of the sealed cup bottom 302, and the two sets of filter tubes 315 are respectively connected to two sets of connecting tubes 307, forming a circulation channel from the water in the inner cylinder 106 of the water cup to the connecting tube 307, to the L-shaped tube 305, to the micro water pump 303, to another set of L-shaped tubes 305, to another set of connecting tubes 307, and back to the inner cylinder 106 of the water cup. The other side of the sealed cup bottom 302 is fixedly installed with a magnetic suction groove 318 embedded in it. The magnetic suction groove 318 and the magnetic suction ring 304 attract each other. The magnetic suction ring 304 is convexly fixedly installed on the lower surface of the connecting plate 313, so that the connecting plate 313 can be attracted and fixed in the magnetic suction groove 318 on the sealed cup bottom 302 by the magnetic suction ring 304. The outer surface of the connecting plate 313 is provided with bristles 314; two sets of second magnetic blocks 319 are fixedly installed on the upper surface of the connecting plate 313. The second magnetic blocks 319 can be horizontally opposite to the first magnetic block 107 and magnetically attracted to each other. A connecting plate 316 is fixedly installed in the middle section of the upper surface of the connecting plate 313. Two sets of guide wheels 317 are rotatably installed at both ends of the connecting plate 316. The guide wheels 317 roll in the guide groove 109.

[0052] Through the design of the sealed cup bottom 302, micro water pump 303, magnetic ring 304, L-shaped tube 305, sleeve 306, connecting tube 307, dual-axis motor 308, connecting plate 313, brush bristles 314, filter tube 315, guide wheel 317, and second magnetic block 319, when switching between the "mixing end" and the "washing end" is required, the dual-axis motor 308 on the mounting plate 301 inside the base 103 can be activated. The dual-axis motor 308 drives the second bevel gear 309 to rotate synchronously through its two output shafts. The second bevel gear 309 meshes with the second double bevel gear 310, thereby transmitting power to the second double bevel gear 310. The second double bevel gear 310 is rotatably mounted inside the connecting frame 108 via a shaft. Supported by the stable rotation, the first double bevel gear 311 is further engaged and driven. The first double bevel gear 311 is rotatably mounted on the outer surface of the L-shaped tube 305. When it rotates, it engages and drives the first bevel gear 312. The first bevel gear 312 is fixed to one end of the connecting tube 307 extending to the distance between the inner and outer cylinders, thereby driving the connecting tube 307 to rotate synchronously. Both ends of the connecting tube 307 are fixedly connected to the bottom of the sealing cup 302, and the connecting tube 307 cooperates with the inner cylinder 106 of the water cup through a rotating sealing structure. Finally, the bottom of the sealing cup 302 is driven to achieve a 180° flip-over within the inner cylinder 106 of the water cup, accurately switching the "mixing end with filter tube 315" or the "washing end with magnetic groove 318" towards the water storage cavity of the inner cylinder 106 of the water cup, while ensuring that the switching process is carried out smoothly. The sealing of the bottom of the inner cylinder 106 of the water cup prevents water leakage. When the mixing end of the sealed bottom 302 faces the water storage chamber, the micro water pump 303 on the mounting plate 301 can be activated. Under the negative pressure of the micro water pump 303, the water in the inner cylinder 106 first enters the two sets of filter tubes 315 connected on the sealed bottom 302. The filter tubes 315 filter out impurities in the water, such as scale particles and small foreign objects, preventing impurities from clogging the subsequent flow channels. The filtered water then enters the connecting pipes 307 on both sides through the filter tubes 315, and then flows along the connecting pipes 307 into the L-shaped pipe 305 connected to it. The L-shaped pipe 305 is sleeved on the outer surface of the connecting pipe 307 through the sleeve 306, which achieves connection without affecting the rotation of the connecting pipe 307. Due to the two sets of L-shaped... Pipes 305 are connected to the inlet and outlet of the micro water pump 303, respectively. Water enters the micro water pump 303 through a set of L-shaped pipes 305, is pressurized by the power of the micro water pump 303, and is discharged from another set of L-shaped pipes 305. Then, it is reinjected into the water storage chamber of the inner cylinder 106 of the water cup through the corresponding connecting pipe 307, forming a closed circulation channel from the inner cylinder 106 of the water cup to the filter pipe 315, to the connecting pipe 307, to the L-shaped pipe 305, to the micro water pump 303, to another set of L-shaped pipes 305, to another set of connecting pipes 307, and back to the inner cylinder 106 of the water cup. This allows the water to fully contact the generated hydrogen gas during the circulation process. The compression and shearing action of the high-speed water flow breaks the hydrogen gas into tiny bubbles, greatly improving the hydrogen dissolution efficiency and ultimately forming high-concentration hydrogen-rich water.When the brush end of the sealed cup bottom 302 faces the water storage cavity, the magnetic groove 318 on the sealed cup bottom 302 and the magnetic ring 304 on the lower surface of the connecting plate 313 attract each other, firmly attaching the connecting plate 313 to the sealed cup bottom 302 to prevent it from falling off during the flipping process. After flipping, the bristles 314 on the outer surface of the connecting plate 313 will face the inner wall of the inner cylinder 106 of the water cup. At the same time, the second magnetic block 319 on the upper surface of the connecting plate 313 and the first magnetic block 107 on the inner ring wall of the lifting ring 105 are horizontally opposite each other and form a magnetic attraction. The magnetic attraction force is greater than the magnetic attraction force between the magnetic groove 318 and the magnetic ring 304. When the user holds the lifting ring 105 and slides it up and down along the heat insulation frame 1, the first magnetic block 107 can move vertically along the guide port 104. During this process, the magnetic attraction force can drive the connecting plate 313 to move synchronously. The connecting plate 313 can then move through the guide ports at both ends of the upper surface connecting plate 316. The guide wheel 317 rolls within the guide groove 109 on the inner wall of the inner cylinder 106 of the water cup, providing stable guidance for the connecting plate 313 and preventing it from shifting during movement. This ensures that the bristles 314 remain in close contact with the cup wall, effectively removing scale and impurities. After cleaning, the lifting ring 105 can be pushed down to magnetically pull the connecting plate 313 back to its original position, where it is reattached to the sealed bottom 302. Switching back to the mixing end allows for restarting the water circulation and hydrogen production process. This system integrates the three functions of "transmission switching, water circulation, and magnetic cleaning" into a single mechanism, achieving functional reuse through the flip-up surface of the sealed bottom 302. This eliminates the need for separate mixing and cleaning devices, resulting in a more compact and portable overall structure. The components work together seamlessly, ensuring efficient operation of a single function while allowing for seamless switching between multiple scenarios. This balances practicality and portability, meeting the dual needs of daily hydrogen production and cleaning maintenance.

[0053] Specifically, in this embodiment, the microbubble generation efficiency η of the micro water pump 303 is described by the following equation:

[0054]

[0055] in,

[0056] Q h The hydrogen generation rate (mL / s) is determined by the electrolysis current and membrane efficiency; Q w The water circulation flow rate (mL / s) is determined by the performance of the micro-pump; α is the electrolytic membrane efficiency coefficient (dimensionless), which is related to the material and structure of the solid electrolytic membrane; r cρ is the critical bubble breakup radius (μm), which is related to the fluid shear strength; r0 is the characteristic turbulence scale (μm), which is related to the L-shaped pipe structure; β is the shear enhancement coefficient (dimensionless), which is related to the pipe geometry; ΔP is the pressure drop (Pa) at the L-shaped pipe (305), which can be measured by a pressure sensor; ρ is the density of water (kg / m³), usually taken as 1000; v is the water flow velocity (m / s), which is related to the flow rate and the pipe cross-sectional area.

[0057] The derivation of the equation is based on the following physical mechanism:

[0058] 1. Hydrogen dissolution efficiency is related to the bubble breakage mechanism, with turbulent shear force dominating bubble breakage;

[0059] 2. Electrolysis hydrogen production rate Q h It is related to the electrolysis current and membrane efficiency;

[0060] 3. Water circulation flow rate Q w Affects hydrogen transport and shear strength;

[0061] 4. Pressure drop ΔP is related to pipe structure (L-shaped pipe), enhancing shear strength;

[0062] 5. Exponential term exp This represents the probability of bubble breakup and is related to the turbulence intensity.

[0063] Considering the above factors, the following efficiency model is constructed:

[0064]

[0065] Introducing dimensionless parameters α, β, r c Normalizing r0, we finally obtain:

[0066] .

[0067] Example: Assume the system parameters are as follows:

[0068] Q h =0.5mL / s; Q w =10mL / s; α=0.9; r c =50μm; r0=20μm; β=0.3; ΔP=200Pa; ρ=1000kg / m 3 v = 0.5 m / s;

[0069] Substitute into the equation to calculate:

[0070]

[0071] That is, the microbubble generation efficiency is approximately 0.297%.

[0072] Technical effect

[0073] 1. Quantitatively evaluate the microbubble generation efficiency to provide a theoretical basis for system optimization;

[0074] 2. Q can be adjusted w Parameters such as ΔP and v are actively optimized to improve hydrogen dissolution efficiency;

[0075] 3. Applicable to efficiency prediction under different water qualities, water temperatures, and electrolysis power;

[0076] 4. Provide the algorithmic basis for intelligent control modules (such as automatic adjustment of water pump power).

[0077] Working principle and process

[0078] 1. The electrolysis unit produces hydrogen gas at a rate Q. h ;

[0079] 2. The miniature water pump starts, forming a circulating flow rate Q. w ;

[0080] 3. Water flowing through the L-shaped pipe generates a pressure drop ΔP and a velocity v;

[0081] 4. Shear force breaks hydrogen gas into microbubbles, and the efficiency is described by η;

[0082] 5. The system can adjust the pump power or electrolysis current based on η feedback to achieve optimal hydrogen production.

[0083] Based on the above technical solution, the working steps of this solution are summarized as follows: After injecting the water to be treated into the water storage chamber of the inner cylinder 106 of the water cup, the lid 102 is closed. The nickel-metal hydride battery is charged through the Type-C charging port 204 on the ring frame 203 in the electrolysis mechanism 2. After the charging is completed, the control module starts and outputs a stable current to the electrode assembly. Then, the "anode-solid electrolysis membrane 201-cathode" of the electrolysis mechanism 2 starts to work: the anode plate and the electrolysis end connected to the outer surface of the inner cylinder 106 of the water cup come into contact with the water. Under the action of the current, the water molecules are catalyzed to decompose into hydrogen ions, oxygen and electrons. Among them, hydrogen ions migrate directionally to the cathode side through the ion channel of the solid electrolysis membrane 201, and electrons are transferred to the cathode through the external circuit. The oxygen, ozone, etc. generated by the anode are also produced. Impurities cannot penetrate the solid electrolytic membrane 201 and are eventually discharged through the oxygen vent hole of the cup lid 102. Meanwhile, hydrogen ions migrating to the cathode side combine with electrons to generate pure hydrogen gas. This hydrogen gas directly enters the water storage chamber of the inner cylinder 106 of the water cup, completing the "electrolysis-separation-hydrogen production" process. Next, it enters the microbubble mixing stage, at which point the micro water pump 303 on the mounting plate 301 can be activated. Under the negative pressure of the micro water pump 303, the water in the inner cylinder 106 of the water cup first enters the two sets of filter tubes 315 connected to the bottom of the sealed cup 302. The filter tubes 315 filter out impurities in the water, such as scale particles and tiny foreign objects, preventing impurities from clogging subsequent flow channels. The filtered water then enters the connecting pipes 307 on both sides through the filter tubes 315, and then flows along the connecting pipes 307 into the connected... The L-shaped tube 305 is sleeved on the outer surface of the connecting tube 307 via the sleeve 306, achieving connection without affecting the rotation of the connecting tube 307. Since the two sets of L-shaped tubes 305 are connected to the inlet and outlet of the micro water pump 303 respectively, water enters the micro water pump 303 through one set of L-shaped tubes 305, is pressurized under the power of the micro water pump 303, and then discharged from the other set of L-shaped tubes 305. It is then reinjected into the water storage chamber of the inner cylinder 106 of the water cup through the corresponding connecting tube 307, forming a closed circulation channel from the inner cylinder 106 of the water cup to the filter tube 315, then to the connecting tube 307, then to the L-shaped tube 305, then to the micro water pump 303, then to the other set of L-shaped tubes 305, then to the other set of connecting tubes 307, and finally to the inner cylinder 106 of the water cup. This allows the water to circulate continuously. The water comes into full contact with the generated hydrogen gas. The high-speed water flow's compression and shearing action breaks the hydrogen gas into tiny bubbles, significantly improving the hydrogen dissolution efficiency and ultimately forming high-concentration hydrogen-rich water. When scale or impurities adhere to the inner wall of the inner cylinder 106 of the water cup, the dual-shaft motor 308 is activated. The dual-shaft motor 308 drives the second bevel gear 309 to rotate synchronously through its two output shafts. The second bevel gear 309 meshes with the second double bevel gear 310, thereby transmitting power to the second double bevel gear 310. The second double bevel gear 310 is rotatably mounted in the connecting frame 108 via a shaft. Supported by the connecting frame 108, it rotates stably and further meshes with the first double bevel gear 311, which is rotatably mounted on the outer surface of the L-shaped tube 305.When it rotates, it meshes with and drives the first bevel gear 312. The first bevel gear 312 is fixed to one end of the connecting tube 307 extending to the distance between the inner and outer cylinders, thereby driving the connecting tube 307 to rotate synchronously. Both ends of the connecting tube 307 are fixedly connected to the bottom of the sealing cup 302, and the connecting tube 307 cooperates with the inner cylinder 106 of the water cup through a rotating sealing structure. Finally, it drives the bottom of the sealing cup 302 to achieve a 180° flip-over inside the inner cylinder 106 of the water cup, accurately switching the "brush end with magnetic groove 318" towards the water storage cavity of the inner cylinder 106 of the water cup. The magnetic groove 318 on the bottom of the sealing cup 302 attracts each other with the magnetic ring 304 on the lower surface of the connecting plate 313, firmly attaching the connecting plate 313 to the bottom of the sealing cup 302, preventing it from falling off during the flipping process. After flipping, the bristles 314 on the outer surface of the connecting plate 313 will face the inner wall of the inner cylinder 106 of the water cup, while the second magnetic block 319 on the upper surface of the connecting plate 313 and the lifting ring 1 The first magnetic block 107 on the inner ring wall of the water cup 106 is horizontally aligned and forms a magnetic attraction, with the magnetic force being greater than that between the magnetic groove 318 and the magnetic ring 304. When the user holds the lifting ring 105 and slides it up and down along the heat insulation frame 1, the first magnetic block 107 can move vertically along the guide opening 104. During this process, the magnetic force drives the connecting plate 313 to move synchronously. The connecting plate 313 then rolls in the guide groove 109 on the inner wall of the water cup 106 via the guide wheels 317 at both ends of the upper surface connecting plate 316, providing stable guidance for the connecting plate 313 and preventing it from shifting during movement. This ensures that the bristles 314 remain in close contact with the cup wall, effectively removing scale and impurities from the inner wall. After cleaning, the lifting ring 105 can be pushed down to allow the magnetic attraction to reset the connecting plate 313, re-attaching it to the sealed cup bottom 302. Switching back to the mixing end will then restart the water circulation and hydrogen production process.

[0084] In summary, the three major functions of "transmission switching, water circulation, and magnetic cleaning" are integrated into a single mechanism. The function reuse is achieved through the flip-up surface of the sealed cup bottom 302, eliminating the need for additional independent mixing and cleaning devices. This makes the overall structure of the water cup more compact and portable. Furthermore, the components work together without conflict, ensuring efficient operation of a single function while achieving seamless switching between multiple scenarios. This balances practicality and portability, meeting the dual needs of daily hydrogen production and cleaning maintenance.

[0085] All parts not described in this invention are the same as or can be implemented using existing technology. Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A hydrogen-rich water cup integrating a solid-state electrolytic membrane and microbubble gas-liquid mixing, characterized in that, The utility model relates to a water cup, which comprises: a water cup outer cylinder (101), an inner ring wall of the water cup outer cylinder (101) is fixedly provided with a water cup inner cylinder (106), an upper surface between the water cup outer cylinder (101) and the water cup inner cylinder (106) is rotatably provided with a cup cover (102), the cup cover (102) is provided with an oxygen discharge hole, a lower end of the water cup inner cylinder (106) extends out of the water cup outer cylinder (101) and is fixedly provided with a base (103) on an outer surface, the base (103) is fixedly provided with a mixed brushing and switching mechanism (3) in the base (103), the mixed brushing and switching mechanism (3) can seal the bottom of the water cup inner cylinder (106) after being turned over by 180 degrees, and each time the mixed end or the brushing end of the mixed brushing and switching mechanism (3) is directed into the water cup inner cylinder (106) after being turned over.

2. The integrated solid-state electrolytic membrane and microbubble gas-liquid mixed hydrogen-rich water cup according to claim 1, characterized in that: An electrolysis mechanism (2) is fixedly arranged in a space between the water cup outer cylinder (101) and the water cup inner cylinder (106), and electrolysis ends of the electrolysis mechanism (2) are connected to both ends of an outer surface of the water cup inner cylinder (106), so that the electrolysis mechanism (2) can be used to decompose water in the water cup inner cylinder (106) by means of electrodes on both sides of the electrolysis mechanism (2) during electrolysis; when the mixed end of the mixed brushing and switching mechanism (3) is directed into the water cup inner cylinder (106), water in the water cup inner cylinder (106) is sucked and discharged into the water cup inner cylinder (106) again, so that water flows at a high speed in a closed circulation loop, hydrogen generated can be quickly mixed with the high-speed flowing water, and the hydrogen can be broken into small bubbles under the extrusion and shearing action of the water flow; when the brushing end of the mixed brushing and switching mechanism (3) is directed into the water cup inner cylinder (106), the brushing end is horizontally opposite to and magnetically attracted to a first magnetic block (107) fixedly arranged on an inner ring wall of a lifting ring (105), the lifting ring (105) is slidingly arranged on an outer surface of a heat insulation frame (1), the heat insulation frame (1) is fixedly arranged on an outer surface of the water cup outer cylinder (101), the first magnetic block (107) of the lifting ring (105) is slidingly arranged in a guide port (104), and the guide port (104) is inlaidly arranged at both ends of the outer surface of the heat insulation frame (1), so that the lifting ring (105) can slide on the outer surface of the heat insulation frame (1) by means of the first magnetic block (107) to slide in a guide rail groove (109) in the water cup outer cylinder (101) to brush the cup wall.

3. The integrated solid-state electrolytic membrane and microbubble gas-liquid mixed hydrogen-rich water cup according to claim 2, characterized in that: The electrolysis mechanism (2) comprises a ring frame (203), the ring frame (203) is fixedly arranged in a space between the water cup outer cylinder (101) and the water cup inner cylinder (106), the ring frame (203) is provided with a nickel-hydrogen battery and a control module, the nickel-hydrogen battery is electrically connected to two groups of electrode assemblies by the control module, the electrode assemblies are composed of two groups of solid-state electrolytic membranes (201) and electrode sheets (202) attached to both sides, and the electrode sheets (202) attached to both sides are an anode and a cathode, respectively. The solid electrolytic membrane (201) is arranged in the space between the outer cylinder (101) and the inner cylinder (106) in a U shape, the inner side reaction surface is connected with the water body of the inner cylinder (106), and the outer side is sealed and fixed with the outer cylinder (101). When electrified, the solid electrolytic membrane (201) allows hydrogen ions to pass through, the oxygen generated by the anode side electrode sheet (202) is discharged through the exhaust hole of the cup cover (102), and the exhaust hole is a one-way valve, and the hydrogen generated by the cathode side electrode sheet (202) directly enters the water in the inner cylinder (106). The outer surface of the ring holder (203) is fixedly provided with a type-c charging port (204), the type-c charging port (204) is electrically connected with the internal nickel-hydrogen battery through a control module in sequence, and is used for supplementing the electric energy of the nickel-hydrogen battery. The type-c charging port (204) extends to the outer surface of the outer cylinder (101).

4. The integrated solid-state electrolytic membrane and microbubble gas-liquid mixed hydrogen-rich water cup according to claim 3, characterized in that: The mixed brush washing switching mechanism (3) comprises a sealing cup bottom (302), the sealing cup bottom (302) is rotatably installed in the inner cylinder (106) through the connecting pipe (307) fixedly installed at both ends and rotatably extends to the space between the outer cylinder (101) and the inner cylinder (106), and one end of the connecting pipe (307) extending to the space is fixedly provided with a first bevel gear (312), the first bevel gear (312) is engaged with a first double bevel gear (311), and the first double bevel gear (311) is rotatably installed at the outer surface of the L-shaped pipe (305). The L-shaped pipe (305) is rotatably installed at the outer surface of the connecting pipe (307) through the sleeve (306) communicated and installed on the upper surface, the other end of the first double bevel gear (311) is engaged with a second double bevel gear (310), the second double bevel gear (310) is rotatably installed in the connecting frame (108) through a shaft, the connecting frame (108) is fixedly installed at the outer surface of the inner cylinder (106), the other end of the second double bevel gear (310) is engaged with a second bevel gear (309), and the second bevel gear (309) is fixedly installed at the output shaft of the double-shaft motor (308) at both ends. The double-shaft motor (308) is fixedly installed on the upper surface of the mounting plate (301), and the mounting plate (301) is fixedly installed in the base (103).

5. The integrated solid state electrolytic membrane and microbubble gas-liquid mixed hydrogen-rich water cup according to claim 4, characterized in that: The double-shaft motor (308) can drive the second double bevel gear (310) through the second bevel gear (309), drive the first double bevel gear (311) through the second double bevel gear (310), drive the first bevel gear (312) through the first double bevel gear (311), and drive the sealing cup bottom (302) to rotate and change the surface in the inner cylinder (106) through the connecting pipes (307) at both sides.

6. The integrated solid-state electrolytic membrane and microbubble gas-liquid mixed hydrogen-rich water cup according to claim 5, characterized in that: The other ends of the two groups of L-shaped pipes (305) are respectively communicated and installed with the liquid inlet and the liquid outlet of the micro water pump (303), and the micro water pump (303) is fixedly installed on the other end of the mounting plate (301).

7. The integrated solid-state electrolytic membrane and microbubble gas-liquid mixed hydrogen-rich water cup according to claim 6, characterized in that: Two groups of filter tubes (315) are communicated and mounted on one side of the sealing cup bottom (302), and the two groups of filter tubes (315) are communicated with two groups of connecting tubes (307) respectively, forming a circulating flow channel of water cup inner cylinder (106) water body to connecting tube (307) to L-shaped tube (305) to micro water pump (303) to another group of L-shaped tube (305) to another group of connecting tube (307) to water cup inner cylinder (106).

8. The integrated solid-state electrolytic membrane and microbubble gas-liquid mixed hydrogen-rich water cup according to claim 7, characterized in that: The other side of the sealing cup bottom (302) is fixedly installed with a magnetic attraction groove (318) in an embedded manner, the magnetic attraction groove (318) and the magnetic attraction ring (304) are attracted to each other, the magnetic attraction ring (304) is fixedly installed on the lower surface of the connecting disc (313) in a convex manner, so that the connecting disc (313) can be attracted and fixed in the magnetic attraction groove (318) on the sealing cup bottom (302) by the magnetic attraction ring (304).

9. The integrated solid state electrolytic membrane and microbubble gas-liquid mixed hydrogen-rich water cup according to claim 8, characterized in that: The outer surface of the connecting disc (313) is provided with bristles (314).

10. The integrated solid state electrolytic membrane and microbubble gas-liquid mixed hydrogen-rich water cup according to claim 8, characterized in that: The upper surface of the connecting disc (313) is fixedly installed with two groups of second magnetic blocks (319), the second magnetic blocks (319) can be horizontally opposite to the first magnetic blocks (107) and be magnetically attracted to each other, the middle section of the upper surface of the connecting disc (313) is fixedly installed with a connecting plate (316), both ends of the connecting plate (316) are rotatably installed with two groups of guide rail wheels (317), and the guide rail wheels (317) roll in the guide rail grooves (109).

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