A device for generating hydrogen-rich water

Abstract

The present invention relates to the technical field of water treatment, and specifically to a hydrogen-rich water generating device; comprising a tank body and a support foot fixedly connected to the lower position of the outer wall of the tank body; the tank body is placed horizontally; a mesh cylinder is provided axially at the center of the tank body; a hydrogen-water rod is provided inside the mesh cylinder; a spiral plate is provided between the outer wall of the mesh cylinder and the inner wall of the tank body; the spiral plate is sleeved on the outer wall of the mesh cylinder; the outer edge of the spiral plate is in contact with the inner wall of the tank body; the inner edge of the spiral plate is adapted to the outer wall of the mesh cylinder; a water inlet joint is provided at the upper position of the outer wall of one end of the tank body; the present invention forms a spiral flow channel by providing a spiral plate in the tank body, so that ordinary water forms hydrogen-rich water after contacting the hydrogen-water rod in the mesh cylinder through the spiral flow channel. Compared with the existing contact method, the contact time and contact path between ordinary water and the hydrogen-water rod are extended, so that the quality of hydrogen-rich water is further improved, and continuous production of hydrogen-rich water is realized.

Description

Technical Field

[0001] The invention relates to the technical field of water treatment, in particular to a device for generating hydrogen-rich water. Background Art

[0002] Hydrogen-rich water is a trace amount of hydrogen dissolved in water. With the improvement of people's living standards and the emphasis on trace elements needed by the human body, hydrogen-rich water is becoming more and more popular among the public due to its beauty, body shaping and anti-aging effects. At present, the mainstream processes for preparing hydrogen-rich water are electrolysis water technology, nanobubble technology and hydrogen water stick technology; electrolysis water technology produces hydrogen through electrolysis and dissolves it in water to achieve the purpose of preparing hydrogen-rich water. Nanobubble technology is a relatively new technology that produces nano-scale bubbles in water through specific physical or chemical methods. These nanobubbles can efficiently carry and dissolve hydrogen, thereby improving the efficiency of hydrogen-rich water preparation.

[0003] The process of preparing hydrogen-rich water with the existing hydrogen water stick technology is to inject ordinary water into a container with a hydrogen water stick, so that the ordinary water reacts with the magnesium particles in the hydrogen water stick and water to produce hydrogen, and the hydrogen is dissolved in the water to obtain hydrogen-rich water. In order to avoid the newly injected ordinary water from mixing with the hydrogen-rich water, workers will drain the hydrogen-rich water and inject ordinary water again, and repeat this process, making it impossible to achieve continuous production in the existing hydrogen-rich water preparation process, which seriously affects the efficiency of industrial preparation of hydrogen-rich water. Summary of the invention

[0004] In order to make up for the shortcomings of the prior art, the present invention proposes a hydrogen-rich water generating device. The present invention forms a spiral flow channel by arranging a spiral plate in the tank body, so that ordinary water can form hydrogen-rich water after contacting the hydrogen water rod in the mesh tube through the spiral flow channel. Compared with the existing contact method, the contact time and contact path between ordinary water and the hydrogen water rod are extended, so that the quality of hydrogen-rich water is further improved, and the continuous production of hydrogen-rich water is realized.

[0005] The technical solution adopted by the present invention to solve its technical problems is: a hydrogen-rich water generating device described in the present invention comprises a tank body and a support foot fixedly connected to the lower outer wall of the tank body; the tank body is placed horizontally; a mesh cylinder is provided axially at the center of the tank body; a hydrogen water rod is provided inside the mesh cylinder; a spiral plate is provided between the outer wall of the mesh cylinder and the inner wall of the tank body; the spiral plate is sleeved on the outer wall of the mesh cylinder; the outer edge of the spiral plate is in contact with the inner wall of the tank body; the inner edge of the spiral plate is adapted to the outer wall of the mesh cylinder; a water inlet joint is provided at the upper position of the outer wall of one end of the tank body; a water outlet joint is provided at the lower position of the outer wall of the other end of the tank body; the spiral plate forms a spiral flow channel under the spiral distribution in the tank body; water entering the water inlet joint contacts the hydrogen water rod while flowing along the spiral flow channel, and finally flows out along the water outlet joint.

[0006] Preferably, one end of the tank body is rotatably sealed and connected to a swivel seat; the swivel seat extends into the interior of the tank body and contacts one end of the spiral plate; the outer wall of one end of the tank body is fixedly connected to a motor; the motor output shaft is fixedly connected to the swivel seat; the motor can drive the spiral plate to rotate inside the tank body; the gas and liquid in the tank body flow from the water inlet joint toward the water outlet joint.

[0007] Preferably, an air inlet pipe is provided at a lower position of the outer wall at one end of the tank body; the air inlet pipe is located directly below the water inlet joint; an air outlet pipe is provided at an upper position of the outer wall at the other end of the tank body; the air outlet pipe is located directly above the water outlet joint; a circulating pump is fixedly connected to the outer wall of the tank body; the circulating pump is connected to the air outlet pipe and the air inlet pipe; the hydrogen flowing out of the air outlet pipe enters the air inlet pipe along the circulating pump; the air inlet pipe is connected to the interior of one end of the tank body, and the air outlet pipe is connected to the interior of the other end of the tank body.

[0008] Preferably, a collecting box is provided in the spiral flow channel; the collecting box is fixedly connected to the spiral plate; the collecting box is in movable contact with the inner wall of the tank body; the opening of the collecting box faces the rotation direction of the spiral plate; the collecting box can collect the hydrogen on the upper side of the tank body and then move it downward.

[0009] Preferably, the movable sealing sleeve of the outer wall of the mesh tube is provided with a shielding sleeve; the inner edge of the spiral plate is in contact with the outer wall of the shielding sleeve; the shielding sleeve is movably sealed and connected to an end of the tank body away from the motor; and the shielding sleeve can move axially along the tank body.

[0010] Preferably, a U-shaped groove is provided on the outer wall of the tank body and away from the motor; a U-shaped block is slidably connected in the U-shaped groove; the U-shaped block is connected to the bottom of the U-shaped groove by a spring; one end of the U-shaped block is longer than the other end; a locking strip is provided on the outer side of the tank body for movable contact; the locking strip has locking grooves evenly provided along the length direction; the other end of the U-shaped block can be stuck in the locking groove; the locking strip is fixedly connected to the end of the shielding sleeve away from the motor through a connecting strip.

[0011] Preferably, the end of the tank body away from the motor is fixedly connected to the annular seat; the inner edge of the annular seat is movably sealed with the outer wall of the shielding sleeve; the outer edge of the annular seat is fixedly connected to the inner wall of the tank body; the inner edge of the spiral plate is provided with a spiral groove; the notch of the spiral groove is provided with a spiral elastic membrane; the annular seat is provided with an annular driving groove on the side close to the motor; the notch of the driving groove is rotatably sealed and connected to the annular plate; the annular plate is fixedly connected to the end of the spiral plate away from the rotating seat; the inside of the driving groove is slidingly sealed and connected to the driving plate; the driving plate is rotatably connected to the bolt on the side away from the motor; the bolt passes through the annular seat and extends to the outside; the bolt is threadedly connected to the annular seat; the driving plate divides the driving groove into a bolt chamber and a bolt-free chamber; the bolt is located in the bolt chamber; the bolt chamber is connected to the external gas; the bolt-free chamber is connected to the bottom of the spiral groove through an air hole; the bolt-free chamber is filled with a medium.

[0012] Preferably, the end of the net cylinder close to the rotating seat is fixedly connected to the head round block; the end of the net cylinder away from the rotating seat is fixedly connected to the tail round block; the head round block and the tail round block are connected by a center rod; the center rod is located on the inner side of the net cylinder; the hydrogen water rod is located between the outer wall of the center rod and the inner wall of the net cylinder; the tail round block is fixedly connected to the handle on the side away from the head round block; the rotating seat is fixedly connected to the first round block on the side close to the head round block; the arc-shaped outer wall of the first round block is provided with a groove; a slider is slidably connected in the groove; the slider is connected to the bottom of the groove by a tension spring; a circular groove is provided on the side of the head round block close to the first round block; an annular groove is provided on the inner wall of the circular groove; the first round block can drive the groove into the circular groove and correspond to the annular groove; the slider enters the annular groove during the rotation of the first round block; the tail round block is movably sealed and connected to the inner side of the shielding sleeve.

[0013] The beneficial effects of the present invention are as follows:

[0014] 1. The present invention forms a spiral flow channel by arranging a spiral plate in the tank body, so that ordinary water passes through the spiral flow channel and contacts the hydrogen water rod in the mesh tube to form hydrogen-rich water. Compared with the existing contact method, the contact time and contact path between ordinary water and the hydrogen water rod are extended, so that the quality of hydrogen-rich water is further improved, and the continuous production of hydrogen-rich water is realized.

[0015] 2. The collecting box in the present invention collects the hydrogen at the upper position of the inner wall of the tank, so that the collecting box holds the hydrogen at the upper position of the inner wall of the tank and then flips downward. The opening of the collecting box faces downward as the collecting box moves from top to bottom until the collecting box moves to the lower position of the inner wall of the tank. The opening of the collecting box begins to flip upward, and the hydrogen in the collecting box flows out. The hydrogen flowing out of the collecting box comes into contact with ordinary water again, thereby increasing the contact area and contact effect between the hydrogen and ordinary water, dissolving more hydrogen in the water, further increasing the hydrogen content of the hydrogen-rich water, and improving the quality of the hydrogen-rich water.

[0016] 3. The present invention controls the shielding sleeve to move axially on the outer wall of the mesh tube, thereby changing the exposed area of ​​the hydrogen water rod inside the mesh tube, thereby indirectly changing the reaction time between ordinary water and the magnesium particles in the hydrogen water rod, so that the generating device can be suitable for hydrogen-rich water with different hydrogen contents. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] The present invention is further described below in conjunction with the accompanying drawings and implementation modes.

[0018] Figure 1 It is a three-dimensional diagram at one angle of the present invention;

[0019] Figure 2 It is a three-dimensional diagram of the present invention at another angle;

[0020] Figure 3 is an axial cross-sectional view of the present invention;

[0021] Figure 4 yes Figure 3 The enlarged view of point A in the middle;

[0022] Figure 5 yes Figure 3 The enlarged view of point B in the middle;

[0023] Figure 6 is a cross-sectional view of the U-shaped groove of the present invention;

[0024] Figure 7 It is a stereoscopic diagram of the spiral plate and the net cylinder of the present invention.

[0025] In the figure: tank body 1, support foot 11, water inlet joint 12, water outlet joint 13, swivel seat 14, motor 15, U-shaped groove 16, U-shaped block 17, spring 18, mesh tube 2, hydrogen water rod 21, tail round block 22, center rod 23, handle 24, spiral plate 3, spiral flow channel 31, collecting box 32, spiral groove 33, elastic membrane 34, circulating pump 4, air inlet pipe 41, air outlet pipe 42, shielding sleeve 5, locking strip 6, locking groove 61, connecting strip 62, annular seat 7, driving groove 71, annular plate 72, driving plate 73, bolt 74, bolt cavity 75, non-bolt cavity 76, head round block 8, round groove 81, annular groove 82, first round block 9, groove 91, slider 92, tension spring 93. DETAILED DESCRIPTION

[0026] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further explained below in conjunction with specific implementation methods.

[0027] like Figures 1 to 7 As shown, the present invention includes the following embodiments:

[0028] Embodiment 1: A hydrogen-rich water generating device comprises a tank body 1 and a support leg 11 fixedly connected to the lower position of the outer wall of the tank body 1; the tank body 1 is placed horizontally; a mesh tube 2 is provided in the center of the tank body 1 along the axial direction; a hydrogen water rod 21 is provided inside the mesh tube 2; a spiral plate 3 is provided between the outer wall of the mesh tube 2 and the inner wall of the tank body 1; the spiral plate 3 is sleeved on the outer wall of the mesh tube 2; the outer edge of the spiral plate 3 is in contact with the inner wall of the tank body 1; the inner edge of the spiral plate 3 is adapted to the outer wall of the mesh tube 2; a water inlet joint 12 is provided at the upper position of the outer wall of one end of the tank body 1; a water outlet joint 13 is provided at the lower position of the outer wall of the other end of the tank body 1; the spiral plate 3 forms a spiral flow channel 31 under the spiral distribution in the tank body 1; the water entering the water inlet joint 12 contacts the hydrogen water rod 21 while flowing along the spiral flow channel 31, and finally flows out along the water outlet joint 13.

[0029] After checking that the generator is fault-free, connect the water inlet joint 12 of the generator to the water inlet pipe, connect the water outlet joint 13 of the generator to the water outlet pipe, and ordinary water enters one end of the tank body 1 along the water inlet pipe and the water inlet joint 12. The spiral flow channel 31 is formed from one end of the tank body 1 to the other end through the spiral plate 3 and the central mesh tube 2. Therefore, ordinary water will flow along the spiral flow channel 31. The ordinary water flowing in the spiral flow channel 31 will pass through the mesh holes on the outer wall of the mesh tube 2 and contact the internal hydrogen water rod 21. The magnesium particles on the surface of the hydrogen water rod 21 The hydrogen rod 21 contacts with water to generate hydrogen, and hydrogen contacts with water to dissolve in water to form hydrogen-rich water. The spiral flow channel 31 prolongs the contact time and contact path between ordinary water and the hydrogen water rod 21, so that ordinary water has a longer contact with the hydrogen water rod 21 in the tank body 1, and the hydrogen content of the hydrogen-rich water is increased. The hydrogen-rich water will eventually flow along the water outlet joint 13 and the water outlet pipe, and the water inlet pipe will continuously enter the ordinary water, and the water outlet joint 13 will continuously flow out the ordinary water; the sediment generated by the contact between the hydrogen water rod 21 and water in the net tube 2 is confined to the inner side of the net tube 2;

[0030] The present invention forms a spiral flow channel 31 by arranging a spiral plate 3 in the tank body 1, so that ordinary water forms hydrogen-rich water after contacting the hydrogen water rod 21 in the mesh tube 2 through the spiral flow channel 31. Compared with the existing contact method, the contact time and contact path between ordinary water and the hydrogen water rod 21 are extended, so that the quality of hydrogen-rich water is further improved, and continuous production of hydrogen-rich water is realized.

[0031] Embodiment 2: One end of the tank body 1 is rotatably sealed and connected to a rotating seat 14; the rotating seat 14 extends into the interior of the tank body 1 and contacts one end of the spiral plate 3; the outer wall of one end of the tank body 1 is fixedly connected to a motor 15; the output shaft of the motor 15 is fixedly connected to the rotating seat 14; the motor 15 can drive the spiral plate 3 to rotate inside the tank body 1; the gas and liquid in the tank body 1 flow from the water inlet joint 12 toward the water outlet joint 13.

[0032] In the present embodiment, an air inlet pipe 41 is provided at a lower position of the outer wall at one end of the tank body 1; the air inlet pipe 41 is located directly below the water inlet joint 12; an air outlet pipe 42 is provided at an upper position of the outer wall at the other end of the tank body 1; the air outlet pipe 42 is located directly above the water outlet joint 13; the outer wall of the tank body 1 is fixedly connected to the circulation pump 4; the circulation pump 4 is connected with the air outlet pipe 42 and the air inlet pipe 41; the hydrogen flowing out of the air outlet pipe 42 enters into the air inlet pipe 41 along the circulation pump 4; the air inlet pipe 41 is connected with the interior of one end of the tank body 1, and the air outlet pipe 42 is connected with the interior of the other end of the tank body 1.

[0033] In this embodiment, a collecting box 32 is provided in the spiral flow channel 31; the collecting box 32 is fixedly connected to the spiral plate 3; the collecting box 32 is in active contact with the inner wall of the tank body 1; the opening of the collecting box 32 faces the rotation direction of the spiral plate 3; the collecting box 32 can collect the hydrogen on the upper part of the tank body 1 and then move it downward.

[0034] After ordinary water enters the tank body 1 along the water inlet joint 12, the motor 15 drives the rotating seat 14 to rotate, and the rotating seat 14 drives the spiral plate 3 to rotate during the rotation. During the rotation of the spiral plate 3, the ordinary water inside one end of the tank body 1 flows along the spiral flow channel 31 toward the other end of the tank body 1, so that the water in the tank body 1 flows tightly, avoiding the occurrence of a gap area, and improving the preparation efficiency and continuity of hydrogen-rich water;

[0035] The hydrogen that is not dissolved in ordinary water in the tank body 1 will float up and gather at the upper position inside the tank body 1. During the rotation of the spiral plate 3, the collecting box 32 will be driven to move accordingly. The collecting box 32 will rotate around the central axis of the tank body 1 during the rotation of the spiral plate 3. The collecting box 32 will move circumferentially along the inner wall of the tank body 1. The opening of the collecting box 32 faces the rotation direction of the spiral plate 3. During the movement from bottom to top, the collecting box 32 will approach the upper position of the inner wall of the tank body 1, so that the collecting box 32 will contact the hydrogen gathered at the upper position of the inner wall of the tank body 1. The collecting box 32 will collect the hydrogen at the upper position of the inner wall of the tank body 1, so that the collecting box 32 The hydrogen at the upper position of the inner wall of the tank body 1 is scooped and then turned downward, and the opening of the collecting box 32 is turned downward as the collecting box 32 moves from top to bottom, until the collecting box 32 moves to the lower position of the inner wall of the tank body 1, and the opening of the collecting box 32 begins to turn upward, and the hydrogen in the collecting box 32 will flow out. The hydrogen flowing out of the collecting box 32 will contact with ordinary water again, increasing the contact area and contact effect between the hydrogen and ordinary water, so that more hydrogen is dissolved in the water, further increasing the hydrogen content of the hydrogen-rich water, and improving the quality of the hydrogen-rich water; during the rotation of the spiral plate 3, the hydrogen at the top of the tank body 1 will move toward the outlet pipe 42;

[0036] Finally, the gas converges at the position of the gas outlet pipe 42. The gas outlet pipe 42 generates negative pressure under the action of the circulation pump 4, so that the hydrogen gathered at the position where the gas outlet pipe 42 is connected to the inside of the tank body 1 is extracted. The hydrogen in the gas outlet pipe 42 flows back into one end of the tank body 1 along the gas inlet pipe 41 after circulation by the circulation pump 4. The hydrogen entering the tank body 1 from the gas inlet pipe 41 will come into contact with the ordinary water newly entering the tank body 1, so that the excess hydrogen in the tank body 1 can be recycled, thereby reducing the preparation cost of hydrogen-rich water.

[0037] Embodiment 3: The outer wall of the mesh tube 2 is provided with a shielding sleeve 5; the inner edge of the spiral plate 3 is in contact with the outer wall of the shielding sleeve 5; the shielding sleeve 5 is movably sealed and connected to the end of the tank body 1 away from the motor 15; the shielding sleeve 5 can move axially along the tank body 1.

[0038] In this embodiment, a U-shaped groove 16 is provided on the outer wall of the tank body 1 at a position away from the motor 15; a U-shaped block 17 is slidably connected in the U-shaped groove 16; the U-shaped block 17 is connected to the bottom of the U-shaped groove 16 by a spring 18; one end of the U-shaped block 17 is longer than the other end; a locking bar 6 is provided on the outer side of the tank body 1 for movable contact; the locking bar 6 is evenly provided with locking grooves 61 along the length direction; the other end of the U-shaped block 17 can be inserted into the locking groove 61; the locking bar 6 is fixedly connected to the end of the shielding sleeve 5 away from the motor 15 through a connecting bar 62.

[0039] In this embodiment, the end of the tank body 1 away from the motor 15 is fixedly connected to the annular seat 7; the inner edge of the annular seat 7 is movably sealed and connected to the outer wall of the shielding sleeve 5; the outer edge of the annular seat 7 is fixedly connected to the inner wall of the tank body 1; the inner edge of the spiral plate 3 is provided with a spiral groove 33; the notch of the spiral groove 33 is provided with a spiral elastic membrane 34; the annular seat 7 is provided with an annular driving groove 71 on the side close to the motor 15; the notch of the driving groove 71 is rotatably sealed and connected to the annular plate 72; the annular plate 72 is connected to the end of the spiral plate 3 away from the rotating seat 14 The drive plate 73 is connected to the drive groove 71 by a sliding seal; the drive plate 73 is connected to the bolt 74 by rotating on the side away from the motor 15; the bolt 74 extends to the outside through the annular seat 7; the bolt 74 is threadedly connected to the annular seat 7; the drive plate 73 divides the drive groove 71 into a bolt chamber 75 and a non-bolt chamber 76; the bolt 74 is located in the bolt chamber 75; the bolt chamber 75 is connected to the external gas; the non-bolt chamber 76 is connected to the bottom of the spiral groove 33 through the air hole; the non-bolt chamber 76 is filled with a medium.

[0040] Specifically, the outer wall of the net tube 2 is covered with a shielding sleeve 5, which can completely shield, partially shield, or completely expose the hydrogen water rod 21 inside the net tube 2. The more the hydrogen water rod 21 inside the net tube 2 is exposed, the larger the area in contact with ordinary water is, so that the hydrogen content of the formed hydrogen-rich water is higher, and vice versa. The staff will control the activity of the shielding sleeve 5 according to the hydrogen content demand of each batch of hydrogen-rich water, specifically, first press one end of the U-shaped block 17, so that the U-shaped block 17 slides in the U-shaped groove 16 and squeezes the spring 18, and the U-shaped block 17 is also After one end of the U-shaped block 17 is compressed, one end moves out of the lock groove 61, so that the lock bar 6 is unlocked. After being unlocked, the lock bar 6 can move along the outer wall of the tank body 1 in the circumferential direction, and the lock bar 6 drives the lock groove 61 to stagger with the U-shaped groove 16, and then the U-shaped block 17 is loosened; the bolt 74 is screwed in the opposite direction to drive the drive plate 73 to move in the drive groove 71, so that the space in the bolt cavity 75 becomes smaller, and the space in the non-bolt cavity 76 becomes larger to form a negative pressure, and the medium in the spiral groove 33 will enter the non-bolt cavity 76 along the air hole, so that the elastic membrane 34 bulging at the notch of the spiral groove 33 is shrunk;

[0041] Then, the locking strip 6, the connecting strip 62 and the shielding sleeve 5 are controlled to move axially along the tank body 1, and the shielding sleeve 5 will move on the outer wall of the net tube 2, so that the exposed or shielded area of ​​the net tube 2 is changed. After the movement of the shielding sleeve 5 is completed, the shielding sleeve 5 is rotated to drive the connecting strip 62 and the locking strip 6 to move circumferentially on the outer wall of the tank body 1, that is, the locking strip 6 rotates around the central axis of the tank body 1, and the locking strip 6 will drive the corresponding locking groove 61 to align with the other end of the U-shaped block 17. Before that, one end of the U-shaped block 17 is pressed so that one end of the U-shaped block 17 is retracted into the U-shaped groove 16, and then the locking strip 6 circumferentially moves to drive the locking groove 61 to align with the other end of the U-shaped block 17, and release one end of the U-shaped block 17. The other end of the U-shaped block 17 is snapped into the corresponding locking groove 61 under the action of the spring 18, so that the locking strip 6 is locked, so that the shielding sleeve 5 is also locked, and the adjustment of the shielding sleeve 5 is completed;

[0042] Then, the bolt 74 is turned forward, so that the space of the bolt chamber 75 is expanded and the space of the non-bolt chamber 76 is reduced. The medium in the non-bolt chamber 76 is pressurized and returns to the spiral groove 33 along the pores, so that the spiral elastic membrane 34 swells again. After the elastic membrane 34 swells, it will press against the outer wall of the mesh cylinder 2, so that the gap between the mesh cylinder 2 and the inner edge of the spiral plate 3 is blocked and sealed, thereby ensuring the integrity of the spiral flow channel 31; after the adjustment of the shielding sleeve 5 is completed, the motor 15 will drive the spiral plate 3 to rotate continuously. Since the annular plate 72 is rotated and sealed and connected to the notch of the driving groove 71, the motor 15 does not stop rotating during the process of turning the bolt 74; the mesh cylinder 2 can be flexible and have a certain elasticity. As the hydrogen water rod 21 inside the mesh cylinder 2 is consumed, the spiral elastic membrane 34 can be controlled to further expand and press against the outer wall of the mesh cylinder 2, thereby further ensuring the integrity of the spiral flow channel 31;

[0043] In this embodiment, the shielding sleeve 5 is controlled to move axially on the outer wall of the mesh tube 2, so that the exposed area of ​​the hydrogen water rod 21 on the inner side of the mesh tube 2 is changed, thereby indirectly changing the reaction time between ordinary water and the magnesium particles in the hydrogen water rod 21, so that the generating device can be suitable for hydrogen-rich water with different hydrogen contents.

[0044] Embodiment 4:

[0045] The end of the net cylinder 2 close to the rotating seat 14 is fixedly connected to the head round block 8; the end of the net cylinder 2 away from the rotating seat 14 is fixedly connected to the tail round block 22; the head round block 8 and the tail round block 22 are connected by a center rod 23; the center rod 23 is located inside the net cylinder 2; the hydrogen water stick 21 is located between the outer wall of the center rod 23 and the inner wall of the net cylinder 2; the tail round block 22 is fixedly connected to the handle 24 on the side away from the head round block 8; the rotating seat 14 is fixedly connected to the first round block 9 on the side close to the head round block 8; the first round block 9 has an arc-shaped outer wall A groove 91 is provided; a slider 92 is slidably connected in the groove 91; the slider 92 is connected to the bottom of the groove 91 by a tension spring 93; a circular groove 81 is provided on the side of the head block 8 close to the first block 9; an annular groove 82 is provided on the inner wall of the circular groove 81; the first block 9 can drive the groove 91 to enter the circular groove 81 and correspond to the annular groove 82; the slider 92 enters the annular groove 82 during the rotation of the first block 9; the tail block 22 is movably sealed and connected to the inner side of the shielding sleeve 5.

[0046] Specifically, the hydrogen water stick 21 needs to be replaced regularly. Before replacing the hydrogen water stick 21, first control the shielding sleeve 5 to move toward the inside of the tank body 1. After the shielding sleeve 5 completely shields the net tube 2 and the head round block 8, it contacts and seals with the rotating seat 14. When the shielding sleeve 5 is kept stationary or locked, reduce the speed of the motor 15, and the speed of the rotating seat 14 and the first round block 9 is reduced accordingly. The centrifugal force on the slider 92 is also reduced accordingly. The tension spring 93 will pull the slider 92 out of the annular groove 82 and into the groove 91, so that the head round block 8 is unlocked, and then pull the handle 24 to drive the tail round block 22 to move out from the inside of the shielding sleeve 5. The tail round block 22 will drive the center rod 23, the net tube 2 and the head round block 8 away from the rotating seat 14, and the first round block 9 is moved out of the circular groove 81 until the head round block 8 is moved out of the inside of the shielding sleeve 5;

[0047] Insert a new hydrogen water rod 21 along the inner side of the shielding sleeve 5, and the head round block 8 is close to the rotating seat 14, so that the first round block 9 enters the circular groove 81 again, and the first round block 9 will drive the groove 91 to align with the annular groove 82, and then the rotating motor 15 drives the rotating seat 14 and the first round block 9 to rotate. The slider 92 overcomes the tension spring 93 under the action of centrifugal force and enters the annular groove 82. A part of the slider 92 enters the annular groove 82, and the other part is located in the groove 91, so as to ensure that the head round block 8 is locked, and the net cylinder 2 and the tail round block 22 are locked, and the replacement of the hydrogen water rod 21 is completed. Then the shielding sleeve 5 is controlled to move away from the rotating seat 14, so that the net cylinder 2 and the hydrogen water rod 21 are exposed, and the preparation of hydrogen-rich water again begins.

[0048] In the description of the present invention, it should be noted that the terms "center", "longitudinal", "lateral", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside" and the like indicate directions or positional relationships based on the attached Figure 1 The orientation or positional relationship shown is only for the convenience of describing the present invention and simplifying the description, and does not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operate in a specific orientation. Therefore, it cannot be understood as limiting the scope of protection of the present invention. In addition, the terms "first", "second", "third", etc. are only used to distinguish the description and cannot be understood as indicating or implying relative importance.

[0049] The above shows and describes the basic principles, main features and advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A hydrogen-rich water generating device, comprising a tank body and a support foot fixedly connected to the lower outer wall of the tank body; characterized in that: The tank body is placed horizontally; a mesh cylinder is provided in the center of the tank body along the axial direction; a hydrogen water rod is provided inside the mesh cylinder; a spiral plate is provided between the outer wall of the mesh cylinder and the inner wall of the tank body; the spiral plate is sleeved on the outer wall of the mesh cylinder; the outer edge of the spiral plate is in contact with the inner wall of the tank body; the inner edge of the spiral plate is adapted to the outer wall of the mesh cylinder; a water inlet joint is provided at the upper position of the outer wall at one end of the tank body; a water outlet joint is provided at the lower position of the outer wall at the other end of the tank body; the spiral plate forms a spiral flow channel under the spiral distribution in the tank body; water entering the water inlet joint flows along the spiral flow channel while contacting the hydrogen water rod, and finally flows out along the water outlet joint; One end of the tank body is rotatably and sealably connected to the rotating seat; the rotating seat extends into the interior of the tank body and contacts one end of the spiral plate; the outer wall of one end of the tank body is fixedly connected to the motor; the motor output shaft is fixedly connected to the rotating seat; the motor can drive the spiral plate to rotate inside the tank body; the gas and liquid in the tank body flow from the water inlet joint to the water outlet joint; The movable sealing sleeve on the outer wall of the net cylinder is provided with a shielding sleeve; the inner edge of the spiral plate is in contact with the outer wall of the shielding sleeve; the shielding sleeve is movably and sealingly connected to the end of the tank body away from the motor; the shielding sleeve can move along the axial direction of the tank body; A U-shaped groove is provided on the outer wall of the tank body and at a position away from the motor; a U-shaped block is slidably connected in the U-shaped groove; the U-shaped block is connected to the bottom of the U-shaped groove by a spring; one end of the U-shaped block is longer than the other end; a locking strip is provided on the outer side of the tank body for movable contact; locking strips are evenly provided along the length direction; the other end of the U-shaped block can be inserted into the locking strip; the locking strip is fixedly connected to the end of the shielding sleeve away from the motor through a connecting strip; The end of the tank body away from the motor is fixedly connected to the annular seat; the inner edge of the annular seat is movably sealed with the outer wall of the shielding sleeve; the outer edge of the annular seat is fixedly connected to the inner wall of the tank body; the inner edge of the spiral plate is provided with a spiral groove; the notch of the spiral groove is provided with a spiral elastic membrane; the annular seat is provided with an annular driving groove on the side close to the motor; the notch of the driving groove is rotatably sealed and connected to the annular plate; the annular plate is fixedly connected to the end of the spiral plate away from the rotating seat; the inside of the driving groove is slidingly sealed and connected to the driving plate; the driving plate is rotatably connected to the bolt on the side away from the motor; the bolt passes through the annular seat and extends to the outside; the bolt is threadedly connected to the annular seat; the driving plate divides the driving groove into a bolt chamber and a bolt-free chamber; the bolt is located in the bolt chamber; the bolt chamber is connected to the external gas; the bolt-free chamber is connected to the bottom of the spiral groove through the air hole; the bolt-free chamber is filled with a medium.

2. A hydrogen-rich water generating device according to claim 1, characterized in that: An air inlet pipe is arranged at a lower position of the outer wall at one end of the tank body; the air inlet pipe is located directly below the water inlet joint; an air outlet pipe is arranged at an upper position of the outer wall at the other end of the tank body; the air outlet pipe is located directly above the water outlet joint; a circulating pump is fixedly connected to the outer wall of the tank body; the circulating pump is connected with the air outlet pipe and the air inlet pipe; the hydrogen flowing out of the air outlet pipe enters the air inlet pipe along the circulating pump.

3. A hydrogen-rich water generating device according to claim 1, characterized in that: A collecting box is arranged in the spiral flow channel; the collecting box is fixedly connected to the spiral plate; the collecting box is in active contact with the inner wall of the tank body; the opening of the collecting box faces the rotation direction of the spiral plate; the collecting box can collect the hydrogen on the upper side of the tank body and then move it downward.

4. A hydrogen-rich water generating device according to claim 1, characterized in that: The end of the net cylinder close to the rotating seat is fixedly connected to the head round block; the end of the net cylinder away from the rotating seat is fixedly connected to the tail round block; the head round block and the tail round block are connected by a center rod; the center rod is located on the inner side of the net cylinder; the hydrogen water rod is located between the outer wall of the center rod and the inner wall of the net cylinder; the tail round block is fixedly connected to the handle on the side away from the head round block; the rotating seat is fixedly connected to the first round block on the side close to the head round block; the arc-shaped outer wall of the first round block is provided with a groove; a slider is slidably connected in the groove; the slider is connected to the bottom of the groove by a tension spring; the head round block is provided with a circular groove on the side close to the first round block; the inner wall of the circular groove is provided with an annular groove; the first round block can drive the groove into the circular groove and correspond to the annular groove; the slider enters the annular groove during the rotation of the first round block.

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