Nano-bubble hydrogen water production device

Abstract

The invention relates to the technical field of hydrogen water production, and provides a nanobubble hydrogen water production device which comprises a hydrogen production barrel. According to the hydrogen production barrel, the control block is started, the condensation pipe starts to refrigerate to condense water in the water storage barrel, so that hydrogen can be rapidly dissolved and then is discharged into the hydrogen production barrel through the water conveying pipe, and the reciprocating thread is located at the topmost end of the reciprocating thread and stops when water is added to the bottom end of the reciprocating thread; when hydrogen water is produced, the motor is started, the motor drives the rotating rod to rotate, the rotating rod drives the pressurizing plate to move downwards through reciprocating threads, and as the pressurizing plate is tightly attached to the inner wall of the hydrogen production barrel, when the pressurizing plate moves downwards, hydrogen between the pressurizing plate and the water is pushed to be compressed downwards; when the pressurizing plate ascends, the water and the hydrogen lose the pressure and are lifted upwards, so that the water and the hydrogen are contacted, fused and reciprocatingly moved again, and the hydrogen rising to the surface can be repeatedly fused.

Description

Technical Field

[0001] The invention relates to the technical field of hydrogen water production, and in particular to a nano bubble hydrogen water production device. Background Art

[0002] Nanobubble hydrogen water device, also known as nanobubble hydrogen-rich water machine, uses nanobubble physical hydrogen dissolution technology to efficiently dissolve hydrogen in water to produce hydrogen-rich water. Its principle is to use ultra-fine bubbles of 10 to 230nm to encapsulate hydrogen in bubbles. These nanobubbles have extremely high stability and activity, and can prevent hydrogen from escaping.

[0003] As disclosed in the publication number CN114772697B, the invention discloses a high-concentration hydrogen-rich water preparation device capable of absorbing hydrogen, which belongs to the technical field of hydrogen-rich water preparation. A high-concentration hydrogen-rich water preparation device capable of absorbing hydrogen includes a preparation barrel, and also includes: a rotating shaft rotatably connected in the preparation barrel, with a hollow cavity opened in the rotating shaft; the invention fills the jet pipe with hydrogen through the air inlet pipe, so that the hydrogen diffuses into the pure water in the preparation barrel in the form of bubbles through the bubble holes on the jet pipe, and the jet pipe and the rotary cutter are driven to rotate during the rotation of the rotating shaft, the hydrogen bubbles can be fully contacted with the pure water during the rotation of the jet pipe, the floating and rising hydrogen bubbles can be rotary cut during the rotation of the rotary cutter, and the piston cylinder sprays the rotary cutter with pure water containing hydrogen bubbles during the rotation process, so that the hydrogen bubbles in the pure water are further broken into nano-scale hydrogen bubbles, so that the solubility of hydrogen in pure water can be increased and the dissolution efficiency of hydrogen in pure water can be improved.

[0004] In the above-mentioned prior art, the staff adds water into the preparation barrel until the water stops overflowing from the drain pipe, and then drives the jet tube and the rotary cutter to rotate during the rotation of the shaft. During the rotation of the jet tube, the hydrogen bubbles can be fully in contact with the pure water, and during the rotation of the rotary cutter, the floating and rising hydrogen bubbles can be rotary cut. Since the rotary cutter is set in a vertically flush position, when the bubbles are rotary cut, the bubbles will rise through the space adjacent to the rotary cutter, resulting in that these bubbles cannot be rotary cut, resulting in all floating at the top, and it is difficult to merge evenly. In addition, the bubbles are affected by the cutting fluctuations of the rotary cutter during the rising period, and some bubbles will adhere to the inner wall of the preparation barrel, and cutting and mixing cannot be achieved. Summary of the invention

[0005] The purpose of the present invention is to solve the problem that in the prior art, the position of the rotary cutter is vertically flush. When the bubbles are rotary cut, the bubbles will rise through the space adjacent to the rotary cutter, resulting in that these bubbles cannot be rotary cut, causing all of them to float at the top and difficult to merge evenly. In addition, the bubbles are affected by the cutting fluctuations of the rotary cutter during the rising period, and some bubbles will adhere to the inner wall of the preparation barrel, making it impossible to achieve cutting and mixing.

[0006] In order to achieve the above-mentioned purpose, the present invention adopts the following technical scheme: a nano bubble hydrogen water production device, comprising the hydrogen production barrel, a condensation component is arranged at the bottom end of one side of the hydrogen production barrel, a dissolution preparation structure is arranged inside the hydrogen production barrel, the dissolution preparation structure comprises a motor, the motor is fixed at the top end of the hydrogen production barrel, the top end of the motor is transmission-connected with a rotating rod, the rotating rod passes through the hydrogen production barrel and is rotationally connected with the hydrogen production barrel, a reciprocating thread is opened at the top end of the rotating rod located inside the hydrogen production barrel, and a pressurizing component, a lifting and cutting component and a bubble removal component are arranged at the bottom end of the rotating rod located at the reciprocating thread.

[0007] As a preferred embodiment, the pressurizing assembly includes a pressurizing plate, the pressurizing plate is threadedly connected to the rotating rod at the reciprocating thread, the bottom end of the pressurizing plate is rotatably connected to a swivel, the swivel is arranged in multiple groups, the outer annular array of the pressurizing plate is slidably connected to a limiting rod, the limiting rod passes through the pressurizing plate, the bottom end of the limiting rod is fixedly connected to a stopper, the bottom end of the pressurizing plate and the water are in a sealed space, when hydrogen water is produced, the motor is started, the motor drives the rotating rod to rotate, the rotating rod drives the first fixed connection block and the second fixed connection block to rotate, and the pressurizing plate is driven downward by the reciprocating thread, because the pressurizing plate is tightly attached to the inner wall of the hydrogen production barrel, the hydrogen between the pressurizing plate and the water is pushed downward for compression when the pressurizing plate moves downward, and its pressure will cause the water to fluctuate, thereby increasing the uniform dispersion of the hydrogen in the water, and when the pressurizing plate rises, the water and hydrogen lose pressure and lift upward, so that they contact and fuse again, and move back and forth, so that the hydrogen that rises to the surface can be repeatedly fused.

[0008] As a preferred embodiment, the condensation component includes a water storage barrel, a top end of the water storage barrel away from the hydrogen production barrel is fixedly connected to a water inlet pipe, a top end of the water storage barrel close to the hydrogen production barrel is fixedly connected to a water delivery pipe, an end of the water storage barrel away from the hydrogen production barrel is fixedly connected to a control block, a condenser is arranged inside the water storage barrel, a staff adds water to the inside of the water storage barrel through the water inlet pipe, starts the control block, the condenser starts to cool and condense the water in the water storage barrel, and then discharges it into the inside of the hydrogen production barrel through the water delivery pipe, and the reciprocating thread is at the top of the reciprocating thread and stops when water is added to the bottom of the reciprocating thread.

[0009] As a preferred embodiment, the lifting and cutting assembly includes a first fixed connecting block, which is staggered up and down, and is equidistantly arranged and fixed at the bottom end of the pressure plate. The rotation of the rotating rod drives the first fixed connecting block to rotate, the first fixed connecting block drives the connecting head to rotate, the connecting head drives the fixed head to rotate, and the fixed head drives the cutter to rotate.

[0010] As a preferred embodiment, the outer wall of the first fixed connecting block is fixedly connected with a connecting head, the middle part of the connecting head is rotatably connected with a fixed head, and the end of the fixed head away from the first fixed connecting block is fixedly connected with a cutter, and the cutter rotary cuts the rising bubbles. Since the angles of each group of first fixed connecting blocks are staggered, the cutter rotary cuts more comprehensively.

[0011] As a preferred embodiment, a lifting connecting rod is provided at the top of the cutter away from the first fixed connecting block, and both ends of the lifting connecting rod are rotatably connected to connecting block plates, the connecting block plate at the top is fixedly connected to the inner swivel, and the connecting block plate at the bottom is fixedly connected to the cutter, and the rotation of the cutter drives the lifting connecting rod to rotate, and the lifting connecting rod rotates while stirring the rising bubbles again, and the top of the lifting connecting rod is connected to the swivel, so when the pressure plate reciprocates up and down, the lifting connecting rod can be pulled to reciprocate, thereby driving the cutter to rotate and deflect up and down at the same time, thereby increasing the range of rotary cutting and improving the dissolution efficiency of hydrogen.

[0012] As a preferred embodiment, the bubble removal assembly includes a second fixed connecting block, which is fixed at the bottom end of the rotating rod, and fixed scraper rods are fixedly connected to both sides of the second fixed connecting block, and the fixed scraper rods are slidably connected to the bottom end and inner wall of the hydrogen production barrel. As the pressure plate rises, water and hydrogen will fluctuate, thereby splashing on the inner wall of the hydrogen production barrel where the reciprocating thread is located. Therefore, when the pressure plate rises, the telescopic scraper rod will be pulled to extend from the fixed scraper rod, thereby removing the bubbles again.

[0013] As a preferred embodiment, a telescopic scraper rod is slidably connected to the inside of the top of the fixed scraper rod, and the top of the telescopic scraper rod is fixedly connected to the outermost swivel. Limiting grooves are provided on both sides of the vertical end of the fixed scraper rod, and the fixed scraper rod is slidably connected to a moving block at the limiting groove. The rotating rod drives the second fixed connection block to rotate, and the second fixed connection block drives the fixed scraper rod to rotate. The fixed scraper rod drives the telescopic scraper rod to rotate, and the telescopic scraper rod drives the outermost swivel to rotate. The fixed scraper rod rotates to scrape the inner wall of the hydrogen production barrel to remove bubbles adhering to the inner wall and improve the dissolution efficiency.

[0014] As a preferred embodiment, the moving block is fixedly connected to a fixed rod on one side close to the rotating rod, and a stirring blade is fixedly connected to the end of the fixed rod away from the moving block. A pull rod is fixedly connected to the middle part of the moving block, and the top of the pull rod is fixedly connected to the outer rotating ring. When the pressure plate rises, the pull rod can be driven up, and the pull rod drives the moving block to rise, and the moving block drives the stirring blade to move along the trajectory of the limiting slide groove. The position of the moving block is located between the interlaced cutting knives, and the moving block rotates synchronously with the cutting knife, so that the moving block can stir the rising bubbles and slow down the rising speed of the bubbles.

[0015] As a preferred embodiment, the bottom end of the hydrogen production barrel is fixedly connected to a drain pipe on one side away from the condensation component, the bottom end of the hydrogen production barrel located at the drain pipe is fixedly connected to an air inlet pipe, the end of the air inlet pipe located inside the hydrogen production barrel is fixedly connected to an air ring, the top annular array of the air ring is fixedly connected to a bubble nozzle, the bubble nozzle passes through the bottom end of the hydrogen production barrel, water is added to the hydrogen production barrel through a water pipe, and then the air inlet pipe is connected to the hydrogen discharge structure, hydrogen enters the air ring through the air inlet pipe, and then is ejected through the bubble nozzle, the ejected small bubbles rise rapidly, and are dissolved through the dissolution preparation structure.

[0016] The beneficial effects of the present invention are as follows:

[0017] 1. In the present invention, the control block is started, and the condenser begins to refrigerate and condense the water in the water storage barrel, so that the hydrogen can be quickly dissolved and then discharged into the interior of the hydrogen production barrel through the water pipe. The reciprocating thread is at the top of the reciprocating thread. When water is added to the bottom of the reciprocating thread, it stops. At this time, the bottom end of the pressure plate and the water are in a sealed space. When hydrogen water is produced, the motor is started, and the motor drives the rotating rod to rotate. The rotating rod drives the pressure plate to move downward through the reciprocating thread. Since the pressure plate is in close contact with the inner wall of the hydrogen production barrel, the pressure plate pushes the hydrogen between the pressure plate and the water to be compressed downward when it moves downward. The pressure will cause the water to fluctuate and increase the uniform dispersion of hydrogen in the water. When the pressure plate rises, the water and hydrogen lose pressure and rise upward, so that they contact and fuse again. The reciprocating movement can repeatedly fuse the hydrogen that rises to the surface.

[0018] 2. In the present invention, the angles of each group of first fixed connecting blocks are staggered, the rotation of the rotating rod drives the first fixed connecting block to rotate, the first fixed connecting block drives the connecting head to rotate, the connecting head drives the fixed head to rotate, the fixed head drives the cutter to rotate, the cutter cuts the rising bubbles, the rotation of the cutter drives the lifting connecting rod to rotate, and the lifting connecting rod rotates while stirring the rising bubbles again, and the top of the lifting connecting rod is connected to the swivel, so when the pressure plate reciprocates up and down, the lifting connecting rod can be pulled to reciprocate, thereby driving the cutter to rotate and deflect up and down at the same time, thereby increasing the range of rotary cutting and improving the dissolution efficiency of hydrogen.

[0019] 3. In the present invention, the rotating rod drives the second fixed connecting block to rotate, the second fixed connecting block drives the fixed scraper rod to rotate, the fixed scraper rod drives the telescopic scraper rod to rotate, and the telescopic scraper rod drives the outermost rotating ring to rotate, the fixed scraper rod rotates to scrape the inner wall of the hydrogen production barrel, removes the bubbles adhering to the inner wall, and improves the dissolution efficiency. As the pressure plate rises, water and hydrogen will fluctuate, thereby splashing on the inner wall of the hydrogen production barrel in the space where the reciprocating thread is located. Therefore, when the pressure plate rises, the telescopic scraper rod will be pulled to extend the telescopic scraper rod from the fixed scraper rod, thereby removing the bubbles again, and when the pressure plate rises, the pull rod can be driven to rise, and the pull rod drives the moving block to rise. The moving block drives the stirring blade to move along the trajectory of the limiting slide groove, and the position of the moving block is located between the interlaced positions of the cutters, and the moving block rotates synchronously with the cutter, so the moving block can stir the rising bubbles and slow down the rising speed of the bubbles. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 A schematic structural diagram of a nanobubble hydrogen water production device provided by the present invention;

[0021] Figure 2 A schematic cross-sectional structure diagram of a nanobubble hydrogen water production device provided by the present invention;

[0022] Figure 3 A schematic diagram of the dissolution preparation structure of a nanobubble hydrogen water production device provided by the present invention;

[0023] Figure 4 A schematic diagram of the structure of a pressurizing component of a nanobubble hydrogen water production device provided by the present invention;

[0024] Figure 5 A schematic diagram of the structure of a lifting and cutting assembly of a nano bubble hydrogen water production device provided by the present invention;

[0025] Figure 6 A schematic diagram of the fixed head structure of a nanobubble hydrogen water production device provided by the present invention;

[0026] Figure 7 A nano bubble hydrogen water production device provided by the present invention Figure 6 A is an enlarged structural diagram;

[0027] Figure 8 A schematic diagram of the structure of a bubble removal component of a nanobubble hydrogen water production device provided by the present invention;

[0028] Legend:

[0029] 1. Hydrogen production barrel; 11. Drain pipe; 12. Air inlet pipe; 13. Air ring; 14. Bubble nozzle; 21. Motor; 22. Rotating rod; 23. Reciprocating thread; 24. Pressure plate; 241. Limiting rod; 242. Stopper; 243. Rotating ring; 25. First fixed connecting block; 251. Connecting head; 252. Fixed head; 253. Cutter; 254. Lifting connecting rod; 255. Connecting block; 26. Second fixed connecting block; 261. Fixed scraper rod; 262. Telescopic scraper rod; 263. Limiting slide groove; 264. Moving block; 265. Fixed rod; 266. Stirring blade; 267. Pull rod; 31. Water storage barrel; 32. Water inlet pipe; 33. Water delivery pipe; 34. Control block; 35. Condenser. DETAILED DESCRIPTION

[0030] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0031] See also Figure 1 - Figure 8 The present invention provides a technical solution: a nano bubble hydrogen water production device, comprising a hydrogen production barrel 1, a condensation component is arranged at the bottom end of one side of the hydrogen production barrel 1, a dissolution preparation structure is arranged inside the hydrogen production barrel 1, and the dissolution preparation structure comprises a motor 21, the motor 21 is fixed at the top end of the hydrogen production barrel 1, the top end of the motor 21 is transmission-connected with a rotating rod 22, the rotating rod 22 penetrates the hydrogen production barrel 1, and is rotatably connected with the hydrogen production barrel 1, the top end of the rotating rod 22 located inside the hydrogen production barrel 1 is provided with a reciprocating thread 23, the bottom end of the rotating rod 22 located at the reciprocating thread 23 is provided with a pressurizing component, a lifting and cutting component and a bubble removal component, a side of the bottom end of the hydrogen production barrel 1 away from the condensation component is fixedly connected with a drain pipe 11, the bottom end of the hydrogen production barrel 1 located at the drain pipe 11 is fixedly connected with an air intake pipe 12, one end of the air intake pipe 12 located inside the hydrogen production barrel 1 is fixedly connected with an air ring 13, and the top annular array of the air ring 13 is fixedly connected with a bubble nozzle 14, and the bubble nozzle 14 penetrates the bottom end of the hydrogen production barrel 1.

[0032] In this embodiment, water is added to the hydrogen production barrel 1 through the water pipe 33, and then the air inlet pipe 12 is connected to the hydrogen discharge structure. Hydrogen enters the air ring 13 through the air inlet pipe 12 and is then ejected through the bubble nozzle 14. The ejected small bubbles rise rapidly and are dissolved through the dissolution preparation structure.

[0033] like Figure 1 - Figure 8As shown, the pressurizing assembly includes a pressurizing plate 24, which is threadedly connected to the rotating rod 22 at the reciprocating thread 23, and the bottom end of the pressurizing plate 24 is rotatably connected to a swivel 243, and a plurality of swivels 243 are arranged. The outer annular array of the pressurizing plate 24 is slidably connected to a limiting rod 241, and the limiting rod 241 passes through the pressurizing plate 24, and the bottom end of the limiting rod 241 is fixedly connected to a stopper 242. The condensing assembly includes a water storage barrel 31, and the top of the water storage barrel 31 away from the hydrogen production barrel 1 is fixedly connected to a water inlet pipe 32, and the top of the water storage barrel 31 close to the hydrogen production barrel 1 is fixedly connected to a water supply pipe 33, and the end of the water storage barrel 31 away from the hydrogen production barrel 1 is fixedly connected to a control block 34, and a condensing pipe 35 is arranged inside the water storage barrel 31.

[0034] In this embodiment, the staff adds water to the inside of the water storage barrel 31 through the water inlet pipe 32, starts the control block 34, and the condenser 35 starts to refrigerate and condense the water in the water storage barrel 31, and then discharges it into the inside of the hydrogen production barrel 1 through the water delivery pipe 33, and the reciprocating thread 23 is at the top of the reciprocating thread 23. When the water is added to the bottom of the reciprocating thread 23, it stops. At this time, the bottom end of the pressure plate 24 and the water are in a sealed space. When hydrogen water is produced, the motor 21 is started, and the motor 21 drives the rotating rod 22 to rotate, and the rotating rod 22 drives the first fixed connection block 25 and the second fixed connection block 26 to rotate, and drives the pressure plate 24 to move downward through the reciprocating thread 23. Since the pressure plate 24 is in close contact with the inner wall of the hydrogen production barrel 1, the hydrogen between the pressure plate 24 and the water is compressed downward when the pressure plate 24 moves downward. The pressure will cause the water to fluctuate, and increase the uniform dispersion of hydrogen in the water. When the pressure plate 24 rises, the water and hydrogen lose pressure and rise upward, so that they contact and fuse again. The reciprocating movement can repeatedly fuse the hydrogen that rises to the surface.

[0035] like Figure 1 - Figure 8 As shown, the lifting and cutting assembly includes a first fixed connecting block 25, which is staggered up and down, and is equidistantly arranged and fixed at the bottom end of the pressure plate 24. The outer wall of the first fixed connecting block 25 is fixedly connected with a connecting head 251, and the middle part of the connecting head 251 is rotatably connected with a fixed head 252, and the end of the fixed head 252 away from the first fixed connecting block 25 is fixedly connected with a cutter 253, and the top of the cutter 253 away from the first fixed connecting block 25 is provided with a lifting connecting rod 254, and both ends of the lifting connecting rod 254 are rotatably connected with a connecting block plate 255, the top connecting block plate 255 is fixedly connected to the inner swivel 243, and the bottom connecting block plate 255 is fixedly connected to the cutter 253.

[0036] In this embodiment, the rotation of the rotating rod 22 drives the first fixed connecting block 25 to rotate, the first fixed connecting block 25 drives the connecting head 251 to rotate, the connecting head 251 drives the fixed head 252 to rotate, the fixed head 252 drives the cutter 253 to rotate, the cutter 253 peels and cuts the rising bubbles, and since each group of first fixed connecting blocks 25 is arranged at an angle staggered, the cutter 253 peels and cuts more comprehensively, and the rotation of the cutter 253 drives the lifting connecting rod 254 to rotate, and the lifting connecting rod 254 rotates while stirring the rising bubbles again, and the top of the lifting connecting rod 254 is connected to the rotating ring 243 Therefore, when the pressure plate 24 reciprocates up and down, the lifting connecting rod 254 can be pulled to reciprocate, thereby driving the cutter 253 to rotate and deflect up and down at the same time, thereby increasing the range of peeling and improving the dissolution efficiency of hydrogen. The rotating rod 22 drives the second fixed connecting block 26 to rotate, and the second fixed connecting block 26 drives the fixed scraper rod 261 to rotate. The fixed scraper rod 261 drives the telescopic scraper rod 262 to rotate, and the telescopic scraper rod 262 drives the outermost rotating ring 243 to rotate. The fixed scraper rod 261 rotates to scrape the inner wall of the hydrogen production barrel 1 to remove the bubbles adhering to the inner wall and improve the dissolution efficiency.

[0037] like Figure 1 - Figure 8 As shown, the bubble removal assembly includes a second fixed connecting block 26, which is fixed at the bottom end of the rotating rod 22, and fixed scraper rods 261 are fixedly connected on both sides of the second fixed connecting block 26, and the fixed scraper rods 261 are slidably connected to the bottom end and the inner wall of the hydrogen production barrel 1, and a telescopic scraper rod 262 is slidably connected to the top of the fixed scraper rod 261, and the top of the telescopic scraper rod 262 is fixedly connected to the outermost rotating ring 243, and limited sliding grooves 263 are provided on both sides of the vertical end of the fixed scraper rod 261, and the fixed scraper rod 261 is slidably connected to a moving block 264 at the limited sliding groove 263, and the moving block 264 is fixedly connected to a fixed rod 265 on the side close to the rotating rod 22, and a stirring blade 266 is fixedly connected to the end of the fixed rod 265 away from the moving block 264, and a pull rod 267 is fixedly connected to the middle of the moving block 264, and the top of the pull rod 267 is fixedly connected to the outer rotating ring 243.

[0038] In this embodiment, as the pressure plate 24 rises, water and hydrogen will fluctuate, thereby splashing on the inner wall of the hydrogen production barrel 1 in the space where the reciprocating thread 23 is located. Therefore, when the pressure plate 24 rises, the telescopic scraper rod 262 will be pulled to extend from the fixed scraper rod 261, thereby clearing the bubbles again, and when the pressure plate 24 rises, the pull rod 267 can be driven to rise, and the pull rod 267 drives the moving block 264 to rise, and the moving block 264 drives the stirring blade 266 to move along the trajectory of the limiting slide groove 263, and the position of the moving block 264 is located between the interlaced positions of the cutter 253, and the moving block 264 rotates synchronously with the cutter 253, so the moving block 264 can stir the rising bubbles and slow down the rising speed of the bubbles.

[0039] Working principle: First, the staff adds water to the water storage barrel 31 through the water inlet pipe 32, starts the control block 34, and the condenser 35 starts to refrigerate and condense the water in the water storage barrel 31, and then discharges it into the hydrogen production barrel 1 through the water delivery pipe 33, and the reciprocating thread 23 is at the top of the reciprocating thread 23. When the water is added to the bottom of the reciprocating thread 23, it stops. At this time, the bottom end of the pressure plate 24 and the water are in a sealed space. When producing hydrogen water, start the motor 21, the motor 21 drives the rotating rod 22 to rotate, the rotating rod 22 drives the first fixed connecting block 25 and the second fixed connecting block 26 to rotate, and drives the pressure plate 24 to move downward through the reciprocating thread 23. Since the pressure plate 24 is in close contact with the inner wall of the hydrogen production barrel 1, When the pressure plate 24 moves downward, the hydrogen between the pressure plate 24 and the water is pushed downward for compression, and its pressure will cause the water to fluctuate, increasing the uniform dispersion of the hydrogen in the water. When the pressure plate 24 rises, the water and hydrogen lose pressure and rise upward, thereby contacting and fusing again. The reciprocating movement can repeatedly fuse the hydrogen that rises to the surface, and then the rotating rod 22 rotates to drive the first fixed connection block 25 to rotate, the first fixed connection block 25 drives the connecting head 251 to rotate, the connecting head 251 drives the fixed head 252 to rotate, the fixed head 252 drives the cutter 253 to rotate, and the cutter 253 peels and cuts the rising bubbles. Since each group of the first fixed connection blocks 25 is arranged at an angle staggered, the peeling of the cutter 253 is more comprehensive, and the rotation of the cutter 253 drives the lifting connecting rod 25 4 rotates, and the lifting connecting rod 254 rotates and stirs the rising bubbles again, and the top of the lifting connecting rod 254 is connected to the rotating ring 243, so when the pressure plate 24 reciprocates up and down, the lifting connecting rod 254 can be pulled to move back and forth, thereby driving the cutter 253 to rotate and deflect up and down, thereby increasing the range of peeling and improving the dissolution efficiency of hydrogen. The rotating rod 22 drives the second fixed connecting block 26 to rotate, and the second fixed connecting block 26 drives the fixed scraper rod 261 to rotate, and the fixed scraper rod 261 drives the telescopic scraper rod 262 to rotate, and the telescopic scraper rod 262 drives the outermost rotating ring 243 to rotate, and the fixed scraper rod 261 rotates to scrape the inner wall of the hydrogen production barrel 1 to remove the bubbles adhering to the inner wall, thereby improving the dissolution efficiency. As the pressure plate 24 rises, water and hydrogen will fluctuate and splash on the inner wall of the hydrogen production barrel 1 in the space where the reciprocating thread 23 is located. Therefore, when the pressure plate 24 rises, the telescopic scraper rod 262 will be pulled to extend from the fixed scraper rod 261, thereby clearing the bubbles again. When the pressure plate 24 rises, the pull rod 267 can be driven to rise, and the pull rod 267 drives the moving block 264 to rise. The moving block 264 drives the stirring blade 266 to move along the trajectory of the limiting slide groove 263. The position of the moving block 264 is between the interlaced positions of the cutter 253, and the moving block 264 rotates synchronously with the cutter 253. Therefore, the moving block 264 can stir the rising bubbles and slow down the rising speed of the bubbles.

[0040] The above description is only a preferred embodiment of the present invention and does not limit the present invention in other forms. Any technician familiar with the profession may use the technical content disclosed above to change or modify it into an equivalent embodiment with equivalent changes and apply it to other fields. However, any simple modification, equivalent change and modification made to the above embodiment based on the technical essence of the present invention without departing from the content of the technical solution of the present invention still falls within the protection scope of the technical solution of the present invention.

Claims

1. A nanobubble hydrogen water production device, comprising the hydrogen production barrel (1), characterized in that: A condensation component is arranged at the bottom end of one side of the hydrogen production barrel (1), and a dissolution preparation structure is arranged inside the hydrogen production barrel (1). The dissolution preparation structure comprises a motor (21), and the motor (21) is fixed at the top end of the hydrogen production barrel (1). The top end of the motor (21) is connected to a rotating rod (22), and the rotating rod (22) passes through the hydrogen production barrel (1) and is rotatably connected to the hydrogen production barrel (1). A reciprocating thread (23) is provided at the top end of the rotating rod (22) located inside the hydrogen production barrel (1), and a pressurizing component, a lifting and cutting component, and a bubble removal component are arranged at the bottom end of the rotating rod (22) located at the reciprocating thread (23).

2. A nanobubble hydrogen water production device according to claim 1, characterized in that: The pressurizing assembly comprises a pressurizing plate (24), wherein the pressurizing plate (24) is threadedly connected to the rotating rod (22) at the reciprocating thread (23), the bottom end of the pressurizing plate (24) is rotatably connected to a rotating ring (243), and the rotating ring (243) is provided in multiple groups, and the outer annular array of the pressurizing plate (24) is slidably connected to a limiting rod (241), the limiting rod (241) passes through the pressurizing plate (24), and the bottom end of the limiting rod (241) is fixedly connected to a stopper (242).

3. A nanobubble hydrogen water production device according to claim 1, characterized in that: The condensation assembly comprises a water storage barrel (31), the top of the water storage barrel (31) away from the hydrogen production barrel (1) is fixedly connected to a water inlet pipe (32), the top of the water storage barrel (31) close to the hydrogen production barrel (1) is fixedly connected to a water delivery pipe (33), the end of the water storage barrel (31) away from the hydrogen production barrel (1) is fixedly connected to a control block (34), and a condensing pipe (35) is arranged inside the water storage barrel (31).

4. A nanobubble hydrogen water production device according to claim 1, characterized in that: The lifting and cutting assembly comprises first fixed connection blocks (25), the first fixed connection blocks (25) are arranged alternately up and down, and the first fixed connection blocks (25) are arranged equidistantly and fixed at the bottom end of the pressure plate (24).

5. A nanobubble hydrogen water production device according to claim 4, characterized in that: A connecting head (251) is fixedly connected to the outer wall of the first fixed connecting block (25), a fixed head (252) is rotatably connected to the middle of the connecting head (251), and a cutter (253) is fixedly connected to one end of the fixed head (252) away from the first fixed connecting block (25).

6. A nanobubble hydrogen water production device according to claim 5, characterized in that: A lifting connecting rod (254) is provided at the top end of the cutter (253) away from the first fixed connecting block (25), and both ends of the lifting connecting rod (254) are rotatably connected to connecting block plates (255), the top end of the connecting block plate (255) is fixedly connected to the inner rotating ring (243), and the bottom end of the connecting block plate (255) is fixedly connected to the cutter (253).

7. A nanobubble hydrogen water production device according to claim 1, characterized in that: The bubble removal assembly comprises a second fixed connection block (26), the second fixed connection block (26) is fixed to the bottom end of the rotating rod (22), and fixed scraper rods (261) are fixedly connected to both sides of the second fixed connection block (26), and the fixed scraper rods (261) are slidably connected to the bottom end and inner wall of the hydrogen production barrel (1).

8. A nanobubble hydrogen water production device according to claim 7, characterized in that: A telescopic scraper rod (262) is slidably connected to the interior of the top end of the fixed scraper rod (261); the top end of the telescopic scraper rod (262) is fixedly connected to the outermost rotating ring (243); limiting sliding grooves (263) are provided on both sides of the vertical end of the fixed scraper rod (261); and a moving block (264) is slidably connected to the fixed scraper rod (261) at the limiting sliding groove (263).

9. A nanobubble hydrogen water production device according to claim 8, characterized in that: A fixed rod (265) is fixedly connected to one side of the moving block (264) close to the rotating rod (22), a stirring blade (266) is fixedly connected to one end of the fixed rod (265) away from the moving block (264), a pull rod (267) is fixedly connected to the middle of the moving block (264), and the top end of the pull rod (267) is fixedly connected to the outer rotating ring (243).

10. The nanobubble hydrogen water production device according to claim 1, characterized in that: A drainage pipe (11) is fixedly connected to the side of the bottom end of the hydrogen production barrel (1) away from the condensation component, an air intake pipe (12) is fixedly connected to the bottom end of the hydrogen production barrel (1) located on the drainage pipe (11), an air intake pipe (12) is fixedly connected to one end of the air intake pipe (12) located inside the hydrogen production barrel (1), a bubble nozzle (14) is fixedly connected to the top annular array of the air ring (13), and the bubble nozzle (14) passes through the bottom end of the hydrogen production barrel (1).

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