A hydrogen-rich water production device

Abstract

The present invention relates to the technical field of hydrogen-rich water production, and discloses a hydrogen-rich water production equipment, including a production equipment body, a hydrogen-rich water circulation pump, an electrolysis device, and a catalyst injection device. The production equipment body is a transverse cylindrical structure with flanges welded at both ends. The outer end of the flange is installed with a sealing plate by bolts, and mounting ends are installed and distributed in a circular array between the sealing plates. The inner end of the mounting end is installed with an end pipe, and an ultraviolet lamp is installed between the end pipes. The top of the production equipment body is connected to a water inlet pipe near the right end, and the front two ends of the production equipment body are respectively connected to a circulation inlet pipe and a circulation outlet pipe, and the hydrogen-rich water circulation pump is connected between the pumping pipe and the pump water pipe; the bottom two ends of the electrolysis device are fixedly distributed with electrolysis channel one and electrolysis channel two, and the catalyst injection device is connected through the top of the production equipment body near the left end. The present invention can greatly improve the efficiency of hydrogen-rich water production by combining ultraviolet method, electrolysis method and catalytic method.

Description

Technical Field

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

[0002] Hydrogen-rich water is water containing a certain concentration of hydrogen. Hydrogen is a colorless, odorless, diatomic gas molecule with a density lower than that of air and is insoluble in water. Hydrogen-rich water is essentially not much different from ordinary water. Its special feature is the trace amount of hydrogen molecules it contains. Its antioxidant effect may help reduce retinal damage and photoreceptor cell death, thereby alleviating the symptoms of glaucoma. It also helps to scavenge free radicals, detoxify and beautify the skin, promote metabolism, improve constipation, enhance the body's resistance to disease, and improve chronic inflammation.

[0003] Existing hydrogen-rich water production equipment only uses a single ultraviolet method, electrolysis method or catalytic method. The efficiency of producing hydrogen-rich water is very low, the production cycle is long, and the quality of the produced hydrogen-rich water is low, making it difficult to quickly promote and use. Therefore, it is necessary to design a corresponding technical solution to solve this problem. Summary of the invention

[0004] 1. Technical issues to be resolved

[0005] In view of the shortcomings of the prior art, the present invention provides a hydrogen-rich water production device, which solves the technical problems that the efficiency of producing hydrogen-rich water by using a single ultraviolet method, electrolysis method or catalytic method is very low, the production time cycle is long, the quality of the produced hydrogen-rich water is low, and it is difficult to quickly promote and use.

[0006] (II) Technical solution

[0007] To achieve the above objectives, the present invention is implemented through the following technical solutions: a hydrogen-rich water production equipment, including a production equipment body, a hydrogen-rich water circulation pump, an electrolysis device and a catalyst feeding device, the production equipment body is a transverse cylindrical structure and has flanges welded at both ends, the outer end of the flange is installed with a sealing plate by bolts, and mounting ends are installed and distributed in a circular array between the sealing plates, the inner ends of the mounting ends are installed with end pipes, and ultraviolet lamps are installed between the end pipes, the front and rear ends of the inner side of the flange are welded with an inverted L-shaped support frame, the bottom of the support frame is welded with a bottom plate, the top of the production equipment body is connected to a water inlet pipe near the right end, and the middle of the bottom of the production equipment body is connected to a drain pipe;

[0008] The two ends of the front part of the production equipment body are respectively connected with a circulation inlet pipe and a circulation outlet pipe, and the circulation inlet pipe and the circulation outlet pipe are both L-shaped tubular structures. The right end of the circulation inlet pipe is connected with a water pumping pipe, and the left end of the circulation outlet pipe is connected with a water pumping pipe. The hydrogen-rich water circulation pump is connected between the water pumping pipe and the water pumping pipe.

[0009] The two ends of the bottom of the electrolysis device are fixedly provided with an electrolysis channel 1 and an electrolysis channel 2, and the electrolysis channel 1 and the electrolysis channel 2 are arranged through the middle of the top of the production equipment body;

[0010] The catalyst feeding device is connected through the top of the production equipment body near the left end, and a feed port is fixedly provided on the top of the catalyst feeding device, and a feeding cover is provided above the feed port.

[0011] Preferably, a base is welded at the bottom of the hydrogen-rich water circulation pump, an extension plate is welded at the bottom of the base, and the extension plate is welded to the middle of the front end of the bottom plate; the base is used to stably support the hydrogen-rich water circulation pump, and the extension plate and the bottom plate are an integrated structure with high structural strength;

[0012] The inner end of the circulation inlet pipe is connected to an extension pipe, which is an italic structure and a transverse pipe is connected to the right end. A connecting pipe is distributed at the bottom of the transverse pipe. A water absorption ball head is installed at the bottom of the connecting pipe. Suction holes are opened and distributed around the bottom of the water absorption ball head. The water absorption ball head is located at the bottom of the production equipment body. There are several water absorption ball heads. The extension pipe is used to connect the circulation inlet pipe and the transverse pipe. The transverse pipe is located at the bottom of the production equipment body to facilitate the extraction of hydrogen-rich water below. Multiple groups of connecting pipes and water absorption ball heads are used to evenly extract hydrogen-rich water over a large area, so that the mixing is more sufficient. Multiple suction holes are used to quickly and effectively absorb hydrogen-rich water.

[0013] Preferably, a control panel is electrically connected to the front of the electrolysis device, and both ends of the inside of the electrolysis device are electrically connected to the electrolysis control device. The bottom of the electrolysis control device is electrically connected to an electrolysis anode plate and an electrolysis cathode plate, respectively. The electrolysis anode plate and the electrolysis cathode plate are respectively arranged inside the electrolysis channel one and the electrolysis channel two, and the electrolysis anode plate and the electrolysis cathode plate extend into the upper part of the interior of the production equipment body, and an oxygen exhaust pipe is connected to the upper part of the electrolysis channel two, and the oxygen exhaust pipe is connected to the middle of the rear of the electrolysis device; the control panel is used for intelligently controlling the electrolysis control device, and the electrolysis control device is used for electrically controlling the electrolysis anode plate and the electrolysis cathode plate. The electrolysis anode plate and the electrolysis cathode plate are used to electrolyze water inside the electrolysis channel one and the electrolysis channel two, and the oxygen exhaust pipe is located above the electrolysis channel two, and is used to discharge oxygen generated by electrolysis of the electrolysis cathode plate.

[0014] Preferably, the bottom of the delivery cover is an open structure, and the inner diameter of the delivery cover is larger than the outer diameter of the feed port, and an O-ring is bonded around the inner top of the delivery cover; the delivery cover with an open structure is used to cover the top of the feed port, and the O-ring is used to seal and waterproof the back.

[0015] Preferably, a catalyst barrel is fixedly provided at the middle of the bottom of the delivery cover, and the catalyst barrel is a ring tube structure. A feed pipe is connected to one side of the upper end of the catalyst barrel, and the upper part of the feed pipe is an inclined tube structure and a delivery port is welded on the upper part, and the delivery port is a flared structure; the catalyst barrel is used to store catalyst materials, and the feed pipe and the delivery port are used to directly deliver catalyst materials, which is easy to operate, simple in structure and low in cost.

[0016] Preferably, a push rod is connected through the middle of the delivery cover, an electric push rod device is connected above the push rod, a bracket is welded between the front and rear of the electric push rod device and the upper end surface of the delivery cover, a baffle is welded to the bottom of the push rod, the diameter of the baffle is larger than the diameter of the catalyst barrel, a rubber pad is bonded to the upper end surface of the baffle, and the bracket is a T-shaped structure; the T-shaped bracket is used to fix the electric push rod device on the upper end surface of the delivery cover, the electric push rod device is used to automatically control the lifting and lowering adjustment of the push rod, the push rod is used to drive the baffle to adjust up and down, the baffle is used to block the bottom of the catalyst barrel so as to block the catalyst, the height can be adjusted to adjust the feed amount, and the rubber pad is used for efficient sealing.

[0017] (III) Beneficial effects

[0018] Compared with the prior art, the present invention has the following beneficial effects: by combining the three aspects of ultraviolet method, electrolysis method and catalytic method, the efficiency of hydrogen-rich water production can be greatly improved; the structure is sophisticated and efficient, the degree of automation is high, and multi-directional continuous processing and production are achieved, which saves time and shortens the production cycle; the hydrogen-rich water can be circulated and mixed for treatment through the circulation mechanism connected at both ends of the front part of the production equipment body, thereby further improving the quality of hydrogen-rich water production; however, by irradiating water with ultraviolet rays, the hydrogen in the water is excited, the hydrogen bonds in the water molecules can be broken, and the hydrogen is released; the water is decomposed into hydrogen and oxygen through the electrolysis device, and the hydrogen ions in the water are reduced to hydrogen to form hydrogen-rich water; the hydrogen generation reaction in the water is accelerated by using a catalyst to increase the hydrogen concentration of the hydrogen-rich water; the hydrogen in the water is adsorbed by the catalyst to generate hydrogen-rich water; the safety is high, the production volume is large, and it is easy to promote and use. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the overall front three-dimensional structure of the present invention;

[0020] Figure 2 It is a schematic diagram of the overall rear three-dimensional structure of the present invention;

[0021] Figure 3 It is a schematic diagram of the cross-sectional structure at the middle of the present invention;

[0022] Figure 4 It is a schematic diagram of the structure of the internal ultraviolet lamp tube of the present invention;

[0023] Figure 5 This is a schematic diagram of the upper structure of the catalyst feeding device of the present invention;

[0024] Figure 6 This is a schematic diagram of the structure below the catalyst feeding device of the present invention;

[0025] Figure 7 It is a schematic diagram of the internal structure of the circulation mechanism of the present invention;

[0026] Figure 8 It is a schematic diagram of the internal structure of the circulation mechanism of the present invention from another angle;

[0027] Fig. 9 It is a schematic diagram of the structure of the other end inside the circulation mechanism of the present invention;

[0028] Fig.10 For the present invention Fig. 9 Enlarged structural diagram at A in the middle.

[0029] In the figure, 1. production equipment body; 11. flange; 12. sealing plate; 13. water inlet pipe; 14. support frame; 15. bottom plate; 16. ultraviolet lamp; 161. installation end; 162. end pipe; 17. drainage pipe; 2. hydrogen-rich water circulation pump; 21. base; 211. extension plate; 22. water pumping pipe; 221. circulation inlet pipe; 222. extension pipe; 223. horizontal pipe; 23. pump water pipe; 231. circulation outlet pipe; 24. water absorption ball head; 241 , connecting pipe; 242, suction hole; 3, electrolysis device; 31, electrolysis channel one; 32, electrolysis channel two; 33, oxygen discharge pipe; 34, electrolysis anode plate; 341, electrolysis cathode plate; 342, electrolysis control device; 4, catalyst feeding device; 401, feed port; 41, feeding cover; 411, catalyst barrel; 412, feed pipe; 413, feeding port; 414, electric push rod device; 415, push rod; 416, baffle; 417, bracket. 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 10The embodiment of the present invention provides a technical solution: a hydrogen-rich water production equipment, including a production equipment body 1, a hydrogen-rich water circulation pump 2, an electrolysis device 3 and a catalyst feeding device 4, the production equipment body 1 is a transverse cylindrical structure and has flanges 11 welded at both ends, the outer end of the flange 11 is bolted with a sealing plate 12, the sealing plate 12 can seal the production equipment body 1 to prevent water leakage, and the sealing plates 12 are installed and distributed in a circular array with mounting ends 161, the inner end of the mounting end 161 is installed with an end pipe 162, and an ultraviolet lamp tube 16 is installed between the end pipes 162. The front and rear ends of the inner side of the flange 11 are welded with an inverted L-shaped support frame 14, the support frame 14 is used to stably support the production equipment body 1 as a whole, and the bottom of the support frame 14 is welded with a bottom plate 15. The top of the production equipment body 1 is connected to a water inlet pipe 13 near the right end, and the middle of the bottom of the production equipment body 1 is connected to a drain pipe 17, and the upper side of the drain pipe 17 is connected to a ball valve;

[0032] The two ends of the front part of the production equipment body 1 are respectively connected with a circulation inlet pipe 221 and a circulation outlet pipe 231. Both the circulation inlet pipe 221 and the circulation outlet pipe 231 are L-shaped tubular structures, which are convenient for circulating water downward. The right end of the circulation inlet pipe 221 is connected with a pumping pipe 22, and the left end of the circulation outlet pipe 231 is connected with a pumping pipe 23. The hydrogen-rich water circulation pump 2 is connected between the pumping pipe 22 and the pumping pipe 23.

[0033] The two ends of the bottom of the electrolysis device 3 are fixedly provided with an electrolysis channel 1 31 and an electrolysis channel 2 32. The electrolysis channel 1 31 and the electrolysis channel 2 32 are arranged through the middle of the top of the production equipment body 1.

[0034] The catalyst feeding device 4 is connected through the top of the production equipment body 1 near the left end. A feed port 401 is fixedly provided on the top of the catalyst feeding device 4. A feeding cover 41 is provided above the feed port 401 to facilitate the feeding of catalyst and to seal it to prevent volatilization.

[0035] By combining the ultraviolet method, the electrolysis method and the catalytic method, the efficiency of hydrogen-rich water production can be greatly improved. The structure is sophisticated and efficient, the degree of automation is high, and multi-directional continuous processing and production are achieved, which saves time and shortens the production cycle. The hydrogen-rich water can be circulated and mixed through the circulation mechanism connected at both ends of the front part of the production equipment body, which further improves the quality of hydrogen-rich water production. However, by irradiating water with ultraviolet rays, the hydrogen in the water is stimulated, the hydrogen bonds in the water molecules can be broken, and the hydrogen is released. The water is decomposed into hydrogen and oxygen through the electrolysis device, and the hydrogen ions in the water are reduced to hydrogen to form hydrogen-rich water. The hydrogen generation reaction in the water is accelerated by using a catalyst to increase the hydrogen concentration of the hydrogen-rich water. The hydrogen in the water is adsorbed by the catalyst to generate hydrogen-rich water. It has high safety, large production volume, and is easy to promote and use.

[0036] As a further improvement, a base 21 is welded to the bottom of the hydrogen-rich water circulation pump 2, an extension plate 211 is welded to the bottom of the base 21, and the extension plate 211 is welded to the middle of the front end of the bottom plate 15;

[0037] The base 21 is used to stably support the hydrogen-rich water circulation pump 2. The extension plate 211 and the bottom plate 15 are an integrated structure with high structural strength.

[0038] The inner end of the circulation inlet pipe 221 is connected with an extension pipe 222, which is an italic structure and is connected with a transverse pipe 223 at the right end. The bottom of the transverse pipe 223 is connected with a connecting pipe 241, and a water absorption ball head 24 is installed at the bottom of the connecting pipe 241. Suction holes 242 are arranged around the lower part of the water absorption ball head 24. The water absorption ball head 24 is located at the lower part of the production equipment body 1, and the number of the water absorption ball heads 24 is several;

[0039] The extension pipe 222 is used to connect the circulation inlet pipe 221 and the cross pipe 223. The cross pipe 223 is located at the lower part of the production equipment body 1 to facilitate the extraction of hydrogen-rich water below. Multiple groups of connecting pipes 241 and water absorption ball heads 24 are used to evenly extract hydrogen-rich water over a large area to make the mixing more complete. Multiple suction holes 242 are used to quickly and effectively absorb hydrogen-rich water.

[0040] In a further improvement, the front of the electrolysis device 3 is electrically connected to a control panel, the two ends of the electrolysis device 3 are electrically connected to an electrolysis control device 342, the bottom of the electrolysis control device 342 is electrically connected to an electrolysis anode plate 34 and an electrolysis cathode plate 341, respectively, the electrolysis anode plate 34 and the electrolysis cathode plate 341 are respectively arranged inside the electrolysis channel 1 31 and the electrolysis channel 2 32, and the electrolysis anode plate 34 and the electrolysis cathode plate 341 extend into the upper part of the interior of the production equipment body 1, the upper part of the electrolysis channel 2 32 is connected to an oxygen exhaust pipe 33, and the oxygen exhaust pipe 33 is connected to the middle of the rear of the electrolysis device 3;

[0041] The control panel is used for intelligently controlling the electrolysis control device 342, and the electrolysis control device 342 is used for electrically controlling the electrolysis anode plate 34 and the electrolysis cathode plate 341. The electrolysis anode plate 34 and the electrolysis cathode plate 341 are used for electrolyzing water inside the electrolysis channel 1 31 and the electrolysis channel 2 32. The oxygen exhaust pipe 33 is located above the electrolysis channel 2 32, and is used for exhausting the oxygen generated by the electrolysis of the electrolysis cathode plate 341.

[0042] As a further improvement, the lower part of the delivery cover 41 is an open structure, and the inner diameter of the delivery cover 41 is larger than the outer diameter of the feed port 401, and an O-ring is bonded around the inner top of the delivery cover 41;

[0043] The delivery cover 41 of the open structure is used to cover and seal the top of the feed inlet 401, and the O-ring is used to seal and waterproof the back.

[0044] As a further improvement, a catalyst barrel 411 is fixedly provided at the middle of the bottom of the delivery cover 41. The catalyst barrel 411 is a ring tube structure. A feed pipe 412 is connected through one side of the upper end of the catalyst barrel 411. The upper part of the feed pipe 412 is an inclined tube structure and a delivery port 413 is welded on the upper part. The delivery port 413 is a flared structure.

[0045] The catalyst barrel 411 is used to store catalyst materials, and the feed pipe 412 and the delivery port 413 are used to directly deliver the catalyst materials, which is convenient to operate, simple in structure and low in cost.

[0046] Specifically, a push rod 415 is connected through the middle of the delivery cover 41, an electric push rod device 414 is connected above the push rod 415, a bracket 417 is welded between the front and rear of the electric push rod device 414 and the upper end surface of the delivery cover 41, a baffle 416 is welded to the bottom of the push rod 415, the diameter of the baffle 416 is larger than the diameter of the catalyst barrel 411, a rubber pad is bonded to the upper end surface of the baffle 416, and the bracket 417 is a T-shaped structure;

[0047] The T-shaped bracket 417 is used to fix the electric push rod device 414 on the upper end surface of the delivery cover 41, and the electric push rod device 414 is used to automatically control the lifting and lowering adjustment of the push rod 415. The push rod 415 is used to drive the baffle 416 to adjust up and down. The baffle 416 is used to block the bottom of the catalyst barrel 411 to shield the catalyst. The height can be adjusted to adjust the feed amount, and the rubber pad is used for efficient sealing.

[0048] Working principle: First, keep the drain pipe 17 closed, install the water pipe on the water inlet pipe 13 to inject water into the production equipment body 1;

[0049] Start the hydrogen-rich water circulation pump 2, so that the multiple connecting pipes 241 and the water absorption ball head 24 below the horizontal pipe 223 absorb water through the suction hole 242, so that the hydrogen-rich water at the bottom of the inner side of the production equipment body 1 is sucked, and is pumped into the hydrogen-rich water circulation pump 2 through the circulation inlet pipe 221 and the water suction pipe 22, and then pumped into the production equipment body 1 through the pump pipe 23 and the circulation outlet pipe 231, and the circulating hydrogen-rich water improves the quality of hydrogen-rich water production;

[0050] The electrolysis control device 342 in the electrolysis device 3 is started to control the electrolysis anode plate 34 and the electrolysis cathode plate 341 in the electrolysis channel 1 31 and the electrolysis channel 2 32 respectively, to decompose water into hydrogen and oxygen. One is the anode plate for producing hydrogen-rich water, and the other is the cathode plate for producing oxygen. In the anode part, the hydrogen ions (H+) in the water are reduced to hydrogen (H2) to form hydrogen-rich water. By controlling the electrolysis time and the current intensity, the concentration of hydrogen in the hydrogen-rich water can be adjusted, and the oxygen is discharged through the oxygen discharge pipe 33;

[0051] The end tubes 162 on both sides of the ultraviolet lamp tube 16 are installed through the installation end 161, and can be extended with a power cord for power supply. The ultraviolet rays are used to radiate water to stimulate the hydrogen in the water to form hydrogen-rich water. The ultraviolet rays can break the hydrogen bonds in the water molecules to release the hydrogen. The operation is simple and suitable for home use.

[0052] The catalyst can be put into the catalyst barrel 411 through the putting port 413 and the feeding pipe 412, and then the electric push rod device 414 is started to automatically control the push rod 415 to lift and lower the height of the baffle 416, so that the catalyst is located below the catalyst barrel 411 and leaks out. The height of the baffle 416 is adjusted as needed to adjust the feeding amount. The catalyst is used to accelerate the hydrogen generation reaction in the water and increase the hydrogen concentration of the hydrogen-rich water. After the catalyst is in contact with water for a period of time, the hydrogen in the water will be adsorbed by the catalyst, thereby generating hydrogen-rich water;

[0053] The drain pipe 17 can be opened manually to discharge and collect the hydrogen-rich water.

[0054] The production equipment body 1 of the present invention, the flange 11, the sealing plate 12, the water inlet pipe 13, the support frame 14, the bottom plate 15, the ultraviolet lamp 16, the installation end 161, the end pipe 162, the drain pipe 17, the hydrogen-rich water circulation pump 2, the base 21, the extension plate 211, the pumping pipe 22, the circulation inlet pipe 221, the extension pipe 222, the horizontal pipe 223, the pump water pipe 23, the circulation outlet pipe 231, the water absorption ball head 24, the connecting pipe 241, the suction hole 242, the electrolysis device 3, the electrolysis channel 1 31, the electrolysis channel 2 32, the oxygen The gas discharge pipe 33, the electrolysis anode plate 34, the electrolysis cathode plate 341, the electrolysis control device 342, the catalyst feeding device 4, the feed port 401, the feeding cover 41, the catalyst barrel 411, the feed pipe 412, the feeding port 413, the electric push rod device 414, the push rod 415, the baffle 416, and the bracket 417 are all universal standard parts or parts known to those skilled in the art, and their structures and principles can be known to those skilled in the art through technical manuals or conventional experimental methods. The problem solved by the present invention The efficiency of producing hydrogen-rich water is very low by using a single ultraviolet method, electrolysis method or catalytic method, and the production time cycle is long. In addition, the quality of the produced hydrogen-rich water is low, and it is difficult to promote and use quickly. The present invention can greatly improve the efficiency of hydrogen-rich water production by combining the above-mentioned components with each other, and by combining the ultraviolet method, electrolysis method and catalytic method. The structure is exquisite, efficient, highly automated, and multi-directional continuous processing and production saves time and shortens the production cycle. The hydrogen-rich water can be circulated and mixed by the circulation mechanism connected at both ends of the front part of the production equipment body, and the quality of hydrogen-rich water production is further improved. However, by irradiating water with ultraviolet rays, the hydrogen in the water is excited, the hydrogen bonds in the water molecules can be broken, and the hydrogen is released. The water is decomposed into hydrogen and oxygen by the electrolysis device, and the hydrogen ions in the water are reduced to hydrogen to form hydrogen-rich water. The hydrogen generation reaction in the water is accelerated by using a catalyst to increase the hydrogen concentration of the hydrogen-rich water. The hydrogen in the water is adsorbed by the catalyst to generate hydrogen-rich water. The safety is high, the production volume is large, and it is easy to promote and use.

[0055] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. It is obvious to those skilled in the art that the present invention is not limited to the details of the above exemplary embodiments, and the present invention can be implemented in other specific forms without departing from the spirit or basic features of the present invention. Therefore, no matter from which point of view, the embodiments should be regarded as exemplary and non-restrictive. The scope of the present invention is defined by the attached claims rather than the above description, and it is intended that all changes falling within the meaning and scope of the equivalent elements of the claims are included in the present invention. Any figure mark in the claims should not be regarded as limiting the claims involved.

[0056] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. A hydrogen-rich water production device, comprising a production device body (1), a hydrogen-rich water circulation pump (2), an electrolysis device (3) and a catalyst feeding device (4), characterized in that: The production equipment body (1) is a transverse cylindrical structure and has flanges (11) welded at both ends. The outer end of the flange (11) is installed with a sealing plate (12) by bolts. The sealing plates (12) are provided with mounting ends (161) installed in a circular array between the mounting ends (161). The inner ends of the mounting ends (161) are provided with end pipes (162). Ultraviolet lamps (16) are installed between the end pipes (162). The front and rear ends of the inner side of the flange (11) are both welded with a support frame (14) of an inverted L-shaped structure. The bottom of the support frame (14) is welded with a bottom plate (15). The top of the production equipment body (1) is connected to a water inlet pipe (13) near the right end, and the middle of the bottom of the production equipment body (1) is connected to a drain pipe (17). The two ends of the front part of the production equipment body (1) are respectively connected to a circulation inlet pipe (221) and a circulation outlet pipe (231); the circulation inlet pipe (221) and the circulation outlet pipe (231) are both L-shaped tubular structures; the right end of the circulation inlet pipe (221) is connected to a water extraction pipe (22); the left end of the circulation outlet pipe (231) is connected to a water pump pipe (23); and the hydrogen-rich water circulation pump (2) is connected between the water extraction pipe (22) and the water pump pipe (23); An electrolysis channel 1 (31) and an electrolysis channel 2 (32) are fixedly arranged at both ends of the bottom of the electrolysis device (3), and the electrolysis channel 1 (31) and the electrolysis channel 2 (32) are arranged through the middle of the top of the production equipment body (1); a base (21) is welded to the bottom of the hydrogen-rich water circulation pump (2), and an extension plate (211) is welded to the bottom of the base (21), and the extension plate (211) is welded to the middle of the front end of the bottom plate (15); The inner end of the circulation inlet pipe (221) is connected to an extension pipe (222), the extension pipe (222) is an italic structure and the right end is connected to a transverse pipe (223), the bottom of the transverse pipe (223) is connected to a connecting pipe (241), the bottom of the connecting pipe (241) is installed with a water absorption ball head (24), the lower part of the water absorption ball head (24) is provided with suction holes (242) distributed around, the water absorption ball head (24) is located at the lower part of the production equipment body (1), and the number of the water absorption ball heads (24) is several; The front of the electrolysis device (3) is electrically connected to a control panel, the two ends of the electrolysis device (3) are electrically connected to an electrolysis control device (342), the bottom of the electrolysis control device (342) is electrically connected to an electrolysis anode plate (34) and an electrolysis cathode plate (341), respectively, the electrolysis anode plate (34) and the electrolysis cathode plate (341) are respectively arranged inside the electrolysis channel 1 (31) and the electrolysis channel 2 (32), and the electrolysis anode plate (34) and the electrolysis cathode plate (341) extend into the upper part of the production equipment body (1), the upper part of the electrolysis channel 2 (32) is connected to an oxygen exhaust pipe (33), and the oxygen exhaust pipe (33) is connected to the middle of the rear of the electrolysis device (3); The catalyst feeding device (4) is connected through the top of the production equipment body (1) near the left end, and a feed port (401) is fixedly provided on the top of the catalyst feeding device (4), and a feeding cover (41) is provided above the feed port (401).

2. A hydrogen-rich water production device according to claim 1, characterized in that: The lower part of the delivery cover (41) is an open structure, and the inner diameter of the delivery cover (41) is larger than the outer diameter of the feed port (401). An O-ring is bonded around the inner top of the delivery cover (41).

3. A hydrogen-rich water production device according to claim 2, characterized in that: A catalyst cartridge (411) is fixedly provided at the middle of the bottom of the delivery cover (41), the catalyst cartridge (411) being a ring tube structure, a feed pipe (412) penetrating one side of the upper end of the catalyst cartridge (411), an oblique tube structure above which a delivery port (413) is welded, and the delivery port (413) is a flared structure.

4. A hydrogen-rich water production device according to claim 3, characterized in that: A push rod (415) is connected through the middle of the delivery cover (41), an electric push rod device (414) is connected above the push rod (415), a bracket (417) is welded between the front and rear of the electric push rod device (414) and the upper end surface of the delivery cover (41), a baffle (416) is welded to the bottom of the push rod (415), the diameter of the baffle (416) is larger than the diameter of the catalyst barrel (411), a rubber pad is bonded to the upper end surface of the baffle (416), and the bracket (417) is a T-shaped structure.

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