Ozone preparation system

Abstract

The invention relates to the related technical field of ozone preparation, in particular to an ozone preparation system which comprises a base, a steam generation tank, an ozone generation tank, a hydrogen storage tank, an ozone storage tank and a control box. The ozone generation tank is formed by combining the tank body, the upper cover, the mounting shaft and the electrolysis module, and the electrolysis module is formed by combining the mounting blade, the positive electrode electrolysis sheet and the negative electrode electrolysis sheet, so that a spiral electrolysis channel structure is formed between the positive electrode electrolysis sheet and the negative electrode electrolysis sheet; the water vapor is continuously conveyed into the electrolysis channel, so that gas-state water molecules in the electrolysis channel are electrolyzed into ozone and hydrogen by the positive electrode electrolysis sheet and the negative electrode electrolysis sheet, and compared with electrolyzed liquid-state water, the ozone and the hydrogen have the advantages that the electrolysis efficiency is improved, and the water vapor is continuously conveyed into the electrolysis channel. And the gaseous water molecules are more active, and the movement among the molecules is quicker, so that the electrolysis efficiency is further improved.

Description

Technical Field

[0001] The present invention relates to the technical field related to ozone preparation, and in particular to an ozone preparation system. Background Art

[0002] Ozone is known to be a substance with extremely strong oxidizing ability in nature and has been widely used in various industrial fields, and ozone self-decomposes into harmless oxygen over time after use. Therefore, ozone is recognized as a chemical substance for sterilization and decolorization methods, and is easier and safer to handle than chemical substances previously used in the methods, without secondary pollution caused by chemical residues or reaction by-products, thereby making post-processing easy.

[0003] The known methods for producing ozone in the prior art include ultraviolet lamp method, silent discharge method and electrolysis method, wherein the electrolysis method generates ozone in the produced anode gas by electrolyzing water; The existing Chinese patent document with the publication number CN102648308B discloses an ozone generator, which comprises an anode and a cathode arranged on each surface of a fluororesin type cation exchange membrane, wherein the anode is a conductive diamond electrode having conductive diamond on the surface, wherein water is supplied to the anode chamber, a direct current is provided between the anode and the cathode to electrolyze the water, so that ozone escapes from the anode chamber and hydrogen escapes from the cathode chamber, a conductive diamond electrode comprising a substrate and a conductive diamond film is used, the substrate having a plurality of convex portions and concave portions, the conductive diamond film is coated on the surface of the substrate, the non-cut fluororesin type cation exchange membrane is closely attached to the cathode surface and fixed to the electrolytic cell, and the closely packed layer of ion exchange resin particles is closely attached to the anode side surface of the fluororesin type cation exchange membrane; However, in the above technical solution, the effective electrolysis area of ​​the structure is small, resulting in a lower amount of ozone that can be produced per unit time by equipment of the same size, thereby affecting the ozone generation efficiency. Therefore, the present invention proposes an ozone preparation system to solve the above problem. Summary of the invention

[0004] The object of the present invention is to provide an ozone preparation system to solve the problems raised in the above background technology.

[0005] To achieve the above object, the present invention provides the following technical solution: an ozone production system, comprising: A base, wherein the base is a rectangular platform; A steam generating tank, wherein the steam generating tank is fixed on the base; An ozone generating tank, the ozone generating tank is fixed on the base, and the ozone generating tank comprises a tank body, an upper cover, a mounting shaft and an electrolysis module, an air inlet pipe connection port is formed on the side wall of the tank body, the air inlet pipe connection port is connected to the air outlet port of the steam generating tank through a steam pipe, and the upper cover is fixed at the port of the tank body; A hydrogen storage tank, wherein the hydrogen storage tank is fixed on the base; An ozone storage tank, wherein the ozone storage tank is fixed on a base, and the hydrogen storage tank and the ozone storage tank are connected to the ozone generating tank through connecting pipes; A control box is fixedly installed between the steam generating tank and the ozone generating tank, and is used to control the electrical components of the ozone preparation system.

[0006] Preferably, a lower mounting hole is provided at the bottom of the ozone generating tank, an upper mounting hole is provided on the upper cover, the upper and lower ends of the mounting shaft are respectively fixedly mounted in the upper mounting hole and the lower mounting hole, and a strap is integrally formed on the side wall of the lower end of the mounting shaft, and the strap is mounted on the bottom surface of the tank body.

[0007] Preferably, the electrolysis module includes a mounting blade, a positive electrode electrolytic sheet and a negative electrode electrolytic sheet, the mounting blade is a spiral blade structure, and the inner and outer sides of the mounting blade are respectively mounted against the mounting shaft and the tank body, the positive electrode electrolytic sheet is fixed on the upper surface of the mounting blade, and the negative electrode electrolytic sheet is fixed on the lower surface of the mounting blade, the positive electrode electrolytic sheet and the negative electrode electrolytic sheet are respectively connected to the positive and negative electrodes of the equipment power supply, and the positive electrode electrolytic sheet and the negative electrode electrolytic sheet are in contact with the mounting shaft and the tank body.

[0008] Preferably, the air inlet pipe connection port is located at the middle position of the side wall of the tank body, the mounting shaft is a hollow tube structure, and the inner cavity of the mounting shaft is divided into a first cavity and a second cavity by a partition plate, and the upper and lower side ports of the mounting shaft are respectively fixedly installed with an upper sealing plate and a lower sealing plate, and the upper sealing plate and the lower sealing plate are respectively provided with a primary pipeline connection port and a secondary pipeline connection port, and the primary pipeline connection port and the secondary pipeline connection port are respectively connected to the hydrogen storage tank and the ozone storage tank, an air cavity is opened on the upper sealing plate, the air cavity is connected to the primary pipeline connection port, and the air cavity is connected to the second cavity through an air hole, the lower sealing plate has the same structure as the upper sealing plate, and the secondary pipeline connection port is connected to the first cavity.

[0009] Preferably, a primary installation groove is provided on the side wall at the lower end of the first cavity, a primary mesh plate is embedded in the primary installation groove, a secondary installation groove is provided on the side wall at the upper end of the second cavity, a secondary mesh plate is embedded in the secondary installation groove, the first cavity is filled with ozone molecular sieve, the second cavity is filled with hydrogen molecular sieve, the pores, mesh holes on the primary mesh plate, and mesh holes on the secondary mesh plate are all smaller than the particle size of the ozone molecular sieve and the hydrogen molecular sieve.

[0010] Preferably, the surfaces of the mounting blade, the tank body and the mounting shaft are all coated with an insulating coating, the mounting blade is a hard profile, and a lower support column is fixedly welded to the lower end of the mounting blade, and an upper support column is fixedly welded to the upper end of the mounting blade, and when the upper cover and the mounting blade are actually installed, the lower end surface of the lower support column is set against the bottom surface of the tank body, and the upper end surface of the upper support column is set against the upper cover.

[0011] Preferably, a spiral electrolysis channel is formed between the positive and negative electrolyte sheets, and a positive auxiliary electrolyte plate is integrally formed on the upper surface of the positive electrolyte sheet, and a negative auxiliary electrolyte plate is integrally formed on the lower surface of the negative electrolyte sheet.

[0012] Preferably, the positive auxiliary electrolytic plate and the negative auxiliary electrolytic plate are both arranged in a spiral shape, and multiple positive auxiliary electrolytic plates and negative auxiliary electrolytic plates are evenly spaced, the positive auxiliary electrolytic plates and the negative auxiliary electrolytic plates are staggered, the negative electrolytic sheets and the negative auxiliary electrolytic plates are not in contact with the positive auxiliary electrolytic plates, and the positive electrolytic sheets and the positive auxiliary electrolytic plates are not in contact with the negative auxiliary electrolytic plates.

[0013] Preferably, a primary sealing groove is provided on the side wall of the lower mounting hole, a primary sealing ring is embedded and installed in the primary sealing groove, a secondary sealing groove is provided on the side wall of the upper mounting hole, a secondary sealing groove is embedded and installed in the secondary sealing groove, a tertiary sealing groove is provided at the port of the tank body, a tertiary sealing groove is embedded and installed in the tertiary sealing groove, the upper and lower end faces of the mounting shaft are provided with a fourth-level sealing groove, a fourth-level sealing ring is embedded and installed in the fourth-level sealing groove, a fifth-level sealing groove is provided on the outer side edge of the mounting blade, a fifth-level sealing groove is embedded and installed in the fifth-level sealing groove, a sixth-level sealing groove is provided on the inner side edge of the mounting blade, a sixth-level sealing ring is embedded and installed in the sixth-level sealing groove, and the primary sealing ring, secondary sealing ring, tertiary sealing ring, fourth-level sealing ring, fifth-level sealing ring and sixth-level sealing ring are all in a compressed state during actual installation.

[0014] Preferably, the side wall of the tank body is composed of an outer insulation layer and an inner heat-conducting layer, and a heating cavity is formed between the outer insulation layer and the inner heat-conducting layer, and a heating mechanism is arranged in the heating cavity.

[0015] Compared with the prior art, the present invention has the following beneficial effects: 1. An ozone preparation system is provided which is composed of a base, a steam generator tank, an ozone generator tank, a hydrogen storage tank, an ozone storage tank and a control box, and the ozone generator tank is provided to be composed of a tank body, an upper cover, a mounting shaft and an electrolysis module, and the electrolysis module is provided to be composed of a mounting blade, a positive electrode electrolysis sheet and a negative electrode electrolysis sheet, so that a spiral electrolysis channel structure is formed between the positive electrode electrolysis sheet and the negative electrode electrolysis sheet, thereby effectively increasing the electrolysis area of ​​the positive electrode electrolysis sheet and the negative electrode electrolysis sheet, thereby improving the electrolysis efficiency, and by continuously transporting water vapor to the electrolysis channel, the gaseous water molecules in the electrolysis channel are electrolyzed into ozone and hydrogen by the positive electrode electrolysis sheet and the negative electrode electrolysis sheet. Compared with the electrolysis of liquid water, the gaseous water molecules are more active and their intermolecular motion is faster, thereby further improving the electrolysis efficiency; 2. By arranging a positive auxiliary electrolysis plate on the positive electrolysis sheet and a negative auxiliary electrolysis plate on the negative electrolysis sheet, and by staggering the positive auxiliary electrolysis plate and the negative auxiliary electrolysis plate, the effective electrolysis area is further increased, thereby further improving the electrolysis efficiency and thus increasing the ozone production per unit time. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a schematic diagram of the structure of the present invention; Figure 2 A half-section view of the present invention; Figure 3 for Figure 2 A schematic diagram of the structure enlargement in the middle; Figure 4 for Figure 2 A magnified schematic diagram of the structure at B in the middle; Figure 5 for Figure 4 A magnified schematic diagram of the structure at C in the middle; Figure 6 This is a schematic diagram of the internal structure of the installation shaft of the present invention; Figure 7 for Figure 6 A magnified schematic diagram of the structure at D in the middle; Figure 8 for Figure 6 The enlarged schematic diagram of the structure at E in the middle; Fig. 9 This is a schematic diagram of the electrolysis module structure of the present invention; Fig.10 for Fig. 9 A magnified schematic diagram of the structure at F in the middle; Fig.11 It is a schematic diagram of the structure of the four-stage sealing ring of the present invention.

[0017] In the figure: base 1, steam generator tank 2, ozone generator tank 3, hydrogen storage tank 4, ozone storage tank 5, control box 6, tank body 7, upper cover 8, mounting shaft 9, electrolysis module 10, air inlet pipe connection port 11, steam pipe 12, partition plate 13, first cavity 14, second cavity 15, primary mesh plate 16, secondary mesh plate 17, mounting blade 18, positive electrode electrolytic sheet 19, negative electrode electrolytic sheet 20, bridging plate 21, upper sealing plate 22 , lower sealing plate 23, primary pipeline connection port 24, secondary pipeline connection port 25, air cavity 26, air hole 27, lower support column 28, upper support column 29, positive auxiliary electrolytic plate 30, negative auxiliary electrolytic plate 31, primary sealing ring 32, secondary sealing ring 33, tertiary sealing ring 34, fourth sealing ring 35, fifth sealing ring 36, sixth sealing ring 37, outer thermal insulation layer 38, inner heat conductive layer 39, heating chamber 40. DETAILED DESCRIPTION

[0018] 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.

[0019] See also Figure 1-Figure 11 The present invention provides the following three preferred embodiments: Embodiment 1: An ozone preparation system, comprising a base 1, a steam generating tank 2, an ozone generating tank 3, a hydrogen storage tank 4, an ozone storage tank 5 and a control box 6. The base 1 is a rectangular platform. The steam generating tank 2 is fixed on the base 1. The ozone generating tank 3 is fixed on the base 1. The ozone generating tank 3 comprises a tank body 7, an upper cover 8, a mounting shaft 9 and an electrolysis module 10. An air inlet pipe connection port 11 is formed on the side wall of the tank body 7. The air inlet pipe connection port 11 is connected to the air outlet port of the steam generating tank 2 through a steam pipe 12. The upper cover 8 is fixed at the port of the tank body 7. The hydrogen storage tank 4 is fixed to the base 1, the ozone storage tank 5 is fixed on the base 1, the hydrogen storage tank 4 and the ozone storage tank 5 are connected to the ozone generating tank 3 through connecting pipes, the control box 6 is fixedly installed between the steam generating tank 2 and the ozone generating tank 3, the control box 6 is used to control the electrical components of the ozone preparation system, the bottom of the ozone generating tank 3 is provided with a lower mounting hole, the upper cover 8 is provided with an upper mounting hole, the upper and lower ends of the mounting shaft 9 are respectively fixedly installed in the upper mounting hole and the lower mounting hole, and the lower end side wall of the mounting shaft 9 is integrally formed with a strap 21, and the strap 21 is mounted on the bottom surface of the tank body 7.

[0020] The electrolysis module 10 includes a mounting blade 18, a positive electrode electrolytic sheet 19 and a negative electrode electrolytic sheet 20. The mounting blade 18 is a spiral blade structure, and the inner and outer sides of the mounting blade 18 are respectively mounted against the mounting shaft 9 and the tank body 7. The positive electrode electrolytic sheet 19 is fixed to the upper surface of the mounting blade 18, and the negative electrode electrolytic sheet 20 is fixed to the lower surface of the mounting blade 18. The positive electrode electrolytic sheet 19 and the negative electrode electrolytic sheet 20 are respectively connected to the positive and negative electrodes of the power supply of the equipment, and the positive electrode electrolytic sheet 19 and the negative electrode electrolytic sheet 20 are in contact with the mounting shaft 9 and the tank body 7. An ozone preparation system composed of a base 1, a steam generating tank 2, an ozone generating tank 3, a hydrogen storage tank 4, an ozone storage tank 5 and a control box 6 is set, and the ozone generating tank 3 is set The tank body 7, the upper cover 8, the mounting shaft 9 and the electrolysis module 10 are combined, and the electrolysis module 10 is configured to be composed of the mounting blades 18, the positive electrode electrolysis sheet 19 and the negative electrode electrolysis sheet 20, so that a spiral electrolysis channel structure is formed between the positive electrode electrolysis sheet 19 and the negative electrode electrolysis sheet 20, thereby effectively increasing the electrolysis area of ​​the positive electrode electrolysis sheet 19 and the negative electrode electrolysis sheet 20, thereby improving the electrolysis efficiency, and by continuously transporting water vapor to the electrolysis channel, the gaseous water molecules in the electrolysis channel are electrolyzed into ozone and hydrogen by the positive electrode electrolysis sheet 19 and the negative electrode electrolysis sheet 20. Compared with the electrolysis of liquid water, the gaseous water molecules are more active and the intermolecular motion is faster, thereby further improving the electrolysis efficiency.

[0021] The air inlet pipe connection port 11 is located at the middle position of the side wall of the tank body 7, the mounting shaft 9 is a hollow tube structure, and the inner cavity of the mounting shaft 9 is divided into a first cavity 14 and a second cavity 15 by a partition plate 13, and the upper and lower side ports of the mounting shaft 9 are respectively fixedly installed with an upper sealing plate 22 and a lower sealing plate 23, and the upper sealing plate 22 and the lower sealing plate 23 are respectively provided with a primary pipeline connection port 24 and a secondary pipeline connection port 25, the primary pipeline connection port 24 and the secondary pipeline connection port 25 are respectively connected to the hydrogen storage tank 4 and the ozone storage tank 5, an air cavity 26 is opened on the upper sealing plate 22, the air cavity 26 is connected to the primary pipeline connection port 24, and the air cavity 26 is connected to the second cavity 15 through the air hole 27, the lower sealing plate 23 has the same structure as the upper sealing plate 22, and the secondary pipeline connection port 25 is connected to the first cavity 14.

[0022] A primary installation groove is provided on the side wall of the lower side end of the first cavity 14, and a primary mesh plate 16 is embedded and installed in the primary installation groove. A secondary installation groove is provided on the side wall of the upper side end of the second cavity 15, and a secondary mesh plate 17 is embedded and installed in the secondary installation groove. The first cavity 14 is filled with ozone molecular sieves, and the second cavity 15 is filled with hydrogen molecular sieves. The pores 27, the mesh holes of the primary mesh plate 16, and the mesh holes of the secondary mesh plate 17 are all smaller than the particle sizes of the ozone molecular sieve and the hydrogen molecular sieve. By filling the ozone molecular sieve and the hydrogen molecular sieve in the first cavity 14 and the second cavity 15 respectively, the separation of ozone, hydrogen and water vapor is achieved. The primary installation groove is located on the lower side and the secondary installation groove is located on the upper side. Since the molecular mass of ozone is much greater than the molecular mass of hydrogen, the effect of ozone sinking and hydrogen floating in the ozone and hydrogen mixed gas is utilized, thereby reducing the filtering burden of the ozone molecular sieve and the hydrogen molecular sieve.

[0023] The surfaces of the mounting blade 18, the tank body 7 and the mounting shaft 9 are all coated with an insulating coating. The mounting blade 18 is a hard profile, and a lower support column 28 is fixedly welded to the lower end of the mounting blade 18, and an upper support column 29 is fixedly welded to the upper end of the mounting blade 18. When the upper cover 8 and the mounting blade 18 are actually installed, the lower end surface of the lower support column 28 is set against the bottom surface of the tank body 7, and the upper end surface of the upper support column 29 is set against the upper cover 8.

[0024] Embodiment 2: On the basis of Embodiment 1, a spiral electrolysis channel is formed between the positive electrode electrolyte sheet 19 and the negative electrode electrolyte sheet 20, and a positive electrode auxiliary electrolyte plate 30 is integrally formed on the upper surface of the positive electrode electrolyte sheet 19, and a negative electrode auxiliary electrolyte plate 31 is integrally formed on the lower surface of the negative electrode electrolyte sheet 20. The positive electrode auxiliary electrolyte plate 30 and the negative electrode auxiliary electrolyte plate 31 are both arranged in a spiral shape, and the positive electrode auxiliary electrolyte plate 30 and the negative electrode auxiliary electrolyte plate 31 are evenly spaced and arranged in multiple channels, and the positive electrode auxiliary electrolyte plate 30 and the negative electrode auxiliary electrolyte plate 31 are staggered. The negative electrode electrolyte sheet 20 and the negative electrode auxiliary electrolyte plate 31 are not in contact with the positive electrode auxiliary electrolyte plate 30, and the positive electrode electrolyte sheet 19 and the positive electrode auxiliary electrolyte plate 30 are not in contact with the negative electrode auxiliary electrolyte plate 31. By arranging the positive electrode auxiliary electrolyte plate 30 on the positive electrode electrolyte sheet 19 and the negative electrode auxiliary electrolyte plate 31 on the negative electrode electrolyte sheet 20, and by staggering the positive electrode auxiliary electrolyte plate 30 and the negative electrode auxiliary electrolyte plate 31, the effective electrolysis area is further increased, thereby further improving the electrolysis efficiency, thereby increasing the ozone production per unit time.

[0025] Embodiment 3: On the basis of embodiment 2, a primary sealing groove is provided on the side wall of the lower mounting hole, a primary sealing ring 32 is embedded and installed in the primary sealing groove, a secondary sealing groove is provided on the side wall of the upper mounting hole, a secondary sealing ring 33 is embedded and installed in the secondary sealing groove, a tertiary sealing groove is provided at the port of the tank body 7, a tertiary sealing ring 34 is embedded and installed in the tertiary sealing groove, a tertiary sealing groove is provided on the upper and lower end faces of the mounting shaft 9, a tertiary sealing groove is provided on the upper and lower end faces of the mounting shaft 9, a tertiary sealing ring 35 is embedded and installed in the tertiary sealing groove, a tertiary sealing groove is provided on the outer side edge of the mounting blade 18, a tertiary sealing ring 36 is embedded and installed in the tertiary sealing groove, and ... A six-level sealing groove is provided, in which a six-level sealing ring 37 is embedded and installed; the first-level sealing ring 32, the second-level sealing ring 33, the third-level sealing ring 34, the fourth-level sealing ring 35, the fifth-level sealing ring 36 and the sixth-level sealing ring 37 are all in a compressed state during actual installation, and the first-level sealing ring 32, the second-level sealing ring 33, the third-level sealing ring 34, the fourth-level sealing ring 35, the fifth-level sealing ring 36 and the sixth-level sealing ring 37 are all silicone rubber sealing rings; the first-level sealing ring 32, the second-level sealing ring 33, the third-level sealing ring 34, the fourth-level sealing ring 35, the fifth-level sealing ring 36 and the sixth-level sealing ring 37 are arranged to ensure the sealing of the connection between the structures.

[0026] The side wall of the tank body 7 is composed of an outer insulation layer 38 and an inner heat-conducting layer 39, and a heating chamber 40 is formed between the outer insulation layer 38 and the inner heat-conducting layer 39. A heating mechanism is arranged in the heating chamber 40 to ensure the heat preservation effect of the tank body 7 and to maintain the temperature inside the tank body 7 by heating assistance.

[0027] Although the above describes the illustrative specific implementation methods of the present application so that technicians in this technical field can understand the present application, the present application is not limited to the scope of the specific implementation methods. For ordinary technicians in this technical field, as long as various changes are within the spirit and scope of the present application defined and determined by the attached claims, all application creations using the concept of the present application are protected.

Claims

1. An ozone production system, characterized in that: include: A base (1), wherein the base (1) is a rectangular platform; A steam generating tank (2), wherein the steam generating tank (2) is fixed on the base (1); An ozone generating tank (3), the ozone generating tank (3) being fixed on a base (1), and comprising a tank body (7), an upper cover (8), a mounting shaft (9) and an electrolysis module (10), an air inlet pipe connection port (11) being formed on a side wall of the tank body (7), the air inlet pipe connection port (11) being connected to an air outlet port of a steam generating tank (2) via a steam pipe (12), and the upper cover (8) being fixed at a port of the tank body (7); A hydrogen storage tank (4), wherein the hydrogen storage tank (4) is fixed on the base (1); An ozone storage tank (5), wherein the ozone storage tank (5) is fixed on the base (1), and the hydrogen storage tank (4) and the ozone storage tank (5) are both connected to the ozone generating tank (3) via a connecting pipe; A control box (6), wherein the control box (6) is fixedly installed between the steam generating tank (2) and the ozone generating tank (3), and the control box (6) is used to control electrical components of the ozone preparation system.

2. An ozone production system according to claim 1, characterized in that: The bottom of the ozone generating tank (3) is provided with a lower mounting hole, the upper cover (8) is provided with an upper mounting hole, the upper and lower ends of the mounting shaft (9) are fixedly mounted in the upper mounting hole and the lower mounting hole respectively, and a strap (21) is integrally formed on the side wall of the lower end of the mounting shaft (9), and the strap (21) is mounted on the bottom surface of the tank body (7).

3. An ozone production system according to claim 2, characterized in that: The electrolysis module (10) comprises a mounting blade (18), a positive electrode electrolytic sheet (19) and a negative electrode electrolytic sheet (20); the mounting blade (18) is a spiral blade structure, and the inner and outer sides of the mounting blade (18) are respectively mounted against the mounting shaft (9) and the tank body (7); the positive electrode electrolytic sheet (19) is fixed to the upper surface of the mounting blade (18), and the negative electrode electrolytic sheet (20) is fixed to the lower surface of the mounting blade (18); the positive electrode electrolytic sheet (19) and the negative electrode electrolytic sheet (20) are respectively connected to the positive and negative electrodes of the power supply of the equipment, and the positive electrode electrolytic sheet (19) and the negative electrode electrolytic sheet (20) are in contact with the mounting shaft (9) and the tank body (7).

4. An ozone production system according to claim 3, characterized in that: The air inlet pipe connection port (11) is located at a middle position of the side wall of the tank body (7); the mounting shaft (9) is a hollow tube structure; the inner cavity of the mounting shaft (9) is divided into a first cavity (14) and a second cavity (15) by a partition plate (13); and an upper sealing plate (22) and a lower sealing plate (23) are fixedly installed on the upper and lower side ports of the mounting shaft (9), respectively; and a primary pipeline connection port (24) and a secondary pipeline connection port (25) are respectively provided on the upper and lower sealing plates (22) and the lower sealing plate (23). The primary pipeline connection port (24) and the secondary pipeline connection port (25) are respectively connected to the hydrogen storage tank (4) and the ozone storage tank (5); an air cavity (26) is provided on the upper sealing plate (22); the air cavity (26) is connected to the primary pipeline connection port (24), and the air cavity (26) is connected to the second cavity (15) through the air hole (27); the lower sealing plate (23) has the same structure as the upper sealing plate (22), and the secondary pipeline connection port (25) is connected to the first cavity (14).

5. An ozone production system according to claim 4, characterized in that: A primary installation groove is provided on the side wall at the lower end of the first cavity (14), a primary mesh plate (16) is embedded and installed in the primary installation groove, a secondary installation groove is provided on the side wall at the upper end of the second cavity (15), a secondary mesh plate (17) is embedded and installed in the secondary installation groove, the first cavity (14) is filled with an ozone molecular sieve, and the second cavity (15) is filled with a hydrogen molecular sieve, and the pores (27), the mesh holes of the primary mesh plate (16), and the mesh holes of the secondary mesh plate (17) are all smaller than the particle sizes of the ozone molecular sieve and the hydrogen molecular sieve.

6. An ozone production system according to claim 5, characterized in that: The surfaces of the mounting blade (18), the tank body (7), and the mounting shaft (9) are all coated with an insulating coating. The mounting blade (18) is a hard profile, and a lower support column (28) is fixedly welded to the lower end of the mounting blade (18), and an upper support column (29) is fixedly welded to the upper end of the mounting blade (18). When the upper cover (8) and the mounting blade (18) are actually installed, the lower end surface of the lower support column (28) is arranged to abut against the bottom surface of the tank body (7), and the upper end surface of the upper support column (29) is arranged to abut against the upper cover (8).

7. An ozone production system according to claim 6, characterized in that: A spiral electrolysis channel is formed between the positive electrode electrolytic sheet (19) and the negative electrode electrolytic sheet (20), and a positive electrode auxiliary electrolysis plate (30) is integrally formed on the upper surface of the positive electrode electrolytic sheet (19), and a negative electrode auxiliary electrolysis plate (31) is integrally formed on the lower surface of the negative electrode electrolytic sheet (20).

8. An ozone production system according to claim 7, characterized in that: The positive electrode auxiliary electrolysis plate (30) and the negative electrode auxiliary electrolysis plate (31) are both arranged in a spiral shape, and the positive electrode auxiliary electrolysis plate (30) and the negative electrode auxiliary electrolysis plate (31) are arranged in multiple rows at equal intervals. The positive electrode auxiliary electrolysis plate (30) and the negative electrode auxiliary electrolysis plate (31) are arranged in a staggered manner. The negative electrode electrolysis sheet (20) and the negative electrode auxiliary electrolysis plate (31) are not in contact with the positive electrode auxiliary electrolysis plate (30), and the positive electrode electrolysis sheet (19) and the positive electrode auxiliary electrolysis plate (30) are not in contact with the negative electrode auxiliary electrolysis plate (31).

9. An ozone production system according to claim 8, characterized in that: A primary sealing groove is formed on the side wall of the lower mounting hole, a primary sealing ring (32) is embedded and installed in the primary sealing groove, a secondary sealing groove is formed on the side wall of the upper mounting hole, a secondary sealing ring (33) is embedded and installed in the secondary sealing groove, a tertiary sealing groove is formed at the port of the tank body (7), a tertiary sealing ring (34) is embedded and installed in the tertiary sealing groove, and a fourth-level sealing groove is formed on the upper and lower end surfaces of the mounting shaft (9), a fourth-level sealing ring is embedded and installed in the fourth-level sealing groove (35), a fifth-level sealing groove is provided on the outer side of the mounting blade (18), a fifth-level sealing ring (36) is embedded and installed in the fifth-level sealing groove, a sixth-level sealing groove is provided on the inner side of the mounting blade (18), a sixth-level sealing ring (37) is embedded and installed in the sixth-level sealing groove, and the first-level sealing ring (32), the second-level sealing ring (33), the third-level sealing ring (34), the fourth-level sealing ring (35), the fifth-level sealing ring (36), and the sixth-level sealing ring (37) are all in a compressed state during actual installation.

10. An ozone production system according to claim 9, characterized in that: The side wall of the tank body (7) is composed of an outer thermal insulation layer (38) and an inner thermal conductive layer (39), and a heating cavity (40) is formed between the outer thermal insulation layer (38) and the inner thermal conductive layer (39), wherein a heating mechanism is provided in the heating cavity (40).

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