Oscillation dispersion structure-based ozone normal saline mixing equipment

Abstract

The invention relates to the field of preparation of ozone normal saline, and discloses ozone normal saline mixing equipment based on an oscillation dispersion structure, which comprises a driving unit, the driving unit comprises a top plate, the top plate is erected in the air through a bracket, the upper end surface of the top plate is fixedly connected with a motor, and the lower end surface of the top plate is rotatably connected with a connecting seat; a motor driving shaft penetrates through the top plate and is fixedly connected with a connecting seat, the lower end of the connecting seat is connected with a deflection assembly, the deflection assembly is connected with an ozone generator through an air inlet pipe, and the ozone generator is fixedly connected to the upper end face of the top plate. According to the ozone normal saline mixing equipment based on the oscillation dispersion structure, the problem that in the prior art, when ozone normal saline is prepared in a closed container, after the concentration of the solution reaches a target value, residual ozone gas in the gas supply pipeline and the closed container possibly continues to be dissolved in the solution, and the concentration of the solution is too high can be effectively solved.

Description

Technical Field

[0001] The present invention relates to the field of ozonated saline preparation, and particularly to an ozonated saline mixing device based on an oscillating dispersion structure. Background Art

[0002] Ozonated saline generally refers to a solution obtained by dissolving medical ozone gas in physiological saline, and is often used by some medical institutions for treatment and disease prevention.

[0003] When preparing ozonated saline, an appropriate amount of physiological saline needs to be first placed in a closed container, and then ozone gas with a predetermined concentration is slowly injected into the physiological saline through a special catheter connected to an ozone generator, and a stirrer is used for stirring to improve the mixing effect. When the solution reaches a specific concentration, the injection of ozone gas is stopped.

[0004] The following problems exist in the above preparation process: Generally, the solubility of ozone gas in physiological saline is relatively low. Therefore, after the ozone gas is introduced into the physiological saline, a part of it will directly dissolve in the physiological saline, and the other part will form bubbles and float above the liquid surface, remaining above the closed container. Since the dissolution of ozone in physiological saline is in a dynamic equilibrium state, after the injection of ozone gas is stopped when the solution reaches the target concentration, the ozone gas remaining in the closed container and the gas supply pipeline may still continue to dissolve into the solution, resulting in too high a concentration of the finally prepared solution and affecting its quality. Summary of the Invention

[0005] Aiming at the above-mentioned drawbacks of the prior art, the present invention provides an ozonated saline mixing device based on an oscillating dispersion structure, which can effectively solve the problem in the prior art that after the solution concentration reaches the target value during the preparation of ozonated saline in a closed container, the ozone gas remaining in the gas supply pipeline and the closed container may continue to dissolve in the solution, resulting in too high a solution concentration.

[0006] To achieve the above object, the present invention is realized through the following technical solutions: The present invention provides an ozonated saline mixing device based on an oscillating dispersion structure, including: A driving unit, the driving unit includes a top plate, the top plate is erected in the air through a bracket, a motor is fixedly connected to the upper end surface of the top plate, a connecting seat is rotatably connected to the lower end surface of the top plate, the driving shaft of the motor penetrates through the top plate and is fixedly connected to the connecting seat, a deflection assembly is connected to the lower end of the connecting seat, and the deflection assembly is connected to the ozone generator through an air inlet pipe, and the ozone generator is fixedly connected to the upper end surface of the top plate.

[0007] Mixing unit, the mixing unit includes a mixing container, the center of the lower end face of the mixing container is connected to the bottom plate through a base, a liquid inlet valve for introducing physiological saline is fixedly communicated with the side wall of the mixing container at a position close to the upper part, a liquid outlet valve is fixedly communicated with the side wall of the mixing container at a position close to the lower part, a supporting component for supporting is connected to the outer side wall of the mixing container, the upper end face of the mixing container is penetrated and rotatably connected with a mounting seat, a hollow shaft is penetrated and fixedly connected to the mounting seat, a plurality of air outlet grooves are evenly formed in the side wall of the hollow shaft up and down, and a plurality of impellers matched with the air outlet grooves are fixedly sleeved on the hollow shaft.

[0008] Air supply unit, the air supply unit includes an air supply pipe, the air supply pipe is slidably connected up and down inside the hollow shaft, the upper end of the air supply pipe is connected with a pumping component for promoting gas flow, and the lower end of the air supply pipe is connected with a linkage component for pushing it to move up and down.

[0009] Wherein, a folding rod is fixedly sleeved on the outer wall of the hollow shaft, the lower end of the folding rod is inclined downward at a certain angle in the horizontal direction to keep the mounting seat and the mixing container inclined, and the upper end of the folding rod is connected with a deflection component.

[0010] Further, the deflection component includes an I-shaped seat, the I-shaped seat is fixedly connected below the connecting seat, the I-shaped seat is a cavity structure and has an opening at its lower end, a through hole is formed through the side wall of the I-shaped seat, a rotary connecting pipe is rotatably connected between the upper and lower discs of the I-shaped seat, the rotary connecting pipe is communicated with an ozone generator through an air inlet pipe, the lower end of the I-shaped seat is fixedly communicated with an air inlet seat, the lower end of the air inlet seat is connected with the pumping component through a hose, and the outer wall of the air inlet seat is fixedly connected with the upper end of the folding rod.

[0011] Further, the supporting component includes columns, a plurality of columns are evenly arranged on the upper end face of the bottom plate in a circumferential direction with the base as the center, the top end of the column is rotatably connected with a first hinge seat, a protective ring is fixedly sleeved on the outer side wall of the mixing container, and a plurality of second hinge seats corresponding to the first hinge seats are fixedly connected to the outer wall of the protective ring in a circumferential direction, and a spring rod is jointly hinged between the corresponding first hinge seat and the second hinge seat.

[0012] Further, the pumping component includes an exhaust module, an exhaust module is connected to the air supply pipe, the exhaust module is arranged on an air exchange chamber, the air exchange chamber is a foldable container with a structure similar to a corrugated pipe structure, the lower end of the air exchange chamber is fixedly connected to the top end of the hollow shaft, and the upper end of the air exchange chamber is fixedly communicated with the air inlet seat through a hose.

[0013] Further, the exhaust module includes a conical seat which is fixedly communicated with the upper end of the air delivery pipe. The upper end of the conical seat is fixedly connected to the ventilation chamber. A plurality of air holes are uniformly formed through the side wall of the conical seat in the circumferential direction. A conical groove matching with the conical seat is formed at the lower end of the ventilation chamber. A ventilation pipe is fixedly communicated with the lower end surface of the ventilation chamber. The lower end of the ventilation pipe penetrates through the folding rod and the connecting seat and extends into the mixing container. A first one-way valve is fixedly connected to the lower end of the ventilation pipe. An airbag is fixedly connected to the folding rod, and the airbag is communicated with the ventilation pipe.

[0014] Further, the linkage assembly includes two connecting pipes symmetrically arranged up and down in the hollow shaft. Connecting pieces are fixedly connected to one ends of the two connecting pipes close to each other. A connecting rod is fixedly connected between the two connecting pieces. A limiting seat is slidably connected to the outer side wall of the connecting rod. The limiting seat is fixedly connected to the inner side wall of the hollow shaft. The upper connecting pipe is fixedly communicated with the air delivery pipe through a second one-way valve. The lower end of the lower connecting pipe is fixedly connected with a reciprocating module.

[0015] Further, the reciprocating module includes a linkage block. The lower end of the lower connecting pipe is fixedly connected with the linkage block. The linkage block is slidably connected with a bidirectional lead screw. The lower end of the bidirectional lead screw is rotatably connected with a circular plate. The circular plate is fixedly connected to the mixing container. A slide table matching with the bidirectional thread groove on its surface is slidably connected to the bidirectional lead screw. The upper end surface of the slide table is vertically penetrated and slidably connected with two limiting rods. The lower ends of the limiting rods are fixedly connected to the circular plate. A connecting ring is rotatably sleeved on the outer wall of the lower connecting pipe. The connecting ring and the slide table are fixedly connected through a U-shaped rod.

[0016] The technical solution provided by the present invention has the following beneficial effects compared with the prior art: In the present invention, the ozone generator introduces ozone gas into the ventilation chamber in small amounts and multiple times. At the same time, the motor drive shaft rotates. On the one hand, it drives the mixing container to rotate and oscillate the physiological saline therein through the folding rod. On the other hand, it drives the ventilation chamber to fold and unfold reciprocally through the linkage module, and pushes the ozone gas therein into the physiological saline for mixing. During this process, the undissolved ozone gas will float above the liquid level of the physiological saline and then be recycled into the ventilation chamber again through the exhaust module, and then be pushed into the physiological saline again, so as to ensure that the ozone gas introduced each time is dissolved in the physiological saline to the greatest extent, and further effectively avoid the situation that the residual ozone gas continues to dissolve and causes the change of the solution concentration after the preparation is completed. Description of the Drawings

[0017] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings required for the description of the embodiments or the prior art. Obviously, the drawings in the following description are only some embodiments of the present invention. For those of ordinary skill in the art, without creative efforts, other drawings can also be obtained based on these drawings.

[0018] Figure 1 Schematic three-dimensional structure diagram of a three-oxygen physiological saline mixing device based on an oscillating dispersion structure of the present invention; Figure 2 For the present invention Figure 1 front view; Figure 3 Cross-sectional view of the local structure of the drive unit and the air supply unit in a three-oxygen physiological saline mixing device based on an oscillating dispersion structure of the present invention; Figure 4 Cross-sectional view of the local structure in a three-oxygen physiological saline mixing device based on an oscillating dispersion structure of the present invention; Figure 5 Cross-sectional view of the mixing unit and the air supply unit in a three-oxygen physiological saline mixing device based on an oscillating dispersion structure of the present invention; Figure 6 For the present invention Figure 5 Local enlarged view at position A in; Figure 7 For the present invention Figure 5 Local enlarged view at position B in.

[0019] The reference numerals in the figure respectively represent: 1, drive unit; 11, motor; 12, connecting seat; 13, deflection assembly; 131, I-shaped seat; 132, adapter pipe; 133, intake seat; 134, hose; 14, three-oxygen generator; 2, mixing unit; 21, mixing container; 22, support assembly; 221, column; 222, first hinge seat; 223, second hinge seat; 224, spring rod; 23, mounting seat; 24, hollow shaft; 25, impeller; 3, air supply unit; 31, air supply pipe; 32, pumping and exhausting assembly; 321, exhaust module; 3211, conical seat; 3212, conical groove; 3213, replacement air pipe; 3214, first one-way valve; 3215, airbag; 322, ventilation chamber; 33, linkage assembly; 331, connecting pipe; 332, limit seat; 333, reciprocating module; 3331, linkage block; 3332, bidirectional lead screw; 3333, sliding table; 3334, limit rod; 3335, U-shaped rod; 4, folding rod. Detailed implementation manners

[0020] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, rather than all of them. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0021] The present invention will be further described below with reference to the embodiments. Embodiment

[0022] Please refer to Figures 1 - 7 , the present invention provides a technical solution: a tri-oxygen physiological saline mixing device based on an oscillating dispersion structure, including: a driving unit 1, the driving unit 1 includes a top plate, the top plate is erected in the air through a bracket, the upper end surface of the top plate is fixedly connected with a motor 11, the lower end surface of the top plate is rotatably connected with a connecting seat 12, the driving shaft of the motor 11 penetrates through the top plate and is fixedly connected with the connecting seat 12, the lower end of the connecting seat 12 is connected with a deflection assembly 13, the deflection assembly 13 is connected with a tri-oxygen generator 14 through an air inlet pipe, the air inlet pipe is a one-way pipe, and tri-oxygen gas can only enter the deflection assembly 13 from the tri-oxygen generator 14, and the tri-oxygen generator 14 is fixedly connected to the upper end surface of the top plate.

[0023] A mixing unit 2, the mixing unit 2 includes a mixing container 21, the lower end surface center of the mixing container 21 is connected to the bottom plate through a base, a liquid inlet valve for introducing physiological saline is fixedly communicated with the side wall of the mixing container 21 at a position close to the upper part, a liquid outlet valve is fixedly communicated with the side wall of the mixing container 21 at a position close to the lower part, a supporting assembly 22 for supporting is connected to the outer side wall of the mixing container 21, the upper end surface of the mixing container 21 is penetrated and rotatably connected with a mounting seat 23, a hollow shaft 24 is penetrated and fixedly connected to the mounting seat 23, a plurality of air outlet grooves are evenly opened on the side wall of the hollow shaft 24 up and down, and a plurality of impellers 25 matched with the air outlet grooves are fixedly sleeved on the hollow shaft 24.

[0024] An air supply unit 3, the air supply unit 3 includes an air supply pipe 31, the air supply pipe 31 is slidably connected up and down inside the hollow shaft 24, the upper end of the air supply pipe 31 is connected with a pumping and sending assembly 32 for promoting gas flow, and the lower end of the air supply pipe 31 is connected with a linkage assembly 33 for pushing it to move up and down.

[0025] Wherein, a folding rod 4 is fixedly sleeved on the outer wall of the hollow shaft 24, the lower end of the folding rod 4 is inclined downward at a certain angle in the horizontal direction to keep the mounting seat 23 and the mixing container 21 inclined, and the upper end of the folding rod 4 is connected with the deflection assembly 13.

[0026] The deflection assembly 13 includes an I-shaped seat 131 which is fixedly connected below the connection seat 12. The I-shaped seat 131 is of a cavity structure and has an opening at its lower end. A through hole is formed through the side wall of the I-shaped seat 131. A rotary pipe 132 is rotatably connected between the upper and lower discs of the I-shaped seat 131. The rotary pipe 132 is communicated with the ozone generator 14 through an intake pipe. The lower end of the I-shaped seat 131 is fixedly communicated with an intake seat 133. The lower end of the intake seat 133 is connected to the pumping assembly 32 through a hose 134. The outer wall of the intake seat 133 is fixedly connected to the upper end of the folding rod 4.

[0027] During specific operation, an appropriate amount of physiological saline is introduced into the mixing container 21 through the liquid inlet valve according to the formula ratio. Then, the ozone generator 14 introduces ozone gas into the I-shaped seat 131 in small amounts and multiple times through a one-way intake pipe. Each time the ozone gas is introduced, it first enters the intake seat 133 along the I-shaped seat 131, and then enters the air supply unit 3 along the hose 134. After that, the motor 11 is started, and the connection seat 12, the I-shaped seat 131, the intake seat 133, and the folding rod 4 are driven to rotate synchronously by the drive shaft of the motor 11. On the one hand, the rotation of the folding rod 4 drives the mounting seat 23 and the hollow shaft 24 to rotate synchronously, thereby driving the air supply unit 3 to operate. First, the ozone gas is pushed into the mixing container 21, and then diffused into the physiological saline through the air outlet groove by the impeller 25 rotating with the hollow shaft 24, thereby improving the mixing effect and avoiding the residual of ozone gas in the mixing container 21. On the other hand, the mounting seat 23 drives the mixing container 21 to rotate around the support base, thereby shaking the physiological saline inside it and further improving the mixing effect.

[0028] The support assembly 22 includes columns 221. A plurality of columns 221 are evenly arranged on the upper end surface of the bottom plate in a circumferential direction with the base as the center. The top end of the column 221 is rotatably connected to a first hinge seat 222. A protective ring is fixedly sleeved on the outer side wall of the mixing container 21. A plurality of second hinge seats 223 corresponding to the first hinge seats 222 are fixedly connected to the outer wall of the protective ring in a circumferential direction. A spring rod 224 is jointly hinged between the corresponding first hinge seat 222 and second hinge seat 223.

[0029] During specific operation, during the process that the folding rod 4 drives the mixing container 21 to rotate around the support base through the mounting seat 23, each spring rod 224 adaptively expands and contracts according to the deflection angle of the mixing container 21, providing support for the mixing container 21 to a certain extent and reducing the gravity borne by the support base.

[0030] The pumping and conveying assembly 32 includes an exhaust module 321. The exhaust module 321 is connected to the air supply pipe 31. The exhaust module 321 is arranged on the air exchange bin 322. The air exchange bin 322 is a foldable container with a structure similar to that of a corrugated pipe. The lower end of the air exchange bin 322 is fixedly connected to the top end of the hollow shaft 24. The upper end of the air exchange bin 322 is fixedly communicated with the air inlet seat 133 through a flexible hose 134.

[0031] The exhaust module 321 includes a conical seat 3211. The conical seat 3211 is fixedly communicated with the upper end of the air supply pipe 31. The upper end of the conical seat 3211 is fixedly connected to the air exchange bin 322. A plurality of air holes are uniformly formed in the side wall of the conical seat 3211 in the circumferential direction. A conical groove 3212 matching the conical seat 3211 is formed at the lower end of the air exchange bin 322. A gas exchange pipe 3213 is fixedly communicated with the lower end surface of the air exchange bin 322. The lower end of the gas exchange pipe 3213 penetrates through the folding rod 4 and the connecting seat 12 and extends into the mixing container 21. A first one-way valve 3214 is fixedly connected to the lower end of the gas exchange pipe 3213. An air bag 3215 is fixedly connected to the folding rod 4. The air bag 3215 is communicated with the gas exchange pipe 3213 and is used for balancing the air pressure in the mixing container 21 during the mixing process.

[0032] The linkage assembly 33 includes two connecting pipes 331 symmetrically arranged up and down in the hollow shaft 24. Connecting pieces are fixedly connected to the closer ends of the two connecting pipes 331. A connecting rod is fixedly connected between the two connecting pieces. A limiting seat 332 is slidably connected to the outer side wall of the connecting rod. The limiting seat 332 is fixedly connected to the inner side wall of the hollow shaft 24. The upper connecting pipe 331 is fixedly communicated with the air supply pipe 31 through a second one-way valve. The lower end of the lower connecting pipe 331 is fixedly connected to a reciprocating module 333.

[0033] The reciprocating module 333 includes a linkage block 3331. The lower end of the lower connecting pipe 331 is fixedly connected to the linkage block 3331. The linkage block 3331 is slidably connected to a bidirectional lead screw 3332. The lower end of the bidirectional lead screw 3332 is rotatably connected to a circular plate. The circular plate is fixedly connected to the mixing container 21. A sliding table 3333 matching the bidirectional thread groove on its surface is slidably connected to the bidirectional lead screw 3332. The upper end surface of the sliding table 3333 is vertically penetrated and slidably connected to two limiting rods 3334. The lower ends of the limiting rods 3334 are fixedly connected to the circular plate. When the bidirectional lead screw 3332 rotates, the two limiting rods 3334 limit the sliding table 3333 so that it can reciprocate up and down along the bidirectional lead screw 3332. A connecting ring is rotatably sleeved on the outer wall of the lower connecting pipe 331. The connecting ring is fixedly connected to the sliding table 3333 through a U-shaped rod 3335.

[0034] During the specific operation, each time the ozone gas introduced into the ozone generator 14 enters the I-shaped seat 131, it will first enter the air exchange chamber 322 through the hose 134, and then enter the air supply pipe 31 along the air holes on the side wall of the conical seat 3211. At this time, as the drive shaft of the motor 11 rotates, on the one hand, it drives the mixing container 21 to rotate around the base, oscillating the physiological saline therein. On the other hand, it drives the conical seat 3211, the air supply pipe 31, the connecting pipe 331, the connecting piece and the connecting rod to rotate synchronously, so as to drive the bidirectional lead screw 3332 to rotate synchronously through the linkage block 3331. When the bidirectional lead screw 3332 rotates, it drives the sliding table 3333 to reciprocate up and down along the bidirectional lead screw 3332, so as to drive the lower connecting pipe 331 to reciprocate up and down through the U-shaped rod 3335 and the connecting ring, and then drive the air exchange chamber 322 to fold and unfold periodically through the connecting piece, the connecting rod, the connecting pipe 331, the air supply pipe 31 and the conical seat 3211.

[0035] During the folding process of the air exchange chamber 322, when the conical seat 3211 moves down into the conical groove 3212, the air holes on the side wall of the conical seat 3211 are blocked, and the air exchange chamber 322 is completely folded. The ozone gas therein is pushed below the liquid level of the physiological saline along the air supply pipe 31 and the connecting pipe 331. At the same time, the impeller 25 rotates with the hollow shaft 24, further enabling the ozone gas to diffuse into the physiological saline and improving the mixing effect. During this process, a part of the ozone gas dissolves in the physiological saline, another part rises above the liquid level of the physiological saline in the container, and still another part of the ozone gas remains in the air supply pipe 31 or the connecting pipe 331. Then, when the air exchange chamber 322 unfolds driven by the upward movement of the conical seat 3211, the ozone gas located above the physiological saline solution is absorbed into the air exchange chamber 322 again through the first one-way valve 3214 and the air exchange pipe 3213. At this time, the second one-way valve is in a closed state, and the physiological saline solution cannot rise into the air supply pipe 31, so as to ensure the smooth progress of the inhalation process.

[0036] Subsequently, when the air exchange chamber 322 folds next time, the ozone gas therein is pushed into the physiological saline again, and at the same time, the ozone gas remaining in the air supply pipe 31 and the connecting pipe 331 last time is also pushed into the physiological saline (the above gas flow directions are as shown by the dotted lines and arrows in Figure 5 ). The above process is repeated continuously, which can ensure the full contact between the introduced ozone gas and the physiological saline solution. Coupled with the oscillating effect generated by the continuous rotation of the mixing container 21 driven by the folding rod 4 and the mounting seat 23, a better mixing effect can be achieved.

[0037] The above-mentioned pushing method is combined with the gas supply method of the ozone generator 14 in small amounts and multiple times. When the solution concentration reaches the target value, there will be no ozone gas residue in the mixing container 21, the gas supply pipe 31, the air exchange chamber 322 and the connecting pipe 331. Furthermore, it can effectively avoid the situation that the solution concentration changes due to the continuous dissolution of ozone gas. During the above process, the air exchange chamber 322 will also increase the pressure in the mixing container 21 during the folding process, to a certain extent, improving the solubility of ozone gas in physiological saline and further enhancing the mixing effect.

[0038] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than limiting them; although the present invention has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that they can still modify the technical solutions described in the foregoing embodiments, or perform equivalent replacements for some of the technical features; and these modifications or replacements will not cause the essence of the corresponding technical solutions to deviate from the protection scope of the technical solutions of the embodiments of the present invention.

Claims

1. A three-oxygen physiological saline mixing device based on an oscillating dispersion structure, characterized in that Comprising: A driving unit (1), the driving unit (1) includes a top plate, the top plate is erected in the air through a bracket, a motor (11) is fixedly connected to the upper end surface of the top plate, a connecting seat (12) is rotatably connected to the lower end surface of the top plate, a driving shaft of the motor (11) penetrates through the top plate and is fixedly connected to the connecting seat (12), a deflection assembly (13) is connected to the lower end of the connecting seat (12), the deflection assembly (13) is connected to an ozone generator (14) through an air inlet pipe, and the ozone generator (14) is fixedly connected to the upper end surface of the top plate; A mixing unit (2), the mixing unit (2) includes a mixing container (21), the lower end surface center of the mixing container (21) is connected to the bottom plate through a base, a liquid inlet valve for introducing physiological saline is fixedly communicated at a position on the side wall of the mixing container (21) and close to the upper part, a liquid outlet valve is fixedly communicated at a position on the side wall of the mixing container (21) and close to the lower part, a supporting assembly (22) for supporting is connected to the outer side wall of the mixing container (21), a mounting seat (23) is penetrated and rotatably connected to the upper end surface of the mixing container (21), a hollow shaft (24) is penetrated and fixedly connected to the mounting seat (23), a plurality of air outlet grooves are uniformly opened on the side wall of the hollow shaft (24) up and down, and a plurality of impellers (25) matched with the air outlet grooves are fixedly sleeved on the hollow shaft (24); An air supply unit (3), the air supply unit (3) includes an air supply pipe (31), the air supply pipe (31) is slidably connected up and down inside the hollow shaft (24), a pumping assembly (32) for promoting gas flow is connected to the upper end of the air supply pipe (31), and a linkage assembly (33) for pushing it to move up and down is connected to the lower end of the air supply pipe (31); Wherein, a folding rod (4) is fixedly sleeved on the outer wall of the hollow shaft (24), the lower end of the folding rod (4) inclines downward at a certain angle in the horizontal direction to keep the mounting seat (23) and the mixing container (21) inclined, and the upper end of the folding rod (4) is connected to the deflection assembly (13).

2. The ozone physiological saline mixing device based on an oscillating dispersion structure according to claim 1, characterized in that: The deflection assembly (13) includes an I-shaped seat (131), the I-shaped seat (131) is fixedly connected below the connecting seat (12), the I-shaped seat (131) is a cavity structure and has an opening at its lower end, a through hole is penetrated and opened on the side wall of the I-shaped seat (131), a rotary connecting pipe (132) is rotatably connected between the upper and lower discs of the I-shaped seat (131), the rotary connecting pipe (132) is communicated with the ozone generator (14) through an air inlet pipe, an air inlet seat (133) is fixedly communicated with the lower end of the I-shaped seat (131), the lower end of the air inlet seat (133) is connected to the pumping assembly (32) through a hose (134), and the outer wall of the air inlet seat (133) is fixedly connected to the upper end of the folding rod (4).

3. The ozone physiological saline mixing device based on an oscillating dispersion structure according to claim 1, characterized in that: The support assembly (22) includes columns (221). A plurality of columns (221) are evenly arranged circumferentially around the base on the upper end surface of the bottom plate. The top end of the column (221) is rotatably connected to a first hinge seat (222). A protective ring is fixedly sleeved on the outer side wall of the mixing container (21). A plurality of second hinge seats (223) corresponding to the first hinge seats (222) are fixedly connected circumferentially and evenly on the outer wall of the protective ring. A spring rod (224) is jointly hinged between the corresponding first hinge seat (222) and second hinge seat (223).

4. The ozone physiological saline mixing device based on an oscillating dispersion structure according to claim 2, characterized in that: The pumping assembly (32) includes an exhaust module (321). The exhaust module (321) is connected to the air supply pipe (31). The exhaust module (321) is arranged on the air exchange chamber (322). The air exchange chamber (322) is a foldable container with a structure similar to that of a corrugated pipe. The lower end of the air exchange chamber (322) is fixedly connected to the top end of the hollow shaft (24). The upper end of the air exchange chamber (322) is fixedly communicated with the air inlet seat (133) through a hose (134).

5. The ozone saline mixing device based on an oscillating dispersion structure according to claim 4, characterized in that: The exhaust module (321) includes a conical seat (3211). The conical seat (3211) is fixedly communicated with the upper end of the air supply pipe (31). The upper end of the conical seat (3211) is fixedly connected to the air exchange chamber (322). A plurality of air holes are evenly formed through the side wall of the conical seat (3211) in the circumferential direction. A conical groove (3212) matching the conical seat (3211) is formed at the lower end of the air exchange chamber (322). A gas exchange pipe (3213) is fixedly communicated with the lower end surface of the air exchange chamber (322). The lower end of the gas exchange pipe (3213) penetrates through the folding rod (4) and the connecting seat (12) and extends into the mixing container (21). A first one-way valve (3214) is fixedly connected to the lower end of the gas exchange pipe (3213). An airbag (3215) is fixedly connected to the folding rod (4). The airbag (3215) is communicated with the gas exchange pipe (3213).

6. The ozonated saline mixing device based on an oscillating dispersion structure according to claim 1, wherein: The linkage assembly (33) includes two connecting pipes (331) symmetrically arranged up and down in the hollow shaft (24). Connecting pieces are fixedly connected to the closer ends of the two connecting pipes (331). A connecting rod is jointly fixedly connected between the two connecting pieces. A limiting seat (332) is slidably connected to the outer side wall of the connecting rod up and down. The limiting seat (332) is fixedly connected to the inner side wall of the hollow shaft (24). The upper connecting pipe (331) is fixedly communicated with the air supply pipe (31) through a second one-way valve. The lower end of the lower connecting pipe (331) is fixedly connected to a reciprocating module (333).

7. A three-oxygen physiological saline mixing device based on an oscillating dispersion structure according to claim 6, characterized in that: The reciprocating module (333) includes a linkage block (3331). The lower end of the lower connecting pipe (331) is fixedly connected to the linkage block (3331). The linkage block (3331) is slidably connected to a bidirectional lead screw (3332) in the vertical direction. The lower end of the bidirectional lead screw (3332) is rotatably connected to a circular plate, and the circular plate is fixedly connected to the mixing container (21). A slide block (3333) that is slidably connected to the bidirectional lead screw (3332) and matches the bidirectional thread groove on its surface is provided. The upper end surface of the slide block (3333) is vertically penetrated and slidably connected to two limiting rods (3334). The lower ends of the limiting rods (3334) are fixedly connected to the circular plate. A connecting ring is rotatably sleeved on the outer wall of the lower connecting pipe (331), and the connecting ring and the slide block (3333) are fixedly connected by a U-shaped rod (3335).

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