Vertical pressure rotary water vapor separation structure
By adopting a vertical pressure cyclonic water vapor separation structure and step curved surface boosting technology in the negative oxygen ion generator, the problems of unstable negative ion weight, high humidity and low activity in traditional equipment are solved, and efficient and healthy negative oxygen ions are achieved.
Patent Information
- Application Number
- CN202421922124.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-08-09
- Publication Date
- 2025-05-23
- Estimated Expiration
- 2034-08-09
AI Technical Summary
Traditional negative oxygen ion generators have problems such as unstable negative ion weight, high humidity, low activity, poor health, ozone production, loss of oxygen and moisture in the air, unsilence, and high energy consumption.
The vertical pressure cyclonic water vapor separation structure is adopted, and the water vapor separation grid and angle control structure between the inner movement and the outer case is driven by a micro motor. The step curved surface boosting and high-speed cyclonic ionization technology are used to achieve efficient generation and separation of negative oxygen ions of particles.
It realizes efficient generation and separation of negative oxygen ions, improves the activity and dehumidification of negative oxygen ions, solves the problems of excessive moisture and low negative ions in traditional equipment, and reduces energy consumption and noise.
Smart Images
Figure CN222889600U_ABST
Abstract
Description
Technical Field
[0001] The utility model belongs to the technical field of healthy negative oxygen ion generation, and in particular relates to a vertical pressure cyclonic water vapor separation structure. Background Art
[0002] Negative oxygen ion generator is a commonly used atomization device that uses many technical means to convert liquid into fine droplets. It is widely used in many fields, including medical, agricultural, industrial and household. In the past few decades, atomization technology has been continuously developed and improved.
[0003] Traditional atomizers usually use spray nozzles or spray plates to produce atomization effects, but they have some limitations, such as high humidity, easy clogging, uneven droplets, etc. Centrifugal atomizers are based on the principle of centrifugal force. They throw out liquid through rotational motion and disperse it into fine droplets under the action of centrifugal force. This design can produce uniform and fine droplets, but they are all one-time rotation structures. Their negative oxygen ions are usually medium and large particle negative oxygen ions. At the same time, a large amount of water molecule mist will be generated, which is easy to cause a series of problems caused by excessive air humidity. The low activity of medium and large particle negative oxygen ions causes poor health effects, as well as a series of problems such as short active transmission distance. Utility Model Content
[0004] The purpose of the utility model is to solve some shortcomings of traditional negative oxygen ion generators, such as unstable amount of negative ions generated, high humidity, low activity, poor health, ozone generation, loss of oxygen and moisture in the air, noise, high energy consumption, etc., and to propose a vertical pressure cyclonic water vapor separation structure.
[0005] In order to achieve the above-mentioned purpose, the utility model adopts the following technical scheme: a vertical pressure cycloidal water vapor separation structure, which includes an outer casing, an inner movement, a motor fixing seat, a shock-absorbing fixing seat, and a micro motor, wherein the outer casing, the motor fixing seat and the shock-absorbing fixing seat are a whole, the inner movement is arranged in the outer casing, and the micro motor is fixedly mounted on the motor fixing seat in the outer casing, the inner movement and the micro motor are connected and fixed through the inner core fixing position, the vertical pressure cycloidal water vapor separation structure is arranged in the inner movement, and the inner bottom of the outer casing is provided with the motor fixing seat, the motor wire outlet hole, the fountain-type water outlet hole, the motor fixing hole and the air intake and drainage hole, and the outer bottom of the outer casing is provided with the shock-absorbing fixing seat.
[0006] As a further description of the above technical solution:
[0007] The inner movement includes a water inlet buffer zone, a movement water inlet grille, a pressure surface on the horizontal curved surface, a pressure surface outside the vertical curved surface, a water vapor rising grille, a water vapor separation grille, a water vapor separation angle control, a pressure surface inside the vertical curved surface, a movement water outlet grille, a water vapor rising vortex zone, a water vapor rising vortex zone angle grille, an inner core top air outlet, an outer air turbulence zone of the movement, an outer movement blade, and an inner core fixing position; the movement water inlet grille, a plurality of steps of the pressure surface on the horizontal curved surface, a plurality of steps of the water vapor rising grille, a plurality of steps of the water vapor separation grille, a plurality of steps of the water vapor separation angle control, a plurality of steps of the The pressure surface inside the vertical curved surface, the multiple-step movement water outlet grilles, the multiple-step water vapor rising vortex zone, the multiple-step water vapor rising vortex zone angle grilles, the inner core top air outlet holes, and the movement outer blades are all connected to the inner and outer walls of the inner core as a whole; the pressure surface on the multiple-step horizontal curved surface is arranged in a stepped upward manner, and is arranged in a double L up and down manner with the multiple-step water vapor rising grilles, the multiple-step water vapor separation grilles, and the multiple-step water vapor separation angle controls, and is finally connected to the multiple-step vertical curved surface pressure surface and the multiple-step movement water outlet grilles to form multiple-step water vapor rising vortex zones.
[0008] As a further description of the above technical solution:
[0009] The water vapor rising vortex zone located on the same layer is provided with the water vapor rising grid connected to the pressure surface on the flat curved surface and connected to the water vapor separation grid and the water vapor separation angle control in a double L-shaped upward and downward extension to form a water vapor separation structure connected to the outer wall.
[0010] As a further description of the above technical solution:
[0011] The inner side of the outer wall of the inner movement is provided with a plurality of stepped pressure surfaces inside the vertical curved surface and a plurality of stepped pressure surfaces on the horizontal curved surface to form a pressure structure of the water vapor rising vortex zone.
[0012] As a further description of the above technical solution:
[0013] An external air turbulence zone of the movement is provided between the inner movement and the outer casing, and the movement water outlet grille provided in the water vapor rising vortex zone is communicated with the external air turbulence zone of the movement.
[0014] As a further description of the above technical solution:
[0015] The inner wall of the outer casing is provided with the outer shell inner wall grille structure, and the outer shell inner wall grille structure is located in the turbulent air area outside the movement.
[0016] As a further description of the above technical solution:
[0017] The movement outer blade is provided between the inner movement and the outer casing, and the movement outer blade is located above the inner top of the turbulent air zone outside the movement.
[0018] As a further description of the above technical solution:
[0019] The top of the inner core is extended to form an air outlet at the top of the inner core.
[0020] As a further description of the above technical solution:
[0021] The inner bottom of the outer casing is provided with the motor fixing seat, the motor wire outlet hole, the fountain-type water outlet hole, the motor fixing hole and the air inlet and outlet hole, and the outer bottom of the outer casing is provided with the shock-absorbing fixing seat.
[0022] In summary, due to the adoption of the above technical solution, the beneficial effects of the utility model are:
[0023] 1. In the utility model, the efficient generation of microparticle negative oxygen ions is achieved through components with innovative design and optimized fluid dynamics principles. The stepped water vapor rising vortex structure formed by the water vapor separation structure and the curved surface pressurization structure design of the components exerts the effect of centrifugal force, so that the microparticle negative oxygen ions output in the form of up-air and down-water in the process of high-speed cyclonic reciprocating ionization of water vapor are more dehumidifying and microparticle active. Through the special cyclonic ionization process, the ionization of large-particle water molecules is more complete, and the negative oxygen ions are more natural and healthy. At the same time, the problem of excessive humidity in the air is avoided, and some shortcomings of traditional negative oxygen ion generators are solved, such as unstable amount of negative ions generated, high humidity, low activity, poor health, ozone generation, loss of oxygen and moisture in the air, noise, high energy consumption, etc.
[0024] 2. The utility model can play an important role in the field of indoor environment management such as office, home, elderly care, study, scientific research, leisure, etc., and truly output important particulate elements of healthy air in nature, thus safeguarding the health and quality of life of urban people.
[0025] 3. In the utility model, a large number of healthy and active microparticle negative oxygen ions can be generated more stably, and the concentration of the generated ions can be adjusted to meet different needs. In addition, the structure has the advantages of high energy efficiency, low noise, flexible structure increase and decrease, and wide application scenarios. BRIEF DESCRIPTION OF THE DRAWINGS
[0026] Figure 1 It is a schematic diagram of the overall structure of a vertical pressure cyclonic water vapor separation structure.
[0027] Figure 2 This is an exploded view of a vertical pressure cyclonic water vapor separation structure.
[0028] Figure 3 It is a top view of a vertical pressure cyclonic water vapor separation structure.
[0029] Figure 4 It is a side sectional view of a vertical pressure cyclonic water vapor separation structure.
[0030] Legend:
[0031] 1. Inner movement; 2. Outer casing; 3. Shock-absorbing fixing seat; 4. Motor fixing seat; 5. Grille on inner wall of outer casing; 6. Motor outlet hole; 7. Fountain-type water outlet hole; 8. Air inlet and drain hole; 9. Motor fixing hole; 10. Water inlet buffer zone; 11. Movement water inlet grille; 12. Pressure surface on horizontal curved surface; 13. Pressure surface outside vertical curved surface; 14. Water vapor rising grille; 15. Water vapor separation grille; 16. Water vapor separation angle control; 17. Pressure surface inside vertical curved surface; 18. Movement water outlet grille; 19. Water vapor rising vortex zone; 20. Water vapor rising vortex zone angle grille; 21. Air outlet on top of inner core; 22. Air turbulence zone outside movement; 23. Movement external blades; 24. Inner core fixing position. DETAILED DESCRIPTION
[0032] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments of the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.
[0033] See also Figure 1-4 The utility model provides a technical solution: a vertical pressure cycloidal water vapor separation structure, comprising an outer casing 2, an inner movement 1, a motor fixing seat 4, a shock absorbing fixing seat 3, and a micro motor, wherein the outer casing 2, the motor fixing seat 4 and the shock absorbing fixing seat 3 are an integral whole, the inner movement 1 is arranged in the outer casing 2, and the micro motor is fixedly mounted on the motor fixing seat 4 in the outer casing 2, the inner movement 1 and the micro motor are connected and fixed through the fixed position of the inner movement 1, the vertical pressure cycloidal water vapor separation structure is arranged in the inner movement 1, and the inner bottom of the outer casing 2 is provided with the motor fixing seat 4, the motor outlet hole 6, the fountain-type water outlet hole 7, the motor fixing hole 9 and the air intake and drainage hole 8, and the outer bottom of the outer casing 2 is provided with the shock absorbing fixing seat 3;
[0034] The inner movement 1 includes a water inlet buffer zone 10, a movement water inlet grille 11, a pressure surface 12 on a horizontal curved surface, a pressure surface 13 outside a vertical curved surface, a water vapor rising grille 14, a water vapor separation grille 15, a water vapor separation angle control 16, a pressure surface inside a vertical curved surface 17, a movement water outlet grille 18, a water vapor rising vortex zone 19, a water vapor rising vortex zone angle grille 20, an inner core top air outlet 21, an outer movement air turbulence zone 22, a movement outer blade 23, and an inner core fixing position 24; the movement water inlet grille 11, a plurality of steps of the pressure surface 12 on the horizontal curved surface, a plurality of steps of the pressure surface 13 outside the vertical curved surface, a plurality of steps of the water vapor rising grille 14, a plurality of steps of the water vapor separation grille 15, a plurality of steps of the water vapor separation angle control 16, the pressure surface 17 in the vertical curved surface, the water outlet grille 18 in the movement, the water vapor rising vortex area 19 in the vertical curved surface, the water vapor rising vortex area angle grille 20 in the vertical curved surface, the air outlet hole 21 at the top of the inner core, and the outer vane 23 of the movement are all connected to the inner and outer walls of the inner movement 1 as a whole; the pressure surface 12 on the horizontal curved surface of the multiple steps is arranged upward in a step-by-step manner, and is arranged in a double L up and down manner with the water vapor rising grille 14 in the vertical curved surface, the water vapor separation grille 15 in the horizontal curved surface, and the water vapor separation angle control 16 in the horizontal curved surface, and is finally connected to the pressure surface 17 in the vertical curved surface, the water outlet grille 18 in the movement, and forms the water vapor rising vortex area 19 in the horizontal curved surface;
[0035] The water vapor rising cyclotron zone 19 located at the same layer is provided with the water vapor rising grid 14 connected to the pressure surface 12 on the flat curved surface and the water vapor separation grid 15 and the water vapor separation angle control 16 extending up and down in a double L shape to connect the outer wall to form a water vapor separation structure;
[0036] The inner side of the outer wall of the inner movement 1 is provided with a plurality of stepped vertical curved inner pressure surfaces 17 and a plurality of stepped horizontal curved upper pressure surfaces 12 to form a pressure structure of the water vapor rising vortex area 19;
[0037] The movement external air turbulence zone 22 is provided between the inner movement 1 and the outer housing 2, and the movement water outlet grille 18 provided in the water vapor rising vortex zone 19 is connected to the movement external air turbulence zone 22;
[0038] The inner wall of the outer casing 2 is provided with the outer shell inner wall grille 5 structure, and the outer shell inner wall grille 5 structure is located in the outer air turbulence area 22 of the movement;
[0039] The movement outer blade 23 is provided between the inner movement 1 and the outer housing 2, and the movement outer blade 23 is located above the inner top of the movement outer air turbulence area 22;
[0040] The top of the inner core 1 is extended to form an inner core top air outlet 21;
[0041] The inner bottom of the outer casing 2 is provided with the motor fixing seat 4, the motor wire outlet hole 6, the fountain-type water outlet hole 7, the motor fixing hole 9 and the air inlet and outlet hole 8, and the outer bottom of the outer casing 2 is provided with the shock-absorbing fixing seat 3.
[0042] Working principle: First, when in use, the device is fixed as a whole using the motor fixing hole 9 and the inner core fixing position 24, the external connection part of the fountain-type water outlet 7 is connected to the tap water source, and the water in the fountain-type water outlet 7 is sprayed into the water inlet buffer zone 10. The micromotor rotates after being powered on. The rotation of the micromotor drives the water in the water inlet buffer zone 10 to enter the movement water inlet grille 11 under the effect of centrifugal force, and the water passes through the water vapor rising grille 14 at high speed under the centrifugal supercharging effect of the pressure surface 12 on the horizontal curved surface of the bottom layer and the pressure surface 13 outside the vertical curved surface. The water vapor after passing through will be separated by the water vapor separation angle control 16 in the way of upper air and lower water and extend to the water vapor separation grille 1 5 is ionized and enters the water vapor rising vortex zone 19 and the movement water outlet grille 18. At this time, the ionized gaseous body is sent into the water vapor rising vortex zone 19 under the centripetal supercharging effect of the pressure surface inside the vertical curved surface, and the ionized liquid body is discharged into the external turbulent zone 22 of the movement through the movement water outlet grille 18. The liquid body formed by the collision with the inner wall grille 5 of the outer shell enters the air inlet drainage hole 8 for discharge, and the gaseous body in the external turbulent zone 22 of the movement is upwardly led out by the external guide blades 23 of the movement; and the gaseous body in the water vapor rising vortex zone 19 is finally discharged upward through the outlet hole 21 at the top of the inner core. The gaseous negative oxygen ions after reciprocating vortex ionization are more active and dehumidifying.
[0043] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes within the technical scope disclosed by the present invention according to the technical scheme and the utility model concept of the present invention, which should be covered by the protection scope of the present invention.
Claims
1. A vertical pressure cyclonic water vapor separation structure, characterized in that: The invention comprises an inner movement (1), an outer casing (2), a shock-absorbing fixing seat (3), a motor fixing seat (4) and a micro motor, wherein the outer casing (2), the shock-absorbing fixing seat (3) and the motor fixing seat (4) are an integral whole, the inner movement (1) is arranged in the outer casing (2), and the inner movement (1) is fixedly mounted on the motor of the motor fixing seat (4), the vertical pressure rotary water vapor separation structure is arranged in the inner movement (1), and the inner movement (1) and the outer casing are connected to each other. An external air turbulence zone (22) of the movement is formed between the inner walls of the inner core (2), the micro motor is mounted on the motor fixing seat (4), and the micro motor is connected and fixed through the inner core fixing position (24) to drive the inner movement (1), and the bottom of the motor fixing seat (4) is provided with a motor outlet hole (6), a fountain-type water outlet hole (7), an air intake and drainage hole (8) and a motor fixing hole (9), and the water sprayed from the fountain-type water outlet hole (7) enters the interior of the inner movement (1) through the rotating centrifugal effect.
2. A vertical pressure cyclonic water vapor separation structure according to claim 1, characterized in that: The inner movement (1) comprises a water inlet buffer zone (10), a movement water inlet grille (11), a pressure surface on a horizontal curved surface (12), a pressure surface outside a vertical curved surface (13), a water vapor rising grille (14), a water vapor separation grille (15), a water vapor separation angle control (16), a pressure surface inside a vertical curved surface (17), a movement water outlet grille (18), a water vapor rising vortex zone (19), a water vapor rising vortex zone angle grille (20), an inner core top air outlet hole (21), an outer movement air turbulence zone (22), a movement outer blade (23), and an inner core fixing position (24); the movement water inlet grille (11), a plurality of steps of the pressure surface on the horizontal curved surface (12), the outer vertical curved surface pressure surface (13), a plurality of steps of the water vapor rising grille (14), a plurality of steps of the water vapor separation grille (15), a plurality of steps of the The water vapor separation angle control (16), the multiple steps of the vertical curved surface inner pressure surface (17), the multiple steps of the movement water outlet grille (18), the multiple steps of the water vapor rising vortex area (19), the multiple steps of the water vapor rising vortex area angle grille (20), the inner core top air outlet hole (21), and the movement outer blade (23) are all connected to the inner and outer walls of the inner movement as a whole; the multiple steps of the horizontal curved surface upper pressure surface (12) is arranged in a stepped upward manner, and is arranged in a double L up and down manner with the multiple steps of the vertical curved surface inner pressure surface (17), the multiple steps of the water vapor separation grille (15), and the multiple steps of the water vapor separation angle control (16), and is finally connected to the multiple steps of the vertical curved surface inner pressure surface (17) and the multiple steps of the movement water outlet grille (18) to form the multiple steps of the water vapor rising vortex area (19).
3. A vertical pressure cyclonic water vapor separation structure according to claim 2, characterized in that: The water vapor rising cyclotron zone (19) located at the same layer is provided with the water vapor rising grid (14) connected to the pressure surface (12) on the flat curved surface and extending up and down in a double L-shaped manner with the water vapor separation grid (15) and the water vapor separation angle control (16) to connect to the outer wall to form a water vapor separation structure.
4. A vertical pressure cyclonic water vapor separation structure according to claim 3, characterized in that: The inner side of the outer wall of the inner core (1) is provided with a plurality of stepped vertical curved inner pressure surfaces (17) and a plurality of stepped horizontal curved upper pressure surfaces (12) to form a pressure structure of the water vapor rising vortex zone (19).
5. A vertical pressure cyclonic water vapor separation structure according to claim 4, characterized in that: An external air turbulence zone (22) is provided between the inner movement (1) and the outer casing (2), and the movement water outlet grille (18) provided in the water vapor rising vortex zone (19) is connected to the external air turbulence zone (22).
6. A vertical pressure cyclonic water vapor separation structure according to claim 5, characterized in that: An outer shell inner wall grille (5) structure is provided on the inner wall of the outer casing (2), and the outer shell inner wall grille (5) structure is located in the outer air turbulence area (22) of the core.
7. The vertical pressure cyclonic water vapor separation structure according to claim 6, characterized in that: The movement outer blade (23) is provided between the inner movement (1) and the outer casing (2), and the movement outer blade (23) is located above the inner top of the movement outer air turbulence zone (22).
8. The vertical pressure cyclonic water vapor separation structure according to claim 7, characterized in that: The inner core top air outlet (21) is provided on the outer extension of the top of the inner core (1).
9. The vertical pressure cyclonic water vapor separation structure according to claim 8, characterized in that: The inner bottom of the outer casing (2) is provided with the motor fixing seat (4), the motor wire outlet hole (6), the fountain-type water outlet hole (7), the motor fixing hole (9) and the air inlet and outlet hole (8), and the outer bottom of the outer casing (2) is provided with the shock-absorbing fixing seat (3).