Low wind resistance nano water ion device

Abstract

The utility model discloses a low wind resistance nanometer water ion device relates to hairdressing tool technical field, including inner chamber support, ion generating subassembly, heat dissipation shell, heat dissipation fin and installation component, ion generating subassembly is installed on the inner chamber support, and ion generating subassembly is used for the condensed water decomposition into water ion, and the heat dissipation shell is sleeved in the outer wall one end of inner chamber support, and the heat dissipation fin is fixedly connected to the front of heat dissipation shell, and the heat dissipation fin is located the outside of inner chamber support, and installation component sets up on the inner chamber support, and installation component is used to install the restraint of the component on ion generating subassembly. The utility model discloses the cooperation use mode of high -voltage transmitting electrode piece, opposite electrode piece, needle body, heat dissipation shell and cooling module, and high -voltage transmitting electrode piece, opposite electrode piece and needle body convert water molecule into water ion, and take out through the airflow, make water ion can more deeply penetrate into the hair scale in, thereby reach the effect of moistening and protecting hair, reducing static electricity.

Description

Technical Field

[0001] This utility model relates to the field of hair styling tools, and in particular to a low-wind-resistance nano-water ion device. Background Technology

[0002] With the continuous advancement of hair care technology, nano-water ion devices have become a core component of high-end hair styling tools such as hair dryers due to their multiple functions, including moisturizing hair, reducing static electricity, and improving the hair environment.

[0003] However, traditional devices have complex internal structures and airflow channels that are easily blocked, resulting in high wind resistance. This not only reduces the airflow efficiency of the hair dryer, but also makes it difficult for the generated nano water ions to penetrate deep into the hair roots and cuticles with the airflow, limiting the full effectiveness of the care. In addition, the cooling module in the ion generator generates heat when it is working, causing the internal temperature of the device to rise. This not only affects the stability of ion generation, but may also shorten the lifespan of core components, thus having certain defects. Utility Model Content

[0004] The purpose of this invention is to provide a low-wind-resistance nano-water ion device to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a low-wind-resistance nano-water ion device, comprising: Intraluminal stent; An ion generating component is mounted on an inner cavity support and is used to decompose condensate into water ions. A heat dissipation housing, wherein the heat dissipation housing is sleeved onto one end of the outer wall of the inner cavity support; Heat dissipation fins are fixedly connected to the front side of the heat dissipation housing and are located outside the inner cavity support. The mounting assembly is disposed on the inner cavity support and is used to mount and restrain the components on the ion generating assembly.

[0006] Preferably, the ion generating component includes: High-voltage transmitting electrode and opposing electrode are symmetrically arranged on the front side of the inner cavity support; The circular arc grooves are symmetrically formed on the front of the inner cavity support, and the high-voltage transmitting electrode and the opposing electrode are slidably sleeved inside the circular arc grooves.

[0007] Preferably, the ion generating component further includes: The wire lugs are respectively fixedly connected to the middle of the sides of the high-voltage transmitting electrode plate and the opposing electrode plate; The slot is located on the side of the front of the inner cavity support, and the wire lug is engaged inside the slot.

[0008] Preferably, the ion generating component further includes: The needle body is located between the ends of the high-voltage emitting electrode and the opposing electrode; A heat-conducting sheet is fixedly connected to the end of the needle body, and the needle body and the heat-conducting sheet are mounted on the inner cavity support by a mounting assembly.

[0009] Preferably, the mounting assembly includes a mounting frame, which is fixedly connected to the inner cavity support. A groove is provided on one side of the inner wall of the mounting frame, and the heat-conducting sheet is sleeved inside the groove. A through hole is provided on the inner wall of the groove, and the outer wall of the needle body is slidably sleeved with the inner cavity of the through hole.

[0010] Preferably, the mounting components further include: A cooling module is slidably fitted inside the mounting frame, with one side of the cooling module in contact with a heat-conducting sheet; A limiting block is fixedly connected to the heat dissipation housing, and one side of the limiting block is in contact with the cooling module.

[0011] Preferably, the back of the heat dissipation housing is provided with bolt holes, and an inner bolt is provided inside the bolt holes. One end of the outer wall of the inner bolt is threadedly connected to the inner cavity support.

[0012] Preferably, the inner cavity support and the heat dissipation shell are hollow structures.

[0013] The technical effects and advantages of this utility model are as follows: This invention utilizes a combination of a high-voltage emitting electrode, a counter electrode, a needle, a heat dissipation shell, and a cooling module. The high-voltage emitting electrode, the counter electrode, and the needle convert water molecules into water ions, which are then carried out by airflow. This allows the water ions to penetrate deeper into the hair cuticle, thereby moisturizing and protecting the hair, reducing static electricity, and providing additional deep-care effects such as eliminating hair odor, cleaning the scalp, and promoting hair growth. Attached Figure Description

[0014] The accompanying drawings are provided to further illustrate the present invention and form part of the specification. They are used together with the embodiments of the present invention to explain the present invention, but do not constitute a limitation thereof. In the drawings: Figure 1 This is a schematic diagram of the overall structure of this utility model; Figure 2 This is a schematic diagram of the exploded structure of this utility model; Figure 3This is a schematic diagram of the overall structure of the inner cavity support of this utility model; Figure 4 This is a schematic diagram of the overall structure of the needle body of this utility model.

[0015] In the attached diagram: 1. Inner cavity support; 2. Ion generating assembly; 21. High-voltage emission electrode plate; 22. Opposing electrode plate; 23. Arc groove; 24. Wire lug; 25. Slot; 26. Needle body; 27. Heat-conducting plate; 3. Heat dissipation shell; 4. Heat dissipation fins; 5. Mounting assembly; 51. Mounting frame; 52. Cooling module; 53. Limiting block. Detailed Implementation

[0016] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0017] This utility model provides, for example Figures 1-4 The illustrated low-resistance nano-water ion device includes an inner cavity support 1, an ion generating component 2, a heat dissipation shell 3, heat dissipation fins 4, and a mounting assembly 5. The ion generating component 2 is mounted on the inner cavity support 1 and is used to decompose condensed water into water ions. The heat dissipation shell 3 is sleeved on one end of the outer wall of the inner cavity support 1. The inner cavity support 1 and the heat dissipation shell 3 are hollow structures, thus not affecting the airflow through them. Furthermore, when the ion generating component 2 decomposes condensed water into water ions, the airflow through the inner cavity support 1 and the heat dissipation shell 3 can blow out the water ions, allowing the water to... Ions can penetrate deeper into the hair cuticle, thereby moisturizing and protecting the hair, reducing static electricity, and also providing multiple deeper care effects such as eliminating hair odor, cleaning the scalp, and promoting hair growth. The heat dissipation fins 4 are fixedly connected to the front of the heat dissipation housing 3 and are located outside the inner cavity support 1. The mounting component 5 is set on the inner cavity support 1. The heat dissipation housing 3 and the heat dissipation fins 4 are both made of thermally conductive material in one piece, thereby dissipating the heat generated by the ion generating component 2. The mounting component 5 is used to install and bind the components on the ion generating component 2.

[0018] Furthermore, the ion generating assembly 2 includes a high-voltage emission electrode 21, a counter electrode 22, an arcuate groove 23, a wire lug 24, and a slot 25. The high-voltage emission electrode 21 and the counter electrode 22 are symmetrically arranged on the front side of the inner cavity support 1, and the arcuate groove 23 is symmetrically formed on the front side of the inner cavity support 1. The high-voltage emission electrode 21 and the counter electrode 22 are respectively slidably fitted into the interior of the arcuate groove 23, thereby allowing the high-voltage emission electrode 21 and the counter electrode 22 to be stored in a concealed manner, with only the ends of the high-voltage emission electrode 21 and the counter electrode 22 exposed. Since the inner cavity support 1 is made of insulating material, high voltage emission will not occur. In the case of a direct short circuit between the high-voltage emitting electrode 21 and the opposing electrode 22, the lugs 24 are fixedly connected to the middle of the sides of the high-voltage emitting electrode 21 and the opposing electrode 22, respectively. The slot 25 is opened on the side of the front of the inner cavity support 1, and the lugs 24 are snapped into the inside of the slot 25. The lugs 24 can limit the high-voltage emitting electrode 21 and the opposing electrode 22, thereby ensuring the stability of the high-voltage emitting electrode 21 and the opposing electrode 22 installed in the arc groove 23. The lugs 24 are connected to the external high-voltage generator, thereby providing power to the high-voltage emitting electrode 21 and the opposing electrode 22.

[0019] Furthermore, the ion generating assembly 2 also includes a needle body 26 and a heat-conducting plate 27. The needle body 26 is located between the ends of the high-voltage emitting electrode plate 21 and the opposing electrode plate 22. The heat-conducting plate 27 is fixedly connected to the end of the needle body 26. The needle body 26 and the heat-conducting plate 27 are mounted on the inner cavity support 1 via the mounting assembly 5. Figure 1 As shown, when water droplets condense at the end of the needle body 26, the high-voltage emitting electrode 21 and the opposing electrode 22 are energized, which can decompose the water droplets on the outside of the needle body 26 into water ions.

[0020] Furthermore, the mounting component 5 includes a mounting frame 51, a cooling module 52, and a limiting block 53. The mounting frame 51 is fixedly connected to the inner cavity support 1. A groove is formed on one side of the inner wall of the mounting frame 51, and a heat-conducting plate 27 is fitted into the inside of the groove. A through hole is formed on the inner wall of the groove, and the outer wall of the needle body 26 is slidably fitted into the inner cavity of the through hole. The cooling module 52 is slidably fitted into the inside of the mounting frame 51, and one side of the cooling module 52 is in contact with the heat-conducting plate 27. When installing the cooling module 52, thermal silicone is applied to the side of the cooling module 52 facing the heat-conducting plate 27 to improve the heat transfer effect between the cooling module 52 and the heat-conducting plate 27. The cooling module 52 is electrically connected to the control motherboard connected to the ion generating component 2. The cooling module 52 adopts thermoelectric cooling technology, the core principle of which is the Peltier effect. When a direct current passes through a mixture of two different half-wavelengths, the cooling module 52 achieves a cooling effect. When thermoelectricity is generated by a conductive material, a temperature difference is generated at both ends of the material. One end absorbs heat, which is the cooling end, and is in contact with the heat-conducting plate 27. The other end releases heat, which is the heating end. This is existing technology and will not be described in detail here. This provides energy for the cooling module 52. When the cooling module 52 is cooling, the heat-conducting plate 27 can cool the needle body 26, causing condensation on the outside of the needle body 26. The limiting block 53 is fixedly connected to the heat dissipation housing 3. One side of the limiting block 53 is in contact with the cooling module 52. When the heat dissipation housing 3 is installed on the inner cavity support 1, the heat dissipation housing 3 can limit and bind the cooling module 52 and the heat-conducting plate 27 through the limiting block 53. The limiting block 53 is also made of a heat-conducting material. Thus, the heat dissipation housing 3, the heat dissipation fins 4 and the limiting block 53 dissipate the heat generated by the operation of the cooling module 52.

[0021] Specifically, bolt holes are provided on the back of the heat sink housing 3, and an inner bolt is provided inside the bolt holes. One end of the outer wall of the inner bolt is threaded to the inner cavity support 1. By removing the inner bolt, the inner cavity support 1 and the heat sink housing 3 can be disassembled and maintained.

[0022] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A low-wind-resistance nano-water ion device, characterized in that: include: Intraluminal stent (1); Ion generating component (2), which is mounted on inner cavity support (1), is used to decompose condensate into water ions; Heat dissipation housing (3), which is sleeved on one end of the outer wall of the inner cavity support (1); Heat dissipation fins (4) are fixedly connected to the front of the heat dissipation housing (3) and are located outside the inner cavity support (1). Mounting component (5), which is disposed on the inner cavity support (1), is used to mount and bind the components on the ion generating component (2).

2. The low-resistance nano-water ion device according to claim 1, characterized in that: The ion generating component (2) includes: High-voltage transmitting electrode (21) and opposing electrode (22) are symmetrically arranged on the front side of the inner cavity support (1); The circular arc groove (23) is symmetrically opened on the front of the inner cavity support (1), and the high voltage emission electrode (21) and the opposing electrode (22) are respectively slidably sleeved inside the circular arc groove (23).

3. The low-resistance nano-water ion device according to claim 2, characterized in that: The ion generating component (2) further includes: The wire lugs (24) are fixedly connected to the middle of the sides of the high-voltage emission electrode plate (21) and the opposing electrode plate (22); The slot (25) is located on the side of the front of the inner cavity support (1), and the wire ear (24) is engaged inside the slot (25).

4. The low-resistance nano-water ion device according to claim 3, characterized in that: The ion generating component (2) further includes: The needle body (26) is located between the ends of the high-voltage emission electrode plate (21) and the opposing electrode plate (22); A heat-conducting plate (27) is fixedly connected to the end of the needle body (26). The needle body (26) and the heat-conducting plate (27) are mounted on the inner cavity support (1) by the mounting assembly (5).

5. The low-resistance nano-water ion device according to claim 4, characterized in that: The mounting assembly (5) includes a mounting frame (51), which is fixedly connected to the inner cavity support (1). A groove is provided on one side of the inner wall of the mounting frame (51), and the heat-conducting sheet (27) is sleeved inside the groove. A through hole is provided on the inner wall of the groove, and the outer wall of the needle body (26) is slidably sleeved with the inner cavity of the through hole.

6. The low-resistance nano-water ion device according to claim 5, characterized in that: The installation component (5) also includes: Cooling module (52), which is slidably fitted inside the mounting frame (51), with one side of the cooling module (52) in contact with the heat-conducting plate (27); Limiting block (53) is fixedly connected to heat dissipation housing (3), and one side of the limiting block (53) is in contact with cooling module (52).

7. The low-resistance nano-water ion device according to claim 1, characterized in that: The heat dissipation housing (3) has bolt holes on its back side, and an inner bolt is provided inside the bolt holes. One end of the outer wall of the inner bolt is threaded to the inner cavity support (1).

8. The low-resistance nano-water ion device according to claim 1, characterized in that: The inner cavity support (1) and the heat dissipation shell (3) are hollow structures.

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