Ion and water mist complementary directional enrichment system and hairdressing device

Abstract

The invention relates to the technical field of household appliances, in particular to an ion and water mist complementary directional enrichment system and a hairdressing device.The ion and water mist complementary directional enrichment system comprises a transmission channel, an ion generation device arranged at the upstream end of the transmission channel and a water mist generation device arranged at the downstream end of the transmission channel; when the water mist generating device diffuses water mist particles to the transmission channel, at least area A water mist particles diffusing towards the downstream end and area B water mist particles diffusing towards the ion generating device exist, and the area B water mist particles form diffusion thrust; and when the ion generating device ionizes the water mist particles in the region B, ion injection thrust towards the downstream end can be generated. Compared with the prior art, the water mist particles in the zone B are diffused towards the ion generation device to replace a water film in the traditional technology, so that the ion generation device can produce ions without waiting for the generation of the water film, the hidden starting time of ion generation is shortened, and the ion generation efficiency and the generation concentration are improved.

Description

Technical Field

[0001] This invention relates to the field of household appliance technology, and in particular to a directional enrichment system and hair styling device that complements ions and water mist. Background Technology

[0002] In related technologies, some hair styling devices are typically equipped with ion generators to produce ions to assist users in combing their hair. The core prerequisite for ion generation is the formation of a stable water film on the surface of the ion needles, but the formation of a stable water film requires either adsorption of ambient water vapor or active water supply.

[0003] However, the inventors discovered during the actual research and development process that the ion generator still has the following defects: even if the water film formation time is in the millisecond range, the ion generator needs to wait for the water film to adhere after it starts working, resulting in an implicit start-up time for ion generation, which makes it impossible to achieve the effect of instant ion output and there is a delay in start-up; at the same time, once the humidity of the environment where the ion generator is located is low, the water film is difficult to form or easily evaporates, resulting in large fluctuations in the amount of ion generated, a sharp drop in discharge efficiency, and poor working stability.

[0004] Therefore, a new technical solution needs to be researched to address the above problems. Summary of the Invention

[0005] In view of this, the present invention addresses the deficiencies of the prior art by providing a directional enrichment system that complements ions and water mist, effectively solving the technical defects of ion generators in the prior art, such as start-up delay and poor operational stability.

[0006] This invention provides a directional enrichment system that complements ions and water mist, comprising: The transmission channel has an upstream end and a downstream end; An ion generator is used to inject ions into a transmission channel; and A water mist generator is used to diffuse water mist particles into the transmission channel; The water mist generator is located in the transmission channel and is positioned near the downstream end, while the ion generator is located in the transmission channel and is situated between the water mist generator and the upstream end. When the water mist generator diffuses water mist particles into the transmission channel, there are at least water mist particles in area A that diffuse towards the downstream end and water mist particles in area B that diffuse towards the ion generator. The water mist particles in area B constitute the diffusion thrust. When the ion generator ionizes the water mist particles in area B, it can generate an ion jet thrust towards the downstream end.

[0007] The beneficial effects of the ion and water mist complementary directional enrichment system provided by the present invention are as follows: Compared with the prior art, firstly, molecular-level water mist particles are generated by the water mist generator, and when these molecular-level water mist particles diffuse in the transmission channel, at least B-region water mist particles diffuse toward the ion generator, thereby replacing the water film in the traditional technology. This allows the ion generator to produce ions without waiting for the water film to be generated, shortening the implicit start-up time of ion generation and improving the ion generation efficiency and concentration. Secondly, when water mist particles diffuse within the transmission channel, water mist particles in area A can diffuse towards the downstream end, while water mist particles in area B can diffuse towards the ion generator (i.e., towards the upstream end). Utilizing water mist particles in area B to balance the operating humidity of the ion generator helps stabilize the discharge efficiency of the ion generator, thereby further improving the operational stability of the ion generator.

[0008] As a preferred option, the water mist particle diffusion amount in area A is defined as the first diffusion amount, and the water mist particle diffusion amount in area B is defined as the second diffusion amount, with the first diffusion amount being greater than the second diffusion amount.

[0009] As a preferred option, the second diffusion amount has a preset minimum value and a preset maximum value; When the second diffusion amount is at the preset minimum value, the diffusion thrust is greater than the ion jet thrust; when the second diffusion amount is at the preset maximum value, the ion jet thrust is greater than the diffusion thrust.

[0010] As a preferred option, the second diffusion amount also includes a preset intermediate value; As the second diffusion amount gradually changes from the preset intermediate value to the minimum value, the diffusion thrust gradually becomes greater than the ion jet thrust. As the second diffusion amount gradually changes from the preset intermediate value to the maximum value, the ion jet thrust gradually becomes greater than the diffusion thrust.

[0011] As a preferred embodiment, the ion generator has an ion needle that extends into one end of the transmission channel and is inclined toward the downstream end.

[0012] As a preferred embodiment, the transmission channel is provided with a first mounting cavity for mounting an ion generator and a second mounting cavity for mounting a water mist generator. The first mounting cavity and the second mounting cavity are electrically connected to the transmission channel and are located between the upstream end and the downstream end. The first mounting cavity and the second mounting cavity are located on the same side or opposite side of the transmission channel.

[0013] As a preferred embodiment, it also includes a directional drive device located at the upstream end of the transmission channel.

[0014] The present invention also provides a hair styling device equipped with a directional enrichment system that complements ions and water mist.

[0015] The beneficial effects of the hair styling device provided by this invention are as follows: by installing a directional enrichment system that complements ions and water mist in the hair styling device, molecular-level water mist particles can be generated through the water mist generator. When these molecular-level water mist particles diffuse in the transmission channel, at least some water mist particles in region B diffuse toward the ion generator, thereby replacing the water film in the traditional technology. This allows the ion generator to produce ions without waiting for the water film to form, shortening the implicit start-up time of ion generation and improving the ion generation efficiency and concentration. This enables the hair styling device to achieve ion-water mist particle combination to assist users in hair care. The synergistic effect of ions and water mist particles can improve the hair static electricity elimination rate and the hair cuticle closing speed.

[0016] As a preferred embodiment, the hair styling device is a heated comb, which includes a handle and a comb head, the comb head including a styling surface on the upper surface and a back surface on the lower surface; The transmission channel is located in the comb, and at least the downstream end of the transmission channel penetrates the styling surface; Alternatively, the transmission channel is located on the comb, with the downstream end of the transmission channel penetrating the styling surface and the upstream end penetrating the back.

[0017] As a preferred embodiment, the first mounting cavity is located in the comb head, and the first mounting cavity has a first spray port that is connected to the transmission channel. The first spray port passes through the left side and / or right side of the transmission channel and is inclined towards the downstream end. The ion needle has an emitting part that extends from the first jet nozzle toward the transmission channel.

[0018] As a preferred embodiment, the second mounting cavity is located in the comb or handle, and the second mounting cavity has a second jet port that is connected to the transmission channel, the second jet port penetrating the front side and / or rear side of the transmission channel.

[0019] As a preferred option, the shaped surface is provided with at least heating teeth so that the temperature of the shaped surface is higher than that of the back surface. Attached Figure Description

[0020] To more clearly illustrate the technical solutions in the embodiments of this application, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0021] Figure 1 This is a schematic diagram of the first structure of the directional enrichment system that complements ions and water mist provided in the embodiments of this application; Figure 2 This is a schematic diagram of the second structure of the ion and water mist complementary directional enrichment system provided in the embodiments of this application; Figure 3 yes Figure 1 The diagram shows a three-dimensional structure of a directional enrichment system that complements ions and water mist, installed in a hair styling device. Figure 4 yes Figure 3 An exploded view of a portion of the hair styling device shown. Figure 5 yes Figure 3 A full sectional view of the hair styling device in the front-to-back direction; Figure 6 yes Figure 3 The diagram shows a full cross-section of the hair styling device from left to right.

[0022] The following are the labeling elements in the figure: 100. A directional enrichment system that complements ions and water mist; 10. Transmission channel; 11. Upstream end; 12. Downstream end; 13. First mounting cavity; 131. First jet nozzle; 14. Second mounting cavity; 141. Second jet nozzle; 20. Ion generator; 21. Ion needle; 211. Emitting part; 30. Water mist generator; 301. Water mist particles in area A; 302. Water mist particles in area B; 40. Directional drive device; F1, Diffusion thrust; F2, Ion jet thrust; 200. Hair styling equipment; 201. Handle; 202. Comb; 2021. Styling surface; 2022. Back; 2023. Heating teeth; r1, first axis; r2, second axis; w1, first diameter; w2, second diameter; a1, first included angle. Detailed Implementation

[0023] To make the technical problems, technical solutions, and beneficial effects to be solved by this application clearer, the following detailed description is provided in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and are not intended to limit the scope of this application.

[0024] It should be noted that when a component is referred to as being "fixed to" or "set on" another component, it can be directly on or indirectly on that other component. When a component is referred to as being "connected to" another component, it can be directly connected to or indirectly connected to that other component.

[0025] It should be understood that the terms "length", "width", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this application.

[0026] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this application, "multiple" means two or more, unless otherwise explicitly specified.

[0027] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments.

[0028] Please refer to the following: Figures 1 to 2 The directional enrichment system 100, which is complementary to ions and water mist, provided in the embodiments of this application will now be described. The directional enrichment system 100, which is complementary to ions and water mist, includes a transmission channel 10, an ion generator 20, and a water mist generator 30.

[0029] The transmission channel 10 has an upstream end 11 and a downstream end 12. An ion generator 20 is used to spray ions into the transmission channel 10, and a water mist generator 30 is used to diffuse water mist particles into the transmission channel 10. The water mist generator is located in the transmission channel 10 and is positioned near the downstream end 12. The ion generator is located in the transmission channel 10 and is positioned between the water mist generator and the upstream end 11. When the water mist generator 30 diffuses water mist particles into the transmission channel 10, there are at least A-region water mist particles 301 that diffuse towards the downstream end 12 and B-region water mist particles 302 that diffuse towards the ion generator 20. The B-region water mist particles 302 constitute a diffusion thrust F1. When the ion generator 20 ionizes the B-region water mist particles 302, it can generate an ion spray thrust F2 towards the downstream end 12.

[0030] It should be noted that the diffusion thrust F1 is the driving force when the water mist particles in area B diffuse toward the ion generator (upstream end). Its core function is to ensure that the water mist particles reach the surface of the ion needle efficiently, replacing the traditional water film. Figure 1 and Figure 2The arrow corresponding to F1 indicates the diffusion direction of the water mist particles in area B and the direction of the diffusion thrust F1; the ion jet thrust F2 is the ion jet thrust generated downstream after ionization by the ion generator. Figure 1 and Figure 2 The arrow in F2 indicates the direction of transport of the ion and water mist particle mixture; its core function is to propel the ion and water mist mixture towards the hair side. The two work synergistically through dynamic changes in the second diffusion rate, ensuring a balance between feedback efficiency and transport efficiency, and allowing for force comparison without relying on unidirectional forces.

[0031] Specifically, compared with the prior art, in the first aspect, molecular-level water mist particles are generated by the water mist generator 30, and when these molecular-level water mist particles diffuse in the transmission channel 10, at least B-region water mist particles 302 diffuse toward the ion generator 20, thereby replacing the water film in the conventional technology, so that the ion generator 20 can produce ions without waiting for the water film to be generated, shortening the implicit start-up time of ion generation, and improving the ion generation efficiency and generation concentration; Secondly, when the water mist particles diffuse within the transmission channel 10, the water mist particles 301 in area A can diffuse towards the downstream end 12, and the water mist particles 302 in area B can diffuse towards the ion generator 20 (i.e., towards the upstream end 11). The water mist particles 302 in area B balance the working humidity of the ion generator 20, which is beneficial to stabilizing the discharge efficiency of the ion generator 20, thereby further improving the working stability of the ion generator 20.

[0032] In some embodiments, after the water mist generating device 30 inputs water mist particles into the transmission channel 10, since the water mist generating device 30 is located at the downstream end 12, the water mist particles 301 in area A diffuse towards the downstream end 12, and the water mist particles 302 in area B diffuse towards the ion generating device 20 (i.e., diffuse in the opposite direction towards the upstream end 11). The diffusion amount of water mist particles 301 in area A is defined as the first diffusion amount, and the diffusion amount of water mist particles 302 in area B is defined as the second diffusion amount. The value of the first diffusion amount is greater than the value of the second diffusion amount. Thus, most of the water mist particles (i.e., water mist particles 301 in area A) diffuse out of the transmission channel 10 towards the downstream end 12, while a small portion of the water mist particles (i.e., water mist particles 302 in area B) diffuse upstream to the ion generating device 20.

[0033] It should be noted that, since the water mist particles 302 in area B that need to be controlled to diffuse upstream occupy a small portion of the water mist particle content in the transmission channel 10, the diffusion amount of water mist particles 301 in area A is greater than the diffusion amount of water mist particles 302 in area B under any circumstances.

[0034] Specifically, the second diffusion amount has a preset minimum value, a preset intermediate value, and a preset maximum value. When the second diffusion amount is at the preset minimum value, the diffusion thrust F1 is greater than the ion jet thrust F2. When the second diffusion amount is at the preset maximum value, the ion jet thrust F2 is greater than the diffusion thrust F1. As the second diffusion amount gradually changes from the preset intermediate value to the minimum value, the diffusion thrust F1 gradually becomes greater than the ion jet thrust F2. As the second diffusion amount gradually changes from the preset intermediate value to the maximum value, the ion jet thrust F2 gradually becomes greater than the diffusion thrust F1.

[0035] It is understood that, in this invention, the preset minimum value, preset intermediate value, and preset maximum value of the second diffusion amount can be determined through conventional experiments based on the application scenario of the hair styling device (such as environmental humidity and hair type), with an exemplary range of 0.01 mg / cm³. 2 -0.1mg / cm 2 However, it is not limited to this value; the dynamic adjustment of the second diffusion amount can be triggered by conventional sensors in the field (such as humidity sensors and ion concentration sensors). When the sensor detects a decrease in the discharge efficiency of the ion generator or an ion concentration lower than a preset threshold, it can control the water mist generator to appropriately increase the atomization power and increase the second diffusion amount, and vice versa, without the need for additional special triggering structures. The airflow intensity of the directional drive device 40 needs to be adapted to the dynamic balance between the diffusion thrust F1 and the ion jet thrust F2. The airflow thrust it provides is less than the minimum value of the diffusion thrust F1 and the ion jet thrust F2, and is only used to assist the mixture in the transport channel. It does not affect the feedback of water mist particles in area B to the ion generator. The specific airflow intensity can be determined through conventional experimental optimization.

[0036] For example, the diffusion amount of water mist particles 302 in area B is 0.01 mg / cm², which is the second diffusion amount. 2 -0.1mg / cm 2 Take 0.01 mg / cm 2 The preset minimum value is 0.1 mg / cm³. 2 The preset maximum value is 0.05 mg / cm³. 2 This is a preset intermediate value. When the second diffusion rate of water mist particles 302 in zone B is 0.01 mg / cm³,... 2 -0.05mg / cm 2When the amount of water mist particles diffusing into the ion generator 20 decreases, the ion jet thrust F2 also decreases. When the second diffusion amount is at its minimum value, it triggers the ion jet thrust F2 to reach its minimum value. As the ion jet thrust F2 decreases, the second diffusion amount of water mist particles 302 in zone B gradually changes from a preset minimum value to a preset maximum value, thereby increasing the diffusion thrust F1. This causes the water mist particles 302 in zone B to feed back into the ion generator 20 and increase the ion jet thrust F2. When the second diffusion amount of water mist particles 302 in zone B is 0.05 mg / cm³... 2 -0.1mg / cm 2 At that time, the diffusion thrust F1 was still greater than the ion jet thrust F2, and the second diffusion amount was 0.1 mg / cm. 2 At its maximum value, the ion jet thrust F2 is greater than the diffusion thrust F1, thereby controlling the water mist particle content fed back by the water mist particles 302 in zone B to not exceed the water mist particle content borne by the ion needle 21.

[0037] It is understandable that when the second diffusion amount of water mist particles 302 in zone B decreases, the content of water mist particles diffused from zone B to the ion generator 20 decreases, which leads to a decrease in the ion jet thrust F2 generated by the ion generator 20. This triggers a gradual increase in the second diffusion amount of water mist particles 302 in zone B, thereby increasing the content of water mist particles diffused from zone B to the ion generator 20. During this process, as the ion jet thrust F2 gradually increases, it gradually causes the diffusion thrust F1 to decrease, resulting in a decrease in the content of water mist particles diffused from zone B to the ion generator 20. The quantity changes from large to small, and this cycle repeats, causing the water mist particles to reach a specific concentration within the transmission channel 10. Based on this specific concentration, the ion generator 20 is controlled to operate, allowing it to enhance its ion production concentration within the same working space by utilizing some of the water mist particles from the water mist generator 30, thus achieving ion concentration enrichment. Furthermore, when both the water mist particle concentration and ion concentration are at their highest values, the ion jet thrust F2 is made greater than the diffusion thrust F1, thereby ejecting the water mist particles mixed with ions from the downstream end 12 within the working space (i.e., the transmission channel 10). When the second diffusion amount of the water mist particles 302 in zone B is at a preset intermediate value, the ion jet thrust F2 is slightly greater than the ion diffusion thrust F1, causing the water mist generator 30 to provide a specific amount of water mist particles 302 from zone B to feed back into the ion generator 20, achieving continuous ion generation and ejection towards the downstream end 12.

[0038] Preferably, the directional enrichment system 100, which complements ions and water mist, can automatically adjust the parameters of the atomized water mist particles generated by the water mist particle generator according to the actual changes in humidity and air pressure in the working environment, thereby maintaining the ion concentration and water mist particle content under different working environments and air pressures. By controlling the relative humidity of the transmission channel 10 to be above 70% in the working environment, the ion discharge efficiency can be increased by 30%-40%.

[0039] Please refer to the following: Figure 1 In some embodiments, the ion generating device 20 has an ion needle 21 extending towards one end of the transmission channel 10 and inclined towards the downstream end 12. The inclined ion needle 21 directs the ion jet stream produced by it towards the downstream end 12, using this jet stream to drive the water mist particles and ions within the transmission channel 10 downstream. This structure eliminates the need for blowers and fan blades to drive the water mist particles and ions within the transmission channel 10 downstream, simplifying the overall structure of the ion-water mist complementary directional enrichment system 100. This allows for a smaller size of the ion-water mist complementary directional enrichment system 100, making it suitable for installation on smaller devices and further enhancing its versatility.

[0040] Specifically, the transmission channel 10 is provided with a first mounting cavity 13 for mounting an ion generator 20 and a second mounting cavity 14 for mounting a water mist generator 30. The first mounting cavity 13 and the second mounting cavity 14 are electrically connected to the transmission channel 10 and are located between the upstream end 11 and the downstream end 12. The first mounting cavity 13 and the second mounting cavity 14 are located on the same side or opposite side of the transmission channel 10. The second mounting cavity 14 is located near the downstream end 12 of the transmission channel 10, and the first mounting cavity 13 is spaced apart from the first mounting cavity 14 and located upstream of the second mounting cavity 14. That is, the transmission channel 10 is provided with the first mounting cavity 13 and the second mounting cavity 14 sequentially from the upstream end 11 to the downstream end 12.

[0041] Please refer to the following: Figure 2 In some other embodiments, a directional drive device 40 is also included, which is located at the upstream end 11 of the transmission channel 10. The directional drive device 40 is a blower or fan blade. By setting the directional drive device 40, an auxiliary airflow can be provided to spray water mist particles and ions in the transmission channel 10 to the downstream end 12. However, the airflow thrust provided by the directional drive device 40 must be less than the diffusion thrust F1 and the ion jet thrust F2 to avoid the directional drive device 40 affecting the normal operation of the water mist generator 30 and the ion generator 20.

[0042] Please refer to the following: Figures 3 to 6In some embodiments, a hair styling device 200 is also provided, which is equipped with a directional enrichment system 100 that complements ions and water mist. By installing the directional enrichment system 100 that complements ions and water mist in the hair styling device 200, molecular-level water mist particles can be generated by the water mist generator 30. When these molecular-level water mist particles diffuse in the transmission channel 10, at least B-region water mist particles 302 diffuse toward the ion generator 20, thereby replacing the water film in the conventional technology. This allows the ion generator 20 to produce ions without waiting for the water film to form, shortening the implicit start-up time of ion generation and improving the ion generation efficiency and concentration. This enables the hair styling device 200 to achieve ion-combined water mist particles to assist users in hair care. The synergistic effect of ions and water mist particles can improve the hair static electricity elimination rate and the hair cuticle closing speed.

[0043] It should be noted that the hair styling device 200 can be any one of a hair dryer, curling iron, heated clip, or hair comb.

[0044] Specifically, the hair styling device 200 is a heated comb, which includes a handle 201 and a comb head 202. The comb head 202 includes a styling surface 2021 on the upper surface and a back surface 2022 on the lower surface. A transmission channel 10 is provided on the comb head 202, and at least the downstream end 12 of the transmission channel 10 penetrates the styling surface 2021, so that the transmission channel 10 is provided in a groove structure.

[0045] More specifically, a first mounting cavity 13 is disposed in the comb head 202. The first mounting cavity 13 has a first jet port 131 that is conductively connected to the transmission channel 10. The first jet port 131 penetrates the left side and / or right side of the transmission channel 10 and is inclined towards the downstream end 12. The ion needle 21 has an emitting part 211 that extends from the first jet port 131 toward the transmission channel 10. A second mounting cavity 14 is disposed in the comb head 202 or the handle 201. The second mounting cavity 14 has a second jet port 141 that is conductively connected to the transmission channel 10. The second jet port 141 penetrates the front side and / or rear side of the transmission channel 10.

[0046] Preferably, the first injection port 131 is tilted at an angle of 120 to 130 degrees relative to the surface of the transmission channel.

[0047] For example, the first mounting cavity 13 is located in the comb 202 and surrounds the transmission channel 10; there are at least four first spray nozzles 131, two of which penetrate the left side of the transmission channel 10 and the other two penetrate the right side of the transmission channel 10, with the first spray nozzles 131 on each side spaced back-to-back. The second mounting cavity 14 is located in the handle 201, and the second spray nozzle 141 penetrates the rear side of the transmission channel 10 and is located near the downstream end 12. Since the second spray nozzle 141 is located near the downstream end 12, after the water mist particles are sprayed into the transmission channel 10 from the second spray nozzle 141, most of the water mist particles diffuse directly from the downstream end 12 to the styling surface 2021 as water mist particles 301 in area A; only a small portion of the water mist particles diffuse upstream to the location of the ion generator 20 as water mist particles 302 in area B. Furthermore, the magnitude of the ion jet thrust F2 generated by the ion generator 20 is controlled according to the amount of water mist particles 302 in area B diffusing to the upstream end 11, thereby pushing the mixture of ions and water mist particles in the transmission channel 10 to be ejected together from the downstream end 12 of the transmission channel 10.

[0048] Furthermore, the shaping surface 2021 is provided with at least heating teeth 2023, making the temperature of the shaping surface 2021 higher than that of the back surface 2022. This structure allows the downstream end 12 to have a higher temperature than the upstream end 11, resulting in natural convection dominated by density difference within the transmission channel 10. Specifically, the downstream end 12 has a higher temperature, causing the water mist particles and ions within the transmission channel 10 to expand due to heat; the upstream end 11 has a lower temperature, increasing the air density. According to hydrostatic equilibrium, the denser upstream air will generate a downward thrust. Using this method, there is no need to set up a directional drive device 40. By utilizing the temperature difference and ion jet airflow, the water mist particles and ions within the transmission channel 10 are propelled out from the downstream.

[0049] In other embodiments, the transmission channel 10 is disposed on the comb 202, and the downstream end 12 of the transmission channel 10 penetrates the styling surface 2021, while the upstream end 11 of the transmission channel 10 penetrates the back surface 2022. This structure helps to control the temperature of the back surface 2022 to be lower than that of the styling surface 2021, thereby further improving the air convection effect.

[0050] Specifically, the handle 201 and the comb head 202 are sequentially arranged along the second axis r2, with the comb head 202 integrally formed at the front end of the handle 201. The second spray nozzle 141 is inclined along the first axis r1, enabling the water mist generator to produce water mist particles and spray them downstream of the transmission channel 10 along the second spray nozzle 141, thereby controlling the diffusion of water mist particles in area A downstream and the diffusion of water mist particles in area B upstream. The first axis and the second axis form a first included angle α1, the value of which is between 6 and 12 degrees, preferably 8 degrees. The front diameter of the second spray nozzle is defined as the first diameter w1, and the rear diameter as the second diameter w2, with the first diameter w1 being larger than the second diameter w2, to improve the efficiency of water mist particles being sprayed into the transmission channel and reduce the accumulation of water mist particles at the second spray nozzle.

[0051] The above are merely preferred embodiments of the present invention, and only specifically describe the technical principles of the present invention. These descriptions are only for explaining the principles of the present invention and should not be construed as limiting the scope of protection of the present invention in any way. Based on this explanation, any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention, as well as other specific embodiments of the present invention that can be conceived by those skilled in the art without creative effort, should be included within the scope of protection of the present invention.

Claims

1. A system for the directed enrichment of ions complementary to water aerosol, characterized in that, The system comprises: a transmission channel (10) having an upstream end (11) and a downstream end (12); an ion generating device (20) for injecting ions into the transmission channel (10); and a water mist generating device (30) for diffusing water mist particles into the transmission channel (10); wherein the water mist generating device is arranged in the transmission channel (10) and close to one side of the downstream end (12), and the ion generating device is arranged in the transmission channel (10) between the water mist generating device and the upstream end (11); when the water mist generating device (30) diffuses water mist particles into the transmission channel (10), at least A-zone water mist particles (301) diffused towards the downstream end (12) and B-zone water mist particles (302) diffused towards the ion generating device (20) are formed, and the B-zone water mist particles (302) form a diffusion thrust (F1); after the B-zone water mist particles (302) are ionized by the ion generating device (20), an ion injection thrust (F2) towards the downstream end (12) is generated.

2. The ion and water mist complementary directed enrichment system of claim 1, wherein, The diffusion amount of the A-zone water mist particles (301) is defined as a first diffusion amount, and the diffusion amount of the B-zone water mist particles (302) is defined as a second diffusion amount, and the numerical value of the first diffusion amount is greater than that of the second diffusion amount.

3. The ion and water mist complementary directed enrichment system of claim 1 or 2, wherein, The numerical value of the second diffusion amount has a preset minimum value and a preset maximum value; when the second diffusion amount is at the preset minimum value, the diffusion thrust (F1) is greater than the ion injection thrust (F2), and when the second diffusion amount is at the preset maximum value, the ion injection thrust (F2) is greater than the diffusion thrust (F1).

4. The ion and water mist complementary directed enrichment system of claim 3, wherein, The numerical value of the second diffusion amount also includes a preset intermediate value; when the second diffusion amount gradually changes from the preset intermediate value to the minimum value, the diffusion thrust (F1) gradually becomes greater than the ion injection thrust (F2); when the second diffusion amount gradually changes from the preset intermediate value to the maximum value, the ion injection thrust (F2) gradually becomes greater than the diffusion thrust (F1).

5. The ion and water mist complementary directed enrichment system of claim 1 or 2 or 4, wherein, The ion generating device (20) has an ion needle (21) extending towards one end of the transmission channel, and the ion needle (21) is inclined towards the downstream end (12).

6. The ion and water mist complementary directed enrichment system of claim 1 or 2 or 4, wherein, The transmission channel (10) is provided with a first mounting cavity (13) for mounting the ion generating device (20) and a second mounting cavity (14) for mounting the water mist generating device (30), and the first mounting cavity (13) and the second mounting cavity (14) are in conductive connection with the transmission channel (10) and are located between the upstream end (11) and the downstream end (12); The first mounting cavity (13) and the second mounting cavity (14) are located on the same side or opposite sides of the transmission channel (10).

7. The ion and water mist complementary directed enrichment system of claim 1 or 2 or 4, wherein, It also comprises a directional driving device (40) arranged at the upstream end (11) of the transmission channel (10).

8. A hair styling device, characterized by The hair styling device (200) is provided with the ion and water mist complementary directional enrichment system (100) as claimed in any one of claims 1-7.

9. A hair styling device according to claim 8, wherein The hair styling device (200) is a heating comb, which comprises a handle (201) and a comb head (202), and the comb head (202) comprises a styling surface (2021) arranged on the upper surface and a back surface (2022) arranged on the lower surface; The transmission channel (10) is arranged in the comb head (202), and at least the downstream end (12) of the transmission channel (10) penetrates the styling surface (2021); Or, the transmission channel (10) is arranged on the comb head (202), and a downstream end (12) of the transmission channel (10) penetrates the styling surface (2021), and an upstream end (11) of the transmission channel (10) penetrates the back surface (2022).

10. A hair styling device according to claim 9, wherein The first installation cavity (13) is arranged on the comb head (202), and the first installation cavity (13) has a first jet port (131) which is in communication with the transmission channel (10), and the first jet port (131) penetrates the left side surface and / or the right side surface of the transmission channel (10) and is arranged to be inclined towards the downstream end (12); The ion needle (21) has an emitting part (211) which extends from the first jet port (131) towards the transmission channel (10).

11. A hair styling device according to claim 9 or 10, characterised in that, The second installation cavity (14) is arranged on the comb head (202) or the handle (201), and the second installation cavity (14) has a second jet port (141) which is in communication with the transmission channel (10), and the second jet port (141) penetrates the front side surface and / or the back side surface of the transmission channel (10).

12. A hair styling device according to claim 9 or 10, characterised in that, The styling surface (2021) is provided with at least a heating tooth (2023), so that the temperature of the styling surface (2021) is greater than the temperature of the back surface (2022).

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