Oral irrigator component

Abstract

A kind of oral irrigator component, including external shell and flow guide, external shell is formed flow cavity inside, the external shell has water inlet and water outlet, flow guide is placed in flow cavity, the flow guide includes scattering part, spiral guide part, gasification part, scattering part is close to water inlet side, spiral guide part is located downstream of scattering part along the flow direction of liquid, gasification part is located downstream of spiral guide part along the flow direction of liquid, scattering part has the taper of the water inlet side along the liquid flow direction and expands outward, spiral guide part has the guide blade of spiral distribution, gasification part has the gasification blade of grid arrangement.The oral irrigator component of the application can use the setting of flow guide to make the water flow of cleaning carry a large number of bubbles, and the gasified water flow can improve the cleaning effect of oral cavity through cavitation principle.

Description

TECHNICAL FIELD

[0001] The present application relates to a dental irrigator, in particular to a dental irrigator component. BACKGROUND

[0002] With the increasing attention to oral hygiene, the dental irrigator as a new oral cleaning tool can effectively help users clean the gaps between teeth, gums, tooth grooves and other parts, and is more and more popular with consumers. The existing dental irrigator mainly includes a shell, a pump body arranged in the shell, and a water pipe connected with the pump body. The pump body mainly draws water with a certain pressure into the water pipe, and the water is sprayed from the water outlet of the water pipe to clean the teeth. In order to improve the cleaning effect, the existing dental irrigator mainly adjusts the water pressure flowing out of the water pipe. Relatively high water outlet pressure is generally recognized in the industry as the main means to improve the cleaning effect. However, considering the protection of teeth and the comfort of use, this way of increasing pressure has many limitations to some extent. That is, simply relying on this way is not enough to fully improve the cleaning effect. Therefore, it is necessary for people in the industry to further improve the existing dental irrigator. SUMMARY

[0003] Therefore, the present application provides a new concept of a dental irrigator component to solve the above problems.

[0004] To achieve the above-mentioned purpose, the present application provides the following technical scheme:

[0005] A dental irrigator component includes an external shell and a flow guide arranged in the external shell. The external shell extends along an axis, and a flow cavity is formed inside the external shell. The external shell has a water inlet and a water outlet. The flow guide is arranged in the flow cavity and extends along the axis. The flow guide includes a scattering part, a spiral guide part, and a gasification part. The scattering part is close to the water inlet side. The spiral guide part is located downstream of the scattering part along the flow direction of the liquid. The gasification part is located downstream of the spiral guide part along the flow direction of the liquid. The scattering part has a tapered part that expands outward along the flow direction of the liquid from the water inlet side. The spiral guide part has guide vanes arranged in a spiral. The gasification part has gasification vanes arranged in a grid.

[0006] Preferably, the gasification flow channels are formed between adjacent gasification vanes, and the guide flow channels are formed between adjacent guide vanes. The width of the gasification flow channels is smaller than the width of the guide flow channels.

[0007] Preferably, the spiral guide part has an axial base and at least three guide vanes. Each guide vane is protruded from the surface of the base and is arranged in a spiral from the water inlet to the water outlet.

[0008] Preferably, the guide vane of the spiral guide portion has a spiral guide surface extending spirally.

[0009] Preferably, the gasification vane of the gasification portion has a rhombic cross section along the axis.

[0010] Preferably, the gasification vane has a vane back surface at the end of the vane away from the base body, and a vortex guide surface is connected between the vane back surface and the base body, the vane back surface is rhombic, and two opposite edges of the rhombic shape correspondingly form two opposite vortex guide surfaces with the base body.

[0011] Preferably, the gasification vane is arranged spirally so that the gasification portion forms a spiral flow channel.

[0012] Preferably, the gasification vane further has a machining natural surface intersecting with the vortex guide surface, and the angle between the vortex guide surface and the machining natural surface is an acute angle.

[0013] Preferably, the flow guide further has a tail end guide portion, the tail end guide portion is close to the water inlet side, and the tail end guide portion is spherical.

[0014] Preferably, the flow guide is fixedly arranged in the flow cavity or rotatably arranged in the flow cavity.

[0015] Preferably, the outer shell is a conical connecting section at a position corresponding to the scattering portion, and the hole diameter of the conical connecting section increases from the water inlet to the water outlet.

[0016] Preferably, the outer shell is a hollow pipe, and at least part of the inner wall of the outer shell is a threaded section having threads or a spiral surface.

[0017] Preferably, the threaded section corresponds to part or all of the scattering portion, the spiral guide portion, or the gasification portion.

[0018] Preferably, at least part of the inner wall of the outer shell is a threaded section having threads, the threaded section is provided with a threaded groove or a threaded tooth, and the groove width of the threaded groove or the width of the threaded tooth is smaller than the width of the gasification vane.

[0019] Preferably, the oral irrigator component further has an impeller, the gasification vanes are arranged in groups on each impeller, and the impeller is mounted on the flow guide.

[0020] Preferably, the adjacent impellers, the impeller and the spiral guide portion, and the impeller and the tail end guide portion are snap connected.

[0021] Preferably, the flow guide is provided with an embedding groove, and the vane is inserted into the embedding groove in an embedded manner.

[0022] The beneficial effect of the present application is that the oral irrigator component can use the arrangement of the flow guide to carry a large number of bubbles in the cleaning water flow, and the gasified water flow can improve the cleaning effect of the oral cavity through the cavitation principle; by forming a spiral surface on the inner wall of the outer shell and cooperating with the flow guide, the water flow impact is accelerated, further accelerating the water flow gasification speed, ensuring that more bubbles are formed in the water flow, and further improving the cleaning effect of the oral cavity. BRIEF DESCRIPTION OF DRAWINGS

[0023] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the drawings needed to be used in the embodiments or the prior art description will be briefly introduced. Obviously, the drawings in the following description are only some embodiments of the present application, and other drawings can be obtained by those skilled in the art without creative labor.

[0024] FIG. 1 is an external view of the oral irrigator component of the present application; Figure 1 FIG. 2 is a structure exploded view of the oral irrigator component of the first embodiment of the present application;

[0025] FIG. 3 is another perspective view of the structure exploded view of the oral irrigator component of the first embodiment of the present application; Figure 2 FIG. 4 is a structure exploded view of the oral irrigator component of the second embodiment of the present application;

[0026] FIG. 5 is a cross-sectional view of the oral irrigator component of the second embodiment of the present application; Figure 3 FIG. 6 is a structure exploded view of the oral irrigator component of the third embodiment of the present application;

[0027] Figure 4 FIG. 7 is a structure exploded view of the oral irrigator component of the third embodiment of the present application;

[0028] FIG. 8 is a structure exploded view of the oral irrigator component of the third embodiment of the present application; Figure 5 FIG. 9 is an enlarged view of A in FIG. 8, showing the specific structure of the guide blade; Figure 3 FIG. 10 is a structure exploded view of the oral irrigator component of the third embodiment of the present application;

[0029] Figure 6 FIG. 11 is a cross-sectional view of the oral irrigator component of the third embodiment of the present application;

[0030] FIG. 12 is a structure exploded view of the oral irrigator component of the third embodiment of the present application; Figure 7 FIG. 13 is a structure exploded view of the oral irrigator component of the third embodiment of the present application;

[0031] Figure 8 FIG. 14 is a structure exploded view of the oral irrigator component of the third embodiment of the present application;

[0032] FIG. 15 is a structure exploded view of the oral irrigator component of the third embodiment of the present application; Figure 9 Figure 8 FIG. 16 is a structure exploded view of the oral irrigator component of the third embodiment of the present application;

[0033] Reference signs:

[0034] ​​​​1 external shell, 2 flow guide, 3 flow cavity, 4 water inlet, 5 water outlet, 6 scattering part, 7 spiral guide part, 8 gasification part, 9 cone part, 10 guide blade, 11 gasification blade, 12 gasification flow channel, 13 guide flow channel, 14 base body, 15 spiral guide surface, 16 blade back surface, 17 vortex guide surface, 18 spiral flow channel (marked additionally), 19 tail end guide part, 20 conical surface connecting section, 21 threaded section, 22 threaded groove, 23 impeller, 25 groove, 26 convex structure, 27 machined natural surface. DETAILED DESCRIPTION

[0035] The technical solutions in the embodiments of the present application will be apparently and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all the other embodiments obtained by a person of ordinary skill in the art without creative labor fall within the protection scope of the present application.

[0036] The present application will be further described below with reference to the drawings in the description.

[0037] With reference to the drawings in the description Figures 1-9 , the present application provides the following technical solutions: a water pick component 100, specifically, including an external shell 1 and a flow guide 2 placed in the external shell 1, the external shell 1 extends along an axial direction, in the embodiment, the external shell 1 is tubular, and a flow cavity 3 is formed inside the external shell 1. The external shell 1 has a water inlet 4 and a water outlet 5 at two ends, and the flow guide 2 is placed in the flow cavity 3. The flow guide 2 extends along the axial direction and includes a scattering part 6, a spiral guide part 7 and a gasification part 8, the scattering part 6 is close to the water inlet 4 side, the spiral guide part 7 is located downstream of the scattering part along the liquid flow direction, and the gasification part 8 is located downstream of the spiral guide part 7 along the liquid flow direction, the scattering part 6 has a cone part 9 radially outwardly expanded along the liquid flow direction from the water inlet 4 side, the spiral guide part 7 has guide blades 10 distributed in a spiral, and the gasification part 8 has gasification blades 11 arranged in a grid shape.

[0038] As shown in the drawings Figures 1-5As shown, the first preferred embodiment of the present application is shown, and in the embodiment, the outer shell 1 is a hollow tubular structure, and the flow cavity 3 is inside the tubular structure, and the flow guide 2 is arranged in the flow cavity 3. Specifically, the flow guide 2 has an axial base body 14, and the extension direction of the flow guide 2 is the same as the extension direction of the outer shell 1, and the two are coaxial. It should be noted that in the embodiment, the flow guide 2 can be fixed relative to the outer shell 1 or can rotate relative to the outer shell 1, and the relative relationship between the two should not be limited. Specifically, the two ends of the flow guide 2 can be arranged to be inserted into the inner wall of the outer shell 1, and the insertion mode can be relative rotation after insertion, or relative fixation after insertion. The water inlet 4 and the water outlet 5 are formed at the two ends of the outer shell 1, and the flow guide 2 is sequentially provided with the scattering part 6, the spiral guide part 7, and the gasification part 8 along the flow direction of the liquid, and in addition, the flow guide 2 has a tail end guide part 19 close to the water outlet.

[0039] The accompanying drawings will be described below. Figure 4 、 5 The structure of the flow guide 2 will be described in detail: the scattering part 6 is formed at one end of the flow guide 2 close to the water inlet 4, and in the embodiment, the scattering part 6 is arranged in a whole conical shape, and the cone is the taper part 9 of the scattering part 6. The taper part 9 is arranged to accelerate the outward diffusion of the fluid along the taper surface, reduce the resistance of the water flow, and more easily form a spiral water flow under the action of the spiral guide part 7. The structure of the scattering part 6 can be as shown in the embodiment, arranged in a whole conical shape, or only a conical section, that is, a combination of a cylindrical section and a conical section, or a combination of a conical section and a cylindrical section; or the taper part 9 of the scattering part 6 can be replaced by a hemispherical or spherical surface that expands outward along the water flow direction. As long as it has a surface that continuously expands outward along the water flow direction, it can basically achieve the desired technical effect.

[0040] The guide vanes 10 of the spiral guide part 7 are arranged in four pieces, each guide vane 10 is spirally extended, and is equally spaced along the outer periphery of the base body 14 of the flow guide 2. The adjacent guide vanes 10 form a guide flow channel 13. Specifically, each guide vane 10 is protruded from the surface of the base body 14 and is arranged to extend spirally from the water inlet 4 to the water outlet 5. That is, as shown in the enlarged view Figure 5 As shown, the guide vanes 10 of the spiral guide part 7 have a helical guide surface 15 that spirally extends. Of course, in specific implementation, the spiral guide part 7 can be provided with at least three guide vanes 10.

[0041] The vaporization section 8 is located at the end of the spiral guide section. Vaporization blades 11 of the vaporization section 8 are protruding from the axial base 11, and each vaporization blade 11 has a rhomboid cross-section along its axis. Each vaporization blade 11 has a blade back surface 16, defined as the end of the vaporization blade 11 that is relatively far from the base 14. A vortex guide surface 17 connects the blade back surface 16 and the base 14. The blade back surface 16 is a rhomboid surface, and two opposite sides of the rhombus correspond to the base 14 to form two opposing vortex guide surfaces 17. The rhomboid vaporization blades of the vaporization section 8 are formed as follows: multiple lines L are evenly spaced along the extension direction of a cylinder with a diameter larger than the axial base 14, and multiple lines N are defined at a certain angle to this extension direction. The L and N intersect at non-perpendicular angles to form multiple grid-like rhombuses. By retaining these rhombuses at intervals, the protruding rhomboid vaporization blades 11 shown in the figure are formed. A gasification channel 12 is formed between adjacent gasification blades 11 of the gasification section 8, and the gasification channel 12 extends spirally to form a spiral channel 18. The width of the gasification channel 12 is smaller than the width of the guide channel 13.

[0042] like Figure 3 As shown, the arrows indicate the flow direction of water between the vaporization blades 11. Based on the illustrated direction, in the two vortex guide surfaces of a vaporization blade 11, the upper vortex guide surface 17 is directly impacted by the water flow and extends along the flow direction. If the surface intersecting with this vortex guide surface 17 is defined as the natural processing surface, i.e., reference numeral 2 in the illustration is natural processing surface 2, in actual implementation, to reduce the resistance to water flow and ensure that the water flowing through the vortex guide surface 17 is a high-speed flow, the angle between the vortex guide surface 17 and the natural processing surface 2 is an acute angle. Because the water flow at the back surface 16 of the blade is relatively slow, when the slower-flowing water comes into contact with the high-speed flowing water, the pressure on the back surface 16 of the blade decreases, creating a vacuum state. This accelerates water vaporization, that is, it accelerates bubble formation.

[0043] The tail end guide 19 is close to the water outlet 5 side, the tail end guide 19 is spherical, specifically, the tail end guide 19 is located at the end of the gasification part 8, the tail end guide 19 is similar to a semi-sphere. The tail end guide 19 only needs to have a spherical surface as shown in the figure, so in actual implementation, the tail end guide 19 is not limited to a semi-sphere or smaller than a semi-sphere. When the water flow flows through the gasification part 8 and flows into the tail end guide 19, due to the decrease of the impact on the water flow, plus the increase of the water flow channel 9 (the water flow channel in the gasification part 8 is a relatively narrow channel formed between the gasification blades 11, and the channel in the tail end guide 19 is formed between the outer wall of the tail end guide 19 and the outer shell 1), the water flow will flow along the outer wall of the tail end guide 19, and this flow will make the water flow area smooth, and ensure that the bubbles formed when the water flow flows out of the tail end guide 19 will not break.

[0044] By Figure 2 It can be seen that the spiral guide part 7 and the gasification part 8 both have an axial base body 14, the diameter of the end of the scattering part 6 is the same as the diameter of the base body 14, and the diameter of the head of the tail end guide 19 is the same as the diameter of the base body 14. The end of the component of the oral irrigator close to the water inlet 4 is defined as the head, and it can be understood that the end of the component away from the water inlet 4 (i.e. close to the water outlet 5) is the tail end.

[0045] Preferably, the outer shell 1 forms a tapered connecting section 20 at the position corresponding to the scattering part 6, the aperture of the tapered connecting section 20 increases from the water inlet 4 to the water outlet 5. Similarly, the outer shell 1 can further form another tapered connecting section 20 at the position corresponding to the tail end guide 19, which cooperates with the tail end guide 19, and the aperture of the tapered connecting section 20 decreases from the water inlet 4 to the water outlet 5.

[0046] The principle of this invention is described below: During use, a large flow of water is injected (generally drawn in by a pump in a water flosser). The water flow is guided by the spiral guide surface 15 to generate a rotating water flow, entering the vaporization section. The vaporization blades in the vaporization section are also spirally arranged, causing the water flow to advance in a spiral state. The water flow reduces resistance by passing through the acute angle between the vortex guide surface 17 and the processed natural surface 2. When the water flows spirally to the back surface 16 of the blade, the water flow velocity at this location is relatively slow. Contact with the high-speed flowing water causes the pressure at the back surface 16 of the blade to decrease rapidly, accelerating the mixing and diffusion of the water flow and creating a vacuum state. This vacuum causes localized vaporization of the water flow, resulting in a large number of bubbles. The water flow is pressurized through the conical connecting section 20 at the corresponding tail guide section and passes through the outlet 5 carrying a large number of bubbles. The oral irrigator component of this invention can carry a large number of air bubbles in the water flow by using the guide member 2. The vaporized water flow can improve the oral cleaning effect through the cavitation principle. By forming a spiral surface on the inner wall of the outer shell 1 and cooperating with the guide member 2, the impact of the water flow is accelerated, which further accelerates the speed of water vaporization, ensuring that more air bubbles are formed in the water flow, and further improving the oral cleaning effect.

[0047] Furthermore, when the guide member 2 is rotatable relative to the outer casing 1, when water flows in from the inlet 4, the shaft (i.e., guide member 2) rotates through the spiral guide part 7. During the water flow, the continuous impact on the vortex guide surface further accelerates the rotation of the shaft (i.e., guide member 2). The shaft rotates in the same direction as the spiral guide part, thus slowing down the drop in water pressure and ensuring that the water pressure at the outlet 5 does not drop too much. The reduced aperture at the corresponding tail end guide further accelerates the water flow. During the rotation of the guide member 2, the velocity difference between the water flow and the flow on the back of the blades 16 increases, generating more bubbles. This water flow, when brushing teeth, achieves a better cleaning effect through the cavitation effect of numerous bubbles. This principle is somewhat similar to that of ultrasonic cleaning.

[0048] As attached Figures 6-7 The diagram shows a second preferred embodiment of the present invention. Specifically, unlike the first embodiment, in this embodiment, at least a portion of the inner wall of the outer housing 1 is a threaded segment 21 with threads or a helical surface. Specifically, threaded grooves or threaded teeth can be provided in the threaded segment 21. A threaded groove refers to a groove recessed into the inner wall of the outer housing 1 in a threaded shape, while a threaded tooth refers to a protruding threaded tooth provided on the inner wall of the outer housing 1. Both threaded grooves and threaded teeth can form a helical flow channel on the inner wall of the outer housing. The formation of this helical flow channel, in conjunction with the aeration section 8, can increase the impact of the water flow and form more bubbles.

[0049] Specifically, the thread segment 21 can be arranged to correspond to a part or all of the scattering portion 6, the spiral guide portion 7 or the vaporization portion 8. That is, the thread segment 21 can be formed only at a position corresponding to the scattering portion 6, only at a position corresponding to the spiral guide portion 7, or only at a position corresponding to the vaporization portion 8. The thread segment 21 can correspond to only a part of the scattering portion 6, the spiral guide portion 7 or the vaporization portion 8, or can correspond to all of the scattering portion 6, the spiral guide portion 7 or the vaporization portion 8.

[0050] In the present embodiment, the thread segment 21 is arranged to correspond to the vaporization portion. Specifically, as shown in the figure, in the present embodiment, the thread segment 21 is arranged with a thread groove 22, and the groove width of the thread groove 22 is smaller than the width of the vaporization blade 11. In the present application, the extension thickness of the vaporization blade 11 along the axial direction is defined as the width of the blade.

[0051] As shown in the figure, the third preferred embodiment of the present application is shown. Specifically, different from the first and second embodiments, in the present embodiment, the oral irrigator component further has a plurality of impellers 23, and the vaporization blades 11 are arranged in groups on each impeller 23, and the vaporization blades 11 on each impeller 23 are uniformly distributed along the outer periphery of the impeller 23. The impellers 23 are mounted on the flow guide 2. Figure 8 9 Specifically, the spiral guide portion 8 is arranged with a groove 25 connected with the impeller 23, and the impeller 23 is arranged with a protruding structure 26 snap-fitted with the groove 25. Similarly, the adjacent impellers 23 are also connected in a snap-fitted manner. The vaporization blade 11 can be integrally formed with the impeller 23, and the material of the vaporization blade 11 and the impeller 23 can be metal or plastic. The vaporization blade 11 can also be formed on the impeller 23 by secondary molding. In the present embodiment, the structure is arranged in a laminated manner, and each impeller is made into an independent component, which simplifies the overall processing technology. The independent impeller can be processed by plastic injection molding, ceramic powder injection molding, powder metallurgy die casting, CNC, etc. 9

[0052] Specifically, the spiral guide portion 8 is arranged with a groove 25 connected with the impeller 23, and the impeller 23 is arranged with a protruding structure 26 snap-fitted with the groove 25. Similarly, the adjacent impellers 23 are also connected in a snap-fitted manner. The vaporization blade 11 can be integrally formed with the impeller 23, and the material of the vaporization blade 11 and the impeller 23 can be metal or plastic. The vaporization blade 11 can also be formed on the impeller 23 by secondary molding. In the present embodiment, the structure is arranged in a laminated manner, and each impeller is made into an independent component, which simplifies the overall processing technology. The independent impeller can be processed by plastic injection molding, ceramic powder injection molding, powder metallurgy die casting, CNC, etc.

[0053] In the specific implementation, the gasification blades 11 and the guide blades 10 can be integrally formed with the base 14, or can be separately arranged on the base 14. When being separately arranged, in addition to the implementation disclosed in the third embodiment, the flow guide 2 can be provided with an embedding groove (not shown), and the gasification blades 11 or the guide blades 10 are embeddedly inserted into the embedding groove. The connection form or forming mode of the gasification blades 11 or the guide blades 10 is not limited, as long as the gasification blades 11 and the guide blades 10 have the structure disclosed in the present application, and the technical effects required by the present application can be achieved.

[0054] It should be noted that the material of the oral irrigator component disclosed in the present application is not limited, and can be metal, alloy, stainless steel, or plastic or a composite of plastic and metal, alloy, stainless steel. In the specific implementation, the oral irrigator can be an integral piece made of the above-mentioned materials or the above-mentioned materials, or can be manufactured separately and then combined, or can be formed by secondary injection molding. In the embodiments of the present application, the installation mode of the impeller as an independent unit and the installation mode of the independent gasification blades embedded in the base are disclosed, but in the actual implementation, it should not be limited thereto. Those skilled in the art can also think of other combinations of the scattering part, the spiral guide part and the gasification part, and the like, which will not be described one by one.

[0055] The above description of the disclosed embodiments enables those skilled in the art to implement or use the present application. Various modifications to the embodiments will be apparent to those skilled in the art, and the general principles defined herein can be implemented in other embodiments without departing from the spirit or scope of the present application. Therefore, the present application will not be limited to the embodiments shown herein, but will conform to the widest scope consistent with the principles and novel features disclosed herein.

Claims

1. A water flosser component, characterized in that: The device includes an outer casing and a flow guide placed inside the outer casing. The outer casing extends along an axial direction and forms a flow cavity inside. The outer casing has an inlet and an outlet. The flow guide is placed inside the flow cavity and extends along the axial direction. It includes a scattering section, a spiral guiding section, and a vaporization section. The scattering section is located near the inlet side. The spiral guiding section is located downstream of the scattering section along the direction of liquid flow. The vaporization section is located downstream of the spiral guiding section along the direction of liquid flow. The scattering section has a tapered portion that expands outward from the inlet side along the direction of liquid flow. The spiral guiding section has spirally distributed guiding blades. The vaporization section has vaporization blades arranged in a grid pattern. The outer casing is a hollow tube, and at least a portion of the inner wall of the outer casing is a threaded section with threads or a helical surface.

2. The water flosser component according to claim 1, characterized in that: A vaporization channel is formed between adjacent vaporization blades, and a guide channel is formed between adjacent guide blades. The width of the vaporization channel is smaller than the width of the guide channel.

3. The water flosser component according to claim 1, characterized in that: The spiral guide section has an axial base and at least three guide blades, each guide blade protruding from the surface of the base and spirally arranged from the inlet to the outlet.

4. The water flosser component according to any one of claims 1 to 3, characterized in that: The guide vanes of the helical guide section have a helically extended helical guide surface.

5. The water flosser component according to any one of claims 1 to 3, characterized in that: The gasification blades of the gasification section have a rhomboid cross-section along the axis.

6. The water flosser component according to claim 1, characterized in that: The guide member has an axial base, and the gasification blade has a blade back side, which is the end of the blade away from the base. A vortex guiding surface is connected between the blade back side and the base. The blade back side is rhomboid, and the two opposite sides of the rhombus form two opposite vortex guiding surfaces corresponding to the base.

7. The water flosser component according to claim 1, characterized in that: The gasification blades are arranged in a spiral, which makes the gasification section form a spiral flow channel.

8. The water flosser component according to claim 6, characterized in that: The gasification blade also has a machined natural surface that intersects with the vortex guide surface, and the angle between the vortex guide surface and the machined natural surface is an acute angle.

9. The water flosser component according to claim 1, characterized in that: The flow guide also has a tail end guide portion, which is close to the water inlet side and is spherical.

10. The water flosser component according to claim 1, characterized in that: The flow guide is either fixedly installed inside the flow cavity or rotatably installed inside the flow cavity.

11. The water flosser component according to claim 1, characterized in that: The outer shell has a conical connecting section at the position corresponding to the scattering part, and the diameter of the hole at the conical connecting section increases from the inlet to the outlet.

12. The water flosser component according to claim 1, characterized in that: The threaded section corresponds to part or all of the scattering section, the spiral guiding section, or the vaporization section.

13. The water flosser component according to claim 1, characterized in that: At least a portion of the interior of the outer casing is a threaded section with threads. The threaded section is provided with threaded grooves or threaded teeth, and the width of the groove or threaded teeth is smaller than the width of the gasification blade.

14. The water flosser component according to claim 9, characterized in that: The irrigator component also has an impeller, and the gasifying blades are arranged in multiple sets on each impeller, with the impeller mounted on a guide member.

15. The water flosser component according to claim 14, characterized in that: Adjacent impellers are connected by snap-fit ​​connections, as are impellers and spiral guides, and impellers and tail end guides.

16. The water flosser component according to claim 1, characterized in that: The guide member is provided with a groove, and the blade is embedded in the groove.

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