TW201622830A - Atomizing device - Google Patents

Abstract

The present invention provides an atomizing device, which comprises a container, a floating assembly, an atomizing element and a spray element. A liquid is filled in the container. The floating assembly is arranged in the container and closely touches the liquid surface to become a floating state, and a containing hole is arranged on the bottom side, with the opposite side disposed with a first guide nozzle in a tapered configuration. The atomizing element is tightly arranged in the containing hole so as to make it keep in a state of one-way contacting the liquid surface for guiding and atomizing the liquid. The atomized liquid molecule flows out through the first guide nozzle. The spray element is disposed corresponding to the first guide nozzle and assembled with the container, and has a second guide nozzle also in a tapered configuration for guiding the atomized liquid molecule to the outside for use. By the tapered structure, the situation of detaining liquid molecules inside the device can be avoided, whereby it can effectively achieve the atomization effect and avoid the destruction of liquid molecules by the thermal energy generated by the atomizing element, and can effectively exploit the atomized liquid molecules.

Description

Atomizing device

The present invention relates to the field of atomizing devices, and more particularly to an atomizing device in which an atomizing element floats on a surface of a liquid and maintains a unidirectional contact with the liquid to effectively atomize the liquid.

At present, in the field of medical beauty and daily life, in order to achieve the effect of atomizing liquid molecules for use and application, the atomizing elements are used to vibrate and oscillate the liquid into a smaller molecular structure, such as beauty care. Liquid, scented liquid or water passes through the atomizing element to oscillate the molecule into a fine structure to absorb the skin more or to increase the humidity of the indoor air.

The atomization device or device currently used is used to place a shock plate in a cup containing a liquid, and the ultrasonic wave is oscillated and atomized to promote the surface of the liquid to rise and cavitation around the liquid surface to atomize the liquid into small molecules. The aerosol is used to achieve the above-mentioned effect. However, the oscillating piece is directly sprayed into the liquid for atomization. Under the long-term use, since the oscillating film continuously emits ultrasonic wave amplitude, high temperature is caused to cause liquid. The temperature also increases. When the liquid is the above-mentioned maintenance liquid, scented liquid or even medical liquid, the temperature increase will further affect the composition or utility of the liquid itself. Therefore, the ultrasonic oscillating piece is directly placed in the liquid. The atomization in the body is extremely easy to destroy and change the liquid component due to the high temperature generated by the shock plate for a long time.

Therefore, in order to solve the problem of affecting the liquid component after the use of the oscillating plate, the purpose is to reduce the volume of contact between the oscillating plate and the liquid, so as to prevent the generated heat from increasing the temperature of the liquid, and thus The derivation allows the oscillating plate to be fixed at the liquid level, and is brought into contact with the liquid surface to gradually atomize the liquid molecules while avoiding the thermal energy affecting the overall temperature of the liquid. However, the oscillating sheet which is not placed in the liquid can only be oscillated and atomized in one direction, that is, the liquid molecules are atomized by the oscillating sheet on the side contacting the liquid surface, and the liquid molecules are scattered toward the opposite side, so when the liquid is simultaneously Filled on the opposite sides of the shock plate, that is, the liquid cannot be atomized smoothly, so how to maintain the shock plate on the liquid surface and prevent the liquid from shaking or overflowing to the opposite side of the water inlet surface is the current lifting atomization effect and One of the main topics of application efficacy.

In summary, the present inventors have conceived an atomizing device which is capable of solving various defects possessed by conventional liquid atomization.

An object of the present invention is to provide an atomizing device which is effective for atomizing a liquid into fine molecules by means of an atomizing element floating on a surface of a liquid, and the atomizing element can be designed through the structural design of the present invention. The normal state maintains the state of unidirectional contact with the liquid surface, and prevents the liquid surface from being excessively shaken or recirculated and flooding the entire atomizing element. At the same time, it can effectively drive the molecular movement after atomization to avoid stagnation. It is not conducive to the use of the situation.

Another object of the present invention is to provide an atomizing device which can effectively maintain the liquid level stability, avoid external force factors, cause the liquid surface swaying amplitude to be too large, and affect the atomization effect, so that it can be used in a relatively unstable environment. .

In order to achieve the above object, the atomizing device of the present invention comprises: a container having a receiving groove for loading a liquid; and a floating assembly disposed in the container and in close contact with a liquid surface of the liquid to form a floating state, The bottom surface of the floating component is provided with a receiving hole and a first guiding nozzle is disposed on the opposite side thereof, and the first guiding nozzle is in a tapered state; an atomizing component is closely disposed on the capacitor Inside the hole, one side of the hole is in contact with the liquid surface to guide the liquid through the atomizing element for atomization, and flows out from the first guiding nozzle; and a spray element corresponding to the first guide The nozzle is disposed and assembled with the container and has a second guiding nozzle for discharging the atomized liquid to the outside, and the second guiding nozzle is also tapered.

The floating assembly includes a chassis and a top cover, the chassis is provided with the receiving hole and is in close contact with the liquid surface, and the top cover is provided with the first guiding nozzle and is disposed on the top side of the chassis. And the atomizing element is fixed in the receiving hole by gluing, so as to prevent the liquid from overflowing into the chassis to affect the operation of the atomizing element, and the bottom side of the spraying element is a plate-like structure to The inner side surface of the container is assembled, and preferably, the first guiding nozzle and the second guiding nozzle are respectively a tapered structure, so that the atomized liquid molecules are gradually increased in flow rate. Flow to the outside and prevent the liquid molecules from staying inside the container, affecting subsequent atomization.

In order to achieve weight reduction and to maintain the floating of the floating assembly, the floating assembly, the container and the spray element are made of polypropylene.

The invention further has an outer casing and an outer cover. The outer casing system is sleeved on the outside of the container and connected to the container through a fixing member. The outer cover is disposed on the top side of the container and corresponds to the second guide. The nozzle has a through hole, so that the second guiding nozzle passes through the outer cover, and the outer casing and the outer cover can further protect the atomizing device, and preferably, the outer casing The body and the outer cover are made of polycarbonate.

In another embodiment, the container is internally provided with a pair of limiting posts for limiting the displacement displacement of the floating component on the liquid surface, and the chassis correspondingly has a pair of limiting holes for the limiting post, so that the pair The limiting column is disposed in the pair of limiting holes, thereby effectively limiting the range of movement of the floating component relative to the liquid surface, so as to prevent the liquid surface from being excessively shaken to cause the liquid to overflow or The situation affecting the operation of the atomizing element occurs.

The atomizing device of the present invention is characterized in that the floating component effectively keeps the atomizing element in a state of one-way contact with the liquid surface, and can be vertically displaced with the liquid level, while preventing the liquid from overflowing and affecting the liquid. The action of the atomizing element effectively solves the damage of the heat generated by the atomizing element to the liquid, and in use, the tapered structure of the first guiding nozzle and the second guiding nozzle is also provided The atomized liquid molecules can be smoothly released to the outside for use to avoid a stagnation situation. In an embodiment, the arrangement of the limiting column is used to limit the vertical outward displacement of the floating component, and the adhesion of the floating component to the liquid surface is utilized to prevent the liquid surface from being excessively shaken to cause the liquid to be caused. Back overflow or affect the atomization action.

1‧‧‧Atomizing device

10‧‧‧ Container

101‧‧‧ accommodating slots

102‧‧‧Fixed holes

103‧‧‧Limited column

11‧‧‧ Floating components

111‧‧‧ accommodating holes

112‧‧‧First guiding nozzle

113‧‧‧Chassis

114‧‧‧Top cover

115‧‧‧Limited holes

12‧‧‧Atomizing element

13‧‧‧Spray components

131‧‧‧Second guiding nozzle

14‧‧‧Outer casing

141‧‧‧Fixed parts

15‧‧‧ Cover

151‧‧‧through hole

2‧‧‧Liquid

20‧‧‧ liquid level

Figure 1 is a perspective exploded view of a preferred embodiment of the present invention.

2 is a perspective view of a three-dimensional assembly of a preferred embodiment of the present invention.

Figure 3 is a schematic cross-sectional view of a preferred embodiment of the present invention.

Figure 4 is a perspective exploded view of another embodiment of the preferred embodiment of the present invention.

Figure 5 is a schematic cross-sectional view showing another embodiment of the preferred embodiment of the present invention.

In order for your review board to have a clear understanding of the contents of the present invention, please refer to the following description for matching drawings.

Please refer to Figures 1, 2 and 3, which are schematic exploded perspective views, a schematic view of a three-dimensional assembly and a schematic view of a cross-sectional application according to a preferred embodiment of the present invention. The atomizing device 1 of the present invention is configured to atomize the molecular structure of the liquid 2 to form a minute molecule by vibrating a liquid 2 Used, it includes a container 10, a floating assembly 11, an atomizing element 12, and a spray element 13.

The container 10 has a receiving slot 101 for loading the liquid 2. The floating component 11 is disposed in the container 10 and is in a floating state adjacent to a liquid surface 20 of the liquid 2. The bottom surface of the floating component 11 is provided with a The first guiding nozzle 112 is disposed on the opposite side of the hole 111, and the first guiding nozzle 112 is in a tapered state. Preferably, the floating component 11 includes a chassis 113 and a top cover 114. The chassis 113 is provided with the receiving hole 111 and is in close contact with the liquid surface 20. The top cover 114 is provided with the first guiding The nozzle 112 is disposed on the top side of the chassis 113, and the receiving hole 111 is integrally formed on the chassis 113. The first guiding nozzle 112 is integrally formed on the top cover 114, and the top cover 114 is The chassis 113 can be integrally coupled to each other in a snap-fit manner. Furthermore, the floating component 11 of the present invention floats normally on the liquid surface 20, so that when the liquid surface 20 of the liquid 2 gradually decreases with the use time, the floating component 11 can remain in contact with the liquid surface 20. The state is displaced vertically as the liquid level 20 is lowered.

The atomizing element 12 is closely disposed in the receiving hole 111, and one side thereof is in contact with the liquid surface 20 to guide the liquid 2 to perform an atomizing operation via the atomizing element 12, and the atomized liquid 2 And then the first atomizing nozzle 112 is discharged from the first guiding nozzle 112. Preferably, the atomizing element 12 is fixed in the receiving hole 111 by gluing, and the adhesive is filled in the atomizing element 12 and the receiving portion. In the minute gap of the hole 111, the liquid 2 is further prevented from overflowing into the chassis 113. After the atomization, the liquid 2 molecules are affected by the tapered structure of the first guiding nozzle 112, and the liquid 2 molecules are retained to the narrower cross-sectional area of the first guiding nozzle 112 to increase the flow rate thereof. To smoothly use the flow rate to draw the liquid 2 molecules of the liquid after atomization, to avoid staying in the first guiding nozzle 112, and to prevent the liquid 2 molecules which are successively atomized from gradually accumulating in the first The nozzle 112 is guided to affect the use.

The spray element 13 is disposed corresponding to the first guide nozzle 112 and assembled with the container 10, and has the second guide nozzle 131 for discharging the atomized liquid 2 to the outside, and the second The guiding nozzle 131 is also in a tapered state. As described above, after the liquid 2 is converted into micro-mist molecules by the atomizing element 12, the first guiding nozzle 112 flows to the second guiding nozzle. The tube 131 is the same as the first guiding nozzle 112, and the second guiding nozzle 131 is also in a tapered state, so that the molecules of the liquid 2 can also be restricted to the tapered state and flow to the last. The external flow reaches a maximum flow rate for use, thereby preventing the liquid molecules from remaining at the first guiding nozzle 112 and the second guiding nozzle 131 to affect the use efficiency. In this embodiment, the first guiding nozzle 112 and the second guiding nozzle 131 are respectively a tapered structure to achieve an optimal atomization effect. In addition, the bottom side of the spray element 13 is a plate-like structure to be assembled with the inner surface of the container 10. In the embodiment, the bottom side of the spray element 13 is a circular plate-like structure, and The edge card abuts against the inner surface of the container 10. Wherein, the floating assembly 11, the container 10 and the spray element 12 are made of polypropylene so that the components have a lightweight characteristic and the floating assembly 11 can float on the liquid surface 20 of the liquid 2.

The present invention further has an outer casing 14 and an outer cover 15. The outer casing 14 is sleeved on the outside of the container 10 and connected to the container 10 through a fixing member 141. Preferably, the fixing member 141 is a column. The container 10 is provided with a fixing hole 102 for the fixing member 141 to assemble the outer casing 14 and the container 10. The outer casing 14 can be provided with a circuit electrically connected to the atomizing element 12. The driving element is configured to control the atomizing element 12; the outer cover 15 is disposed on the top side of the container 10, and has a through hole 151 corresponding to the second guiding nozzle 131, so that the second guiding nozzle 131 The outer cover 15 is worn. In the embodiment, the outer cover 15 is an arc-shaped cover. Preferably, the outer casing 14 and the outer cover 15 are made of polycarbonate to penetrate the outer casing. 14 and the outer cover 15 achieve the effect of protecting the container 10 and various components therein.

In application, the floating assembly 11, the atomizing element 12 and the spray element 13 are assembled to the container 10, and the liquid 2 is injected into the container 10 to float the floating assembly 11 on the liquid surface of the liquid 2. 20, one side of the atomizing element 12 is in close contact with the liquid surface 20, and after the atomizing device 1 is activated, the atomizing element 12 starts to guide the liquid 2 and atomizes it, followed by fog. The formed micro-molecular system flows along the first guiding nozzle 112, and the flow velocity of the liquid 2 molecules is gradually increased by the tapered structural feature of the first guiding nozzle 112 to prevent the liquid 2 molecules from staying at The first spray guiding tube 112 affects the subsequent atomizing action, and the atomized liquid 2 molecules are successively flowed to the second guiding nozzle 131, since the second guiding nozzle 131 is also a tapered structure. Therefore, the flow rate of the liquid 2 molecules can also be increased to be exported to external use.

Please refer to FIGS. 4 and 5, which are schematic exploded perspective views and cross-sectional views of another embodiment of the preferred embodiment of the present invention. In the embodiment, the container 10 is internally provided with a pair of limiting posts 103 for limiting the displacement of the floating component 11 on the liquid surface 20, and the chassis 113 of the floating component 11 is correspondingly facing the limit. The column 103 is provided with a pair of limiting holes 115, so that the pair of limiting posts 103 are disposed in the pair of limiting holes 115. Therefore, as shown in FIG. 5, the floating component 11 is placed in the container 10 and is permeable to the The limiting column 103 limits the moving direction and displacement of the floating component 11 in the container 10 relative to the liquid surface 20, wherein preferably, the pair of limiting posts 103 are cylindrical, and the diameter of the pair of limiting holes 115 The diameter is greater than the diameter of the pair of limit posts 103. Since the atomizing element 12 needs to be attached to the liquid surface 20 to guide the liquid 2 to perform the atomizing action, when the liquid surface 20 is not in a horizontal state, the atomizing element 12 is easily affected, so when When the atomizing device 1 is placed in a relatively unstable use environment such as a traveling vehicle, the liquid level 20 is easily shaken by environmental factors and cannot be maintained horizontally, and the present invention is opposite to the liquid by the bottom surface of the chassis 113. The adhesion of the surface 20 effectively prevents the sloshing amplitude of the liquid surface 20 from affecting the atomization effect, and the floating assembly 11 is placed in the container 10 in cooperation with the structure of the pair of limiting posts 103 and the pair of limiting holes 115. Maintaining a certain range of movement can effectively maintain the level of the liquid level 20.

In summary, the atomizing device 1 of the present invention is normally floated on the liquid through the floating assembly 11 provided with the atomizing element 12, so that the atomizing element 12 is kept attached to the liquid surface on one side. The state of 20 effectively prevents the liquid 2 from overflowing to the other side of the atomizing element 12, thereby preventing the atomization from occurring, and preventing the liquid 2 from being generated due to heat generation compared with the conventional atomization technique. The increase in temperature destroys its composition and utility, and at the same time has an excellent atomization effect. In addition, through the tapered structure of the first guiding nozzle 112 and the second guiding nozzle 131, the atomized liquid 2 molecules can gradually increase the flow rate according to the Bainuuli theorem to avoid the liquid. The molecule of 2 is retained in the container 10, resulting in a situation in which the liquid 2 after atomization cannot smoothly flow out to the outside. Furthermore, in an embodiment, the structure of the pair of limiting posts 103 can limit the floating range of the floating component 11 relative to the liquid surface 20, and the bottom side of the floating component 11 and the liquid surface The adhesion of 20 reaches the effect of stabilizing the liquid level 20, so that the atomizing device 1 can also be applied to a relatively unstable use environment.

However, the above description is only for the preferred embodiment of the present invention and is not intended to limit the scope of the present invention; therefore, equivalent changes and modifications may be made without departing from the spirit and scope of the invention. Within the scope of the patent of the present invention.

1‧‧‧Atomizing device

10‧‧‧ Container

101‧‧‧ accommodating slots

102‧‧‧Fixed holes

11‧‧‧ Floating components

111‧‧‧ accommodating holes

112‧‧‧First guiding nozzle

113‧‧‧Chassis

114‧‧‧Top cover

12‧‧‧Atomizing element

13‧‧‧Spray components

131‧‧‧Second guiding nozzle

14‧‧‧Outer casing

141‧‧‧Fixed parts

15‧‧‧ Cover

151‧‧‧through hole

Claims (10)

An atomizing device comprises: a container having a receiving groove for loading a liquid; a floating component disposed in the container and in close contact with a liquid surface of the liquid to form a floating state, the bottom surface of the floating component is provided with a a first guiding nozzle is disposed on the opposite side of the hole, and the first guiding nozzle is in a tapered state; an atomizing element is tightly disposed in the receiving hole, and one side is coupled to the hole The liquid surface contacts to guide the liquid to perform an atomization operation through the atomizing element and flow out from the first guiding nozzle; and a spray element corresponding to the first guiding nozzle and assembled with the container And having a second guiding nozzle for guiding the atomized liquid to the outside, and the second guiding nozzle is also in a tapered state. The atomizing device of claim 1, wherein the floating assembly comprises a chassis and a top cover, the chassis is provided with the receiving hole and is in close contact with the liquid surface, and the top cover is provided with the first A guiding nozzle is disposed on the top side of the chassis. The atomizing device of claim 2, wherein the container is internally provided with a pair of limiting posts for limiting the displacement of the floating component on the liquid surface. The atomizing device of claim 3, wherein the chassis is provided with a pair of limiting holes for the limiting post, so that the pair of limiting posts are threaded through the pair of limiting holes. The atomizing device of claim 4, wherein the atomizing element is fixed in the receiving hole by gluing. The atomizing device according to claim 5, wherein the bottom side of the spray element is a plate-like structure to be assembled with the inner side surface of the container. The atomizing device according to claim 3, wherein the atomizing device is further provided with an outer casing that is sleeved on the outside of the container and connected to the container through a fixing member. The atomizing device of claim 7, further comprising an outer cover disposed on a top side of the container, and having a through hole corresponding to the second guiding nozzle, the second guiding nozzle Wear the cover. The atomizing device of claim 8, wherein the first guiding nozzle and the second guiding nozzle are respectively a tapered structure. The atomizing device of claim 9, wherein the floating assembly, the container and the spray element are made of polypropylene, and the outer casing and the outer cover are made of polycarbonate.