Atomizing equipment with a mist gathering mechanism

Abstract

The atomizing device containing a mist gathering mechanism includes a base, an atomizing water chamber with an open opening facing upward and an electrical chamber located below the atomizing water chamber, an atomizing generator is arranged on the bottom wall of the atomizing water chamber, and a blower is arranged in the electrical chamber; it also includes a water storage tank, which is installed on the base, and is used to store atomizing water and provide atomizing water to the atomizing water chamber; the beneficial technical effect of the present invention is that: since the mist collector and the water storage tank are detachable structures, that is, the mist collector can be removed from the water storage tank, the mist collector will not cause adverse effects on the independent and stable placement of the water storage tank. The upper end of the mist collector can be detachably extended into the avoidance channel, so that it can be well combined with the avoidance channel, and play a good role in gathering and guiding fog. In addition, when the water storage tank is not used, the mist collector can still play the role of guiding and gathering fog, increasing the use of the atomizing device.

Description

Technical Field

[0001] The invention relates to an atomizing device, which can adjust the humidity of the surrounding space. In particular, the invention relates to an atomizing device containing a fog gathering mechanism. Background Art

[0002] In autumn and winter, the humidity of the air is often relatively low. If you stay in a dry environment for a long time, it will cause harm to the human body. Therefore, using a humidifier to artificially add water mist to the air, thereby creating a living environment with appropriate humidity, is one of the best ways to solve the above problems. There are many types of humidifiers. For example, the inventor disclosed a new type of humidifier in the invention patent with patent number CN201611066182.8 filed on November 28, 2016. The humidifier includes an upper barrel body 1 and a lower barrel body 2 that are detachably connected to each other. The lower barrel body 2 includes a lower barrel shell 20 and the atomizing working part 3 arranged in the upper opening of the lower barrel shell 20. The atomizing working part 3 is a basin-shaped body with an open top, and thus has a bottom wall 30 and a side wall 37 surrounding the outer periphery of the bottom wall 30. An atomizing generator 360 is arranged on the bottom wall 30, and the atomizing generator 360 is used to atomize the liquid in the atomizing working part 3. The upper barrel 1 includes the water storage tank 4 and a mist guide channel 12 that passes through the water storage tank 4 and is used to guide out the mist. The water storage tank 4 can store a large amount of liquid at one time, so as to continuously provide liquid for the atomizing working part 3. A downwardly extending skirt portion 45 is also provided on the bottom wall of the water storage tank 4 and is arranged corresponding to the atomizing generator 360. The downwardly extending skirt portion 45 is arranged in an annular shape so as to have an annular space 450. The lower end edge of the downwardly extending skirt portion 45 extends below the set middle water level line H of the liquid atomizing chamber 36 so that when the humidifier is working normally, the lower end edge of the downwardly extending skirt portion 45 can be immersed in the atomized liquid, thereby making the annular space 450 a liquid-sealed space. In this way, the atomized gas generated during operation is gathered in the annular space 450 and cannot flow around, so that the airflow blown out of the air duct 361 is convenient for centrally blowing the atomized gas. During use, it can be found that the water storage tank 4 cannot be placed independently and stably due to the downwardly extending skirt portion 45 provided at the bottom, but if the arrangement of the downwardly extending skirt portion 45 is omitted, the fog gathering effect will be affected. Summary of the invention

[0003] In the face of the technical problems existing in the above-mentioned prior art, how to simplify the structure of the water storage tank so that it can be placed independently and stably without affecting the fog gathering effect of the atomizing device is one of the technical problems that the present invention needs to further solve. In view of this, the present invention proposes an atomizing device containing a fog gathering mechanism, including a base, on which an atomizing water chamber with an open opening facing upward and an electrical chamber located below the atomizing water chamber are arranged, an atomizing generator is arranged on the bottom wall of the atomizing water chamber, and a blower is arranged in the electrical chamber; it also includes a water storage tank, which is installed on the base, and the water storage tank is used to store atomizing water and provide atomizing water to the atomizing water chamber; it is characterized in that it also includes a fog collector, which is cylindrical and includes an axially arranged fog collector inner chamber, and the lower end of the fog collector is detachably arranged in the atomizing water chamber and allows the atomizing generator to be located in the fog collector inner chamber. within the range defined by the lower port; a water inlet channel is arranged between the outer space of the mist condenser and the inner cavity of the mist condenser, and the water inlet channel is used for allowing the atomized liquid in the atomizing water cavity located outside the mist condenser to enter the inner cavity of the mist condenser during atomization operation; an axially extending avoidance channel is arranged in the water storage tank, and the upper end of the mist condenser is detachably extended into the avoidance channel; and an air bleed channel is also included, the air inlet port of the air bleed channel is connected to the blower and the air outlet port is connected to the inner cavity of the mist condenser, and the air bleed channel is used for guiding the wind blown by the blower into the inner cavity of the mist condenser located on the water surface during atomization operation.

[0004] The mist collector is a component independent of the base and the water tank, that is, it is a split structure with the base and the water tank, so that the mist collector, the base and the water tank can be manufactured separately and independently, and the mist collector can be easily disassembled for cleaning.

[0005] In which, the lower end of the mist condenser is detachably arranged in the atomizing water chamber. The above feature defines that the lower end of the mist condenser can be detachably arranged on the bottom wall or side wall of the atomizing water chamber, or suspended in the atomizing water chamber through a structure in which its upper end can be detachably extended into the avoidance channel.

[0006] Wherein, the water inlet channel may be arranged on the wall of the lower end portion of the mist condenser, between the mist condenser and the atomizing water chamber, or on the bottom wall of the atomizing water chamber.

[0007] Among them, the atomization generator is located within the range defined by the lower port of the inner chamber of the mist condenser, so that the mist vapor atomized by the atomization generator is mainly gathered in the inner chamber of the mist condenser, and will not flow randomly and widely in the atomization water chamber, which is beneficial to reducing the consumption of mist vapor.

[0008] Among them, the upper end of the mist condenser can be detachably extended into the avoidance channel, so that the avoidance channel is not only used to receive the mist condenser but also used to discharge mist in combination with the mist condenser, that is, the mist formed by the atomization generator first enters the inner cavity of the mist condenser, and then enters the avoidance channel, so the drift path and range of the mist in the atomization device are limited by the inner cavity of the mist condenser and the avoidance channel, and cannot flow arbitrarily and over a large range, which is beneficial to reduce the consumption of mist.

[0009] Among them, the air duct is used for guiding the wind blown by the blower into the inner cavity of the mist condenser located on the water surface during atomization operation. According to the atomization application of the present invention, the air outlet port of the air duct is at least higher than the working water level during atomization operation. The air duct can either extend directly upward in the inner cavity of the mist condenser, or extend in the outer space of the inner cavity of the mist condenser and connect to the inner cavity of the mist condenser.

[0010] According to the above technical solution, compared with the prior art, the beneficial technical effect of the present invention is that: since the mist collector and the water tank are detachable structures, that is, the mist collector can be removed from the water tank, the mist collector will not have an adverse effect on the independent and stable placement of the water tank. The upper end of the mist collector can be detachably extended into the avoidance channel, so that it can be well combined with the avoidance channel to play a good role in gathering and guiding fog. In addition, even if the water tank is not used, the mist collector can still play the role of guiding and gathering fog, increasing the usage of the atomization device.

[0011] In order to realize the detachable structure between the mist condenser and the bottom wall of the atomizing water chamber, a further technical solution may be that the lower end of the mist condenser is provided with an outer skirt, a skirt through hole is provided on the outer skirt, and a positioning rib is provided on the outer wall of the skirt through hole; a shallow concave cavity is provided on the bottom wall of the atomizing water chamber, the atomizing generator is provided on the shallow concave cavity, the outer skirt of the mist condenser sinks into the shallow concave cavity and is tightly matched with the inner side wall of the shallow concave cavity through the positioning rib. According to the above technical solution, the provision of the skirt through hole can optimize the elasticity of the outer skirt, so that when the positioning rib is tightly matched with the inner side wall of the shallow concave cavity, the outer wall of the skirt through hole can be deformed appropriately, which is convenient for the outer skirt of the mist condenser to sink into the shallow concave cavity, and at the same time, a moderate tight fitting force is formed between the outer skirt of the mist condenser and the shallow concave cavity to avoid too tight fitting and affecting the disassembly of the mist condenser.

[0012] A further technical solution may also be that a position sensor and a controller are also provided in the electrical cavity, and a trigger is also provided on the mist condenser, and the trigger is used to trigger the position sensor when the mist condenser is installed in place so that the position sensor transmits the position signal of the mist condenser to the controller. According to the above technical solution, the trigger and the position sensor are a pair of signal sensor devices, which are used to transmit the signal that the mist condenser is installed in place. In a specific implementation scheme, they can adopt direct touch signal devices such as travel switches, or non-contact induction devices. For example, the trigger can be a magnetic part, and the position sensor can be a Hall sensor. When the mist condenser is installed in place, the Hall sensor can sense the magnetic field signal of the magnetic part, thereby transmitting the position signal of the mist condenser to the controller, and the controller decides whether to start the atomization work or determine the atomization working mode accordingly.

[0013] A further technical solution may be that the bottom end of the air induction channel is connected to the bottom wall of the atomizing water chamber and its bottom port is connected to the blower, and the air induction channel is inserted into the inner chamber of the mist condenser of the mist condenser. The bottom port of the air induction channel is the air inlet port, and the air outlet port of the air induction channel is located at the top end of the air induction channel.

[0014] A further technical solution may be that a cylindrical mist-inducing channel is provided in the mist condenser, the upper end of the mist-inducing channel is connected to the upper end of the mist condenser and the upper port of the mist-inducing channel is connected to the upper port of the inner chamber of the mist condenser, the lower end of the mist-inducing channel extends downward in the inner chamber of the mist condenser and is suspended, the air-inducing channel is located on the side of the mist-inducing channel, and from a top view, the atomization generator is located within the range defined by the lower port of the mist-inducing channel, and a mist-inducing channel air inlet is provided on the lower end of the mist-inducing channel, and the mist-inducing channel air inlet is used to allow the gas coming out of the air-inducing channel to enter the mist-inducing channel through the mist-inducing channel air inlet when the atomization is working because the atomized water has closed the lower port of the mist-inducing channel. Wherein, the lower end of the mist-inducing channel extends downward in the inner chamber of the mist condenser and is suspended, and the above feature defines that there is a distance between the lower end of the mist-inducing channel and the bottom wall of the atomizing water chamber. According to the above technical solution, when the atomized water closes the lower port of the mist-inducing channel, the mist vapor cannot leak out of the mist-inducing channel through the lower port of the mist-inducing channel, but can enter the avoidance channel under the blowing of the airflow entering the mist-inducing channel through the air inlet of the mist-inducing channel. In addition, by reasonably arranging the position of the air inlet of the mist-inducing channel, the airflow blown into the mist-inducing channel is higher than the water level of the atomized water in the mist-inducing channel and is located below the bursting point of the atomizer generator, without directly impacting the bursting point of the atomizer generator and destroying the atomization effect of the atomizer generator.

[0015] A further technical solution may be that a control valve is provided on the connecting water pipeline between the water storage tank and the atomizing water chamber, and a liquid level sensor is provided in the atomizing water chamber located outside the mist condenser, and the liquid level sensor is used to control the switching action of the control valve according to the water level in the atomizing water chamber.

[0016] A further technical solution may be that the liquid level sensor is an annular float, and the float surrounds the outside of the mist collector. In this way, the outer space of the mist collector becomes the placement space of the float, and the float can be set to a reasonable large volume, so as to have a reasonable buoyancy.

[0017] A further technical solution may also be that it also includes a cylindrical water retainer, the lower end of the water retainer is arranged on the upper end of the mist condenser, and the upper end of the water retainer can be detachably extended into the avoidance channel; a mist passage is arranged in the water retainer, the lower port of the mist passage is connected to the upper port of the inner cavity of the mist condenser, and the upper port of the mist passage is connected to the avoidance channel; upper and lower water retaining wing plates are arranged on the inner side wall of the mist passage, the fixed end of the water retaining wing plate is connected to the inner side wall of the mist passage, and the other end is a free end, and the upper and lower adjacent water retaining wing plates are staggered left and right to form a tortuous mist passage, and from the top view, the free ends of the upper and lower adjacent water retaining wing plates are overlapped together to block the mist passage. The upper and lower adjacent water retaining wing plates are staggered in left and right arrangement, and the above feature defines that when the upper water retaining wing plate is arranged on the left, the water retaining wing plate next to it and below it is arranged on the right. According to the above technical solution, the water retaining wing plate can block the droplets entering the mist passage, but does not hinder the flow of mist.

[0018] A further technical solution may be to provide a sealing device between the side wall of the water retainer and the side wall defining the escape channel, so as to prevent the mist entering the escape channel from flowing back into the atomized water chamber through the gap between the side wall of the water retainer and the side wall defining the escape channel.

[0019] A further technical solution may be that the water retaining wing plate is arranged upwardly tilted, and a water return hole is provided at the fixed end of the wing plate, so that the liquid accumulated on the water retaining wing plate can flow back into the atomized water chamber through the water return hole.

[0020] Since the present invention has the above characteristics and advantages, it can be applied to atomization equipment containing a mist gathering mechanism. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a schematic diagram of the exploded structure of an atomization device using the technical solution of the present invention;

[0022] Figure 2 is a schematic diagram of the exploded structure of the atomization device;

[0023] Figure 3 is a schematic diagram of the structure of the atomizing device in a top view, in which the water tank cover 12 is omitted;

[0024] Figure 4 yes Figure 3 Schematic diagram of the cross-sectional structure in the AA direction;

[0025] Figure 5 yes Figure 4The enlarged structural diagram of the middle C part;

[0026] Figure 6 yes Figure 3 Schematic diagram of the cross-sectional structure in the middle BB direction;

[0027] Figure 7 is a schematic structural diagram of the mist condenser 4 in a top view;

[0028] Figure 8 is a schematic diagram of the three-dimensional structure of the water quality regulator 900;

[0029] Fig. 9 is a schematic diagram of the three-dimensional structure of the water quality regulator 900 from another viewing direction;

[0030] Fig.10 is a schematic diagram of the exploded structure of the water quality regulator 900;

[0031] Fig.11 is a schematic structural diagram of the water quality regulator 900 as viewed from the side;

[0032] Fig.12 yes Fig.11 Schematic diagram of the cross-sectional structure in the middle DD direction;

[0033] Fig.13 yes Fig.11 Schematic diagram of the cross-sectional structure in the EE direction. DETAILED DESCRIPTION

[0034] The following is a further specific implementation description of an atomization device to which the present invention is applied in conjunction with the accompanying drawings.

[0035] like Figure 1 to Figure 7As shown, the present invention proposes an atomization device containing a mist gathering mechanism, including a base 200, on which an atomization water chamber 2 with an open opening facing upward and an electrical chamber 21 located below the atomization water chamber 2 are arranged, an atomization generator 22 is arranged on the bottom wall of the atomization water chamber 2, and a blower 31 is arranged in the electrical chamber 21; it also includes a water storage tank 100, the water storage tank 100 is installed on the base 200, the water storage tank 100 is used to store atomization water and provide atomization water to the atomization water chamber 2; it is characterized in that it also includes a mist condenser 4, the mist condenser 4 is cylindrical and includes an axially arranged mist condenser inner chamber 40, the lower end of the mist condenser 4 is detachably arranged in the atomization water chamber 2 and allows the atomization generator 22 to be located in the mist condenser inner chamber 40 Within the range defined by the lower port 45, a water inlet channel is provided between the outer space of the mist condenser 4 and the inner chamber 40 of the mist condenser, and the water inlet channel is used for allowing the atomized liquid in the atomizing water chamber 2 located outside the mist condenser 4 to enter the inner chamber 40 of the mist condenser during atomization operation; an axially extending avoidance channel 110 is arranged in the water storage tank 100, and the upper end portion 43 of the mist condenser 4 is detachably extended into the avoidance channel 110; and an air bleed channel 3 is also included, the air inlet port 301 of the air bleed channel 3 is connected to the blower 31 and the air outlet port 302 is connected to the inner chamber 40 of the mist condenser, and the air bleed channel 3 is used for guiding the wind blown by the blower 31 into the inner chamber 40 of the mist condenser located on the water surface during atomization operation. Furthermore, the bottom end of the air inlet channel 3 is connected to the bottom wall of the atomizing water chamber 2 and its bottom port (i.e., the air inlet port 301) is connected to the blower 31, the air inlet channel 3 is inserted into the mist condenser inner chamber 40 of the mist condenser 4, and the air outlet port 302 of the air inlet channel 3 is located at the top end of the air inlet channel 3.

[0036] Among them, Figure 1 to Figure 4 As shown, the water tank 100 includes an outer shell 1 arranged in an annular shape, an inner shell 11 in a trumpet shape, and a water tank cover 12 provided with a mist outlet 120. A water storage space is formed between the outer shell 1 and the inner shell 11, and the avoidance channel 110 is formed in the inner shell 11. The avoidance channel 110 is connected to the mist outlet 120 and thus to the external space. In order to optimize the appearance of the water tank 100, the outer shell 1 can be made of a transparent material, and the water tank cover 12 can be made of a colored material.

[0037] Among them, Figure 2 to Figure 7As shown, the mist condenser 4 is a component independent of the base 200 and the water storage tank 100, that is, it is a split structure with the base 200 and the water storage tank 100, so that the mist condenser 4, the base 200 and the water storage tank 100 can be manufactured separately and independently, and the mist condenser 4 can be easily disassembled for cleaning. The lower end of the mist condenser 4 extends into the atomizing water chamber 2 and is detachably connected to the bottom wall of the atomizing water chamber 2. A mist condenser water inlet 41 is provided on the wall of the lower end of the mist condenser 4, and the mist condenser water inlet 41 becomes the water inlet channel. Of course, in other embodiments, the water inlet channel can also be arranged between the mist condenser 4 and the atomizing water chamber 2 or on the bottom wall of the atomizing water chamber 2; and the lower end of the mist condenser 4 can also be detachably arranged on the side wall of the atomizing water chamber 2 or suspended in the atomizing water chamber 2 through a structure in which its upper end can be detachably extended into the avoidance channel 110.

[0038] In order to facilitate the installation of the mist condenser 4, further, the lower end of the mist condenser 4 is provided with an outer skirt 42, a skirt through hole 420 is provided on the outer skirt 42, and a positioning rib 421 is provided on the outer wall of the skirt through hole 420; a shallow concave cavity 14 is provided on the bottom wall of the atomizing water chamber 2, the atomizing generator 22 is provided on the shallow concave cavity 14, and the outer skirt 42 of the mist condenser 4 is sunk into the shallow concave cavity 14 and is tightly matched with the inner side wall of the shallow concave cavity 14 through the positioning rib 421. According to the above technical solution, the arrangement of the skirt through hole 420 can optimize the elasticity of the outer skirt 42, so that when the positioning rib 421 is tightly matched with the inner side wall of the shallow concave cavity 14, the outer wall of the skirt through hole 420 can be deformed appropriately, so that the outer skirt 42 of the mist condenser 4 can be easily sunk into the shallow concave cavity 14, and at the same time, a moderate tight fit force is formed between the outer skirt 42 of the mist condenser 4 and the shallow concave cavity 14, so as to avoid the fitting being too tight and affecting the disassembly of the mist condenser 4. In order to sense whether the mist condenser 4 is installed in place, a position sensor 23 and a controller (not shown in the figure) are also arranged in the electrical cavity 21, and a trigger 44 matched with the position sensor 23 is also arranged on the mist condenser 4. The trigger 44 is used to trigger the position sensor 23 when the mist condenser 4 is installed in place so that the position sensor 23 transmits the position signal of the mist condenser 4 to the controller. In this embodiment, the trigger 44 is a magnetic part, and the position sensor 23 is a Hall sensor. When the mist condenser 4 is installed in place, the Hall sensor can sense the magnetic field of the magnetic part, thereby transmitting the position signal of the mist condenser 4 to the controller, and the controller decides whether to start the atomization work or determine the atomization working mode accordingly.

[0039] According to the above technical solution, when the lower end of the mist collector 4 is extended into the atomizing water chamber 2 and detachably combined with the bottom wall of the atomizing water chamber 2, the atomizing generator 22 is located within the range defined by the lower port 45 of the inner chamber 40 of the mist collector. The water flow in the atomizing water chamber 2 enters the inner chamber 40 of the mist collector 4 through the mist collector water inlet 41. The upper end 43 of the mist collector 4 is detachably extended into the avoidance channel 110. In this way, the avoidance channel 110 is not only used to receive the mist collector 4 but also used to discharge atomized steam in combination with the mist collector 4. The mist steam formed by the operation of the atomizing generator 22 first enters the inner chamber 40 of the mist collector, and then enters the avoidance channel 110, so the drift path and range of the mist steam in the atomizing device are limited, and it cannot be arbitrarily and widely dispersed, which is conducive to reducing the consumption of mist steam and increasing the amount of mist output. In addition, since the mist collector 4 and the water tank 100 are detachable, that is, the mist collector 4 can be removed from the water tank 100, the structure of the water tank 100 can be simplified, and the mist collector 4 will not adversely affect the independent and stable placement of the water tank 100. In addition, when the water tank 100 is not used, the mist collector 4 can still play the role of guiding and gathering mist, thereby increasing the usage of the atomization device.

[0040] like Figure 4 and Figure 6As shown, the mist condenser 4 is provided with a cylindrical mist induction channel 5, the upper end of the mist induction channel 5 is connected to the upper end 43 of the mist condenser 4 and the upper port 51 of the mist induction channel 5 is connected to the upper port of the inner cavity 40 of the mist condenser, the lower end of the mist induction channel 5 extends downward in the inner cavity 40 of the mist condenser and is suspended, the air induction channel 3 is located on the side of the mist induction channel 5, and from the top view, the atomization generator 22 is located within the range defined by the lower port 52 of the mist induction channel 5, and the lower end of the mist induction channel 5 is provided with a mist induction channel air inlet hole 53, and the mist induction channel air inlet hole 53 is used for when the atomization is working, because the atomized water has closed the lower port 52 of the mist induction channel 5, so that the gas coming out of the air induction channel 3 can enter the mist induction channel 5 through the mist induction channel air inlet hole 53. Among them, the lower end of the mist-inducing channel 5 extends downward in the inner cavity 40 of the mist collector and is suspended. The above feature defines that there is a distance between the lower end of the mist-inducing channel 5 and the bottom wall of the atomizing water chamber 2. According to the above technical solution, when the atomized water closes the lower port 52 of the mist-inducing channel 5, the mist vapor cannot leak out of the mist-inducing channel 5 through the lower port 52, but can enter the avoidance channel 110 under the blowing of the air flow entering the air-inducing channel 3 through the air inlet 53 of the mist-inducing channel. In addition, by reasonably arranging the position of the air inlet 53 of the mist-inducing channel, the air flow blown into the mist-inducing channel 5 is higher than the water level of the atomized water in the mist-inducing channel 5 but is located below the bursting point of the atomizing generator 22, and will not directly impact the bursting point of the atomizing generator 22 to destroy the atomizing effect of the atomizing generator 22, and also avoids the formation of high air pressure above the bursting point to inhibit the upward dispersion of the mist vapor.

[0041] like Figure 4 , Figure 5 and Figure 6As shown, it also includes a cylindrical water retainer 6, the lower end of which is arranged on the upper end 43 of the mist condenser 4, and the upper end of the water retainer 6 is detachably extended into the avoidance channel 110; a mist passage 60 is arranged in the water retainer 6, the lower port 601 of the mist passage 60 is connected to the upper port of the inner cavity 40 of the mist condenser, and the upper port 602 of the mist passage 60 is connected to the avoidance channel 110; on the inner wall of the mist passage 60 Water retaining wing plates (611, 621) are arranged at intervals in the upper and lower parts, the fixed ends of the water retaining wing plates (611, 621) are connected to the inner side wall of the mist passage 60, and the other ends are free ends. The water retaining wing plates (611, 621) arranged adjacent to each other in the upper and lower parts are arranged in a staggered manner to the left and right to form a tortuous mist passage. From a top view, the free ends of the water retaining wing plates (611, 621) arranged adjacent to each other in the upper and lower parts are stacked together to block the mist passage 60. Among them, the water retaining wing plates (611, 621) arranged adjacent to each other in the upper and lower parts are arranged in a staggered manner to the left and right, and the above-mentioned feature defines that when the water retaining wing plate 611 is arranged on the left side, the water retaining wing plate 621 is arranged on the right side. According to the above-mentioned technical solution, the water retaining wing plates (611, 621) can be used to block droplets entering the mist passage 60, but the flow of mist vapor is not hindered. A sealing device 7 is provided between the side wall of the water retainer 6 and the side wall defining the avoidance channel 110, and the sealing device 7 is a silicone seal. This can prevent the mist entering the avoidance channel 110 from flowing back into the atomizing water chamber 2 through the gap between the side wall of the water retainer 6 and the side wall defining the avoidance channel 110. Further, the water retaining wing plate (611, 621) is arranged to tilt upward, wherein a water return hole 6110 is provided at the fixed end of the wing plate 611. In this way, the liquid accumulated on the water retaining wing plate 611 can flow back into the atomizing water chamber 2 through the water return hole 6110.

[0042] like Figure 4 and Figure 6As shown, a water quality regulator 900 is also provided on the water storage tank 100, and the water inlet 911 of the water quality regulator 900 is connected to the inner cavity of the water storage tank 100, and a control valve 92 is provided on the connecting water pipeline between the water quality regulator 900 and the atomizing water chamber 2, and the control valve 92 is used to control the opening and closing of the connecting water pipeline. Specifically, the control valve 92 includes a valve seat 921, a valve core 922 and a reset spring 923 capable of driving the valve core 922 to reset, and a water leakage hole is provided on the valve seat 921, and the valve core 922 can close or open the water leakage hole. Further, a liquid level sensor 8 is provided in the atomizing water chamber 2 located outside the mist collector 4, and the liquid level sensor 8 is used to control the switching action of the control valve 92 according to the water level in the atomizing water chamber 2. In this embodiment, the liquid level sensor 8 is an annular float, and the float surrounds the outside of the mist collector 4. A support seat 24 is provided in the atomizing water chamber 2, and the liquid level sensor 8 is movably arranged on the support seat 24. When the water level in the atomizing water chamber 2 drops to a rated value, the tail end 81 of the liquid level sensor 8 sinks and the head end 82 thereof tilts upward to lift up the valve core 922, and the atomized water in the water storage tank 100 enters the atomizing water chamber 2 through the leakage hole for water replenishment; when the water level in the atomizing water chamber 2 rises to a rated value, the tail end 81 of the liquid level sensor 8 tilts upward and the head end 82 thereof sinks away from the valve core 922, and the valve core 922 closes the leakage hole to stop water replenishment.

[0043] The water quality regulator 900 is annular and has an inner ring passage 90. The mist collector 4 passes through the inner ring passage 90 and its upper port is connected to the avoidance passage 110. The water quality regulator 900 is a device for adjusting the liquid composition. For example, it can be a device for physically filtering out impurities such as sand and heavy metal particles by using a filter, or it can be a device for chemically softening or sterilizing the liquid passing through by using chemical substances. The atomized water in the water storage tank 100 flows through the water quality regulator 900 and then enters the atomized water cavity. Secondly, the mist collector 4 passes through the inner ring passage 90 and its upper port is connected to the avoidance passage 110. The above features first define the assembly relationship between the mist collector 4 and the water quality regulator 900. The mist collector 4 passes through the inner ring passage 90, that is, the water quality regulator 900 is inserted into the mist collector 4. In this way, the mist collector 4 cleverly uses the inner ring passage 90 of the water quality regulator 900 as one of its installation spaces, thereby reducing the total occupied space of the mist collector 4 and the water quality regulator 900. In addition, the above features also define that the mist entering the inner cavity 40 of the mist collector passes through the inner ring passage 90 and enters the avoidance passage 110 under the guidance of the mist collector 4, and will not be absorbed by the substances in the water quality regulator 900 to affect the mist output. According to the above technical scheme, the water quality regulator 900 can be used to adjust the water quality of the liquid in the water storage tank 100, and the mist collector 4 can be used to guide the mist to pass through the water quality regulator 900 and smoothly enter the avoidance channel 110 without being absorbed by the substances in the water quality regulator 900 and affecting the mist output.

[0044] The structure of the water quality regulator 900 is further described below. Figure 8 to Figure 13 As shown, the water quality regulator 900 comprises a storage shell 91 for storing filtered material and a pair of movable clamping arms (9, 9a) arranged on the storage shell 91, which are arranged on the left and right. The pair of movable clamping arms (9, 9a) can be opened and closed, and a clamping seat 13 adapted to the movable clamping arms (9, 9a) is arranged on the water storage tank 100. A pair of left and right clamping ports (130, 130a) are arranged on the clamping seat 13. The water quality regulator 900 can be detachably clamped to the clamping ports (130, 130a) of the clamping seat 13 through the pair of movable clamping arms (9, 9a). The pair of movable clamping arms (9, 9a) can be opened and closed, and the above characteristics define that the pair of movable clamping arms (9, 9a) can move relatively close to each other and move away from each other, so that their total clamping length can be adjusted.

[0045] like Fig.10As shown, the structure of the movable clamp arm (9, 9a) is similar, and the movable clamp arm 9 is used as an example for description below. The movable clamp arm 9 includes a pair of side wings (901, 901a) disposed front and rear, and a slideway (913, 913a) is provided on the storage shell 91 and is adapted to the side wings (901, 901a) one-to-one. The movable clamp arm 9 is slidably arranged on the slideway (913, 913a) through the side wings (901, 901a). According to the above technical solution, the sliding stability of the movable clamp arm (9, 9a) and the movement direction of the movable clamp arm (9, 9a) can be optimized and fixed by the synergistic effect of the slideway (913, 913a) and the side wings (901, 901a). The slideway (913, 913a) has a similar structure, and the slideway 913 is used as an example for description below. From the cross section, the slideway 913 is C-shaped and has a side opening, an upper slideway wall 9131, a lower slideway wall 9132, and an intermediate slideway wall 9133 connected between the upper slideway wall 9131 and the lower slideway wall 9132. The end of the slideway (913, 913a) is provided with an escape opening 9130, and the escape opening 9130 is used to escape the side wings (901, 901a) of the movable clamping arm (9, 9a) so that it can be installed in the slideway (913, 913a). According to the above technical solution, the upper slideway wall 9131 and the lower slideway wall 9132 define the movable clamping arm (9, 9a) in the upper and lower directions. The movable clamping arm (9, 9a) can be prevented from moving upward or downward and leaving the slideway (913, 913a).

[0046] like Fig.10 and Fig.12 As shown, the side wings (901, 901a) have similar structures, and the side wings 901 are used as an example for description. The side wings 901 are provided with elastic buckle arms 902, and buckle parts 914 are provided in the slideways (913, 913a). The buckle parts 914 have a movable space 9140. The elastic buckle arms 902 can be buckled to the buckle parts 914, thereby preventing the side wings 901 from passing through the avoidance opening 9130 and escaping from the slideway 913. The elastic buckle arms 902 can also utilize the movable space 9140 to satisfy the opening and closing movement of the movable clamping arms (9, 9a). According to the above technical solution, the installation of the movable clamping arms (9, 9a) is extremely simple.

[0047] like Fig.10 and Fig.12As shown, elastic elements (94, 94a) are respectively arranged between the movable clamping arm (9, 9a) and the storage shell 91, and the elastic elements (94, 94a) can respectively keep the movable clamping arm (9, 9a) in an open state. The elastic elements (94, 94a) have similar structures, and the elastic element 94 is introduced as a class below. In this embodiment, the elastic element 94 is a plastic part and is flat, including a pair of curved arm bodies (941, 942) arranged front and rear, and a head 943 and a tail 944 connected between the pair of curved arm bodies (941, 942) and arranged left and right, the head 943 presses on the storage shell 91, and the tail 944 presses on the movable clamping arm 9. According to the above technical solution, the elastic element 94 not only has the ability to keep the movable clamping arm 9 in an open state, but also its structure is conducive to reducing the height.

Claims

1. An atomizing device with a mist gathering mechanism, comprising a base, on which an atomizing water chamber with an opening facing upward and an electrical chamber located below the atomizing water chamber are arranged, an atomizing generator is arranged on the bottom wall of the atomizing water chamber, and a blower is arranged in the electrical chamber; further comprising a water storage tank, which is installed on the base and is used to store atomizing water and provide atomizing water to the atomizing water chamber; characterized in that: It also includes a mist condenser, which is cylindrical and includes an axially arranged mist condenser inner chamber, the lower end of the mist condenser is detachably arranged in the atomizing water chamber and allows the atomizing generator to be located within the range defined by the lower end of the mist condenser inner chamber; a water inlet channel is arranged between the outer space of the mist condenser and the mist condenser inner chamber, and the water inlet channel is used to allow the atomized liquid in the atomizing water chamber located outside the mist condenser to enter the mist condenser inner chamber during atomization operation; an axially extending avoidance channel is arranged in the water storage tank, and the upper end of the mist condenser is detachably extended into the avoidance channel; it also includes an air inlet channel, the air inlet port of the air inlet channel is connected to the blower and the air outlet port is connected to the mist condenser inner chamber, and the air inlet channel is used to guide the wind blown by the blower to the mist condenser inner chamber located on the water surface during atomization operation; The bottom end of the air induction channel is connected to the bottom wall of the atomizing water chamber and its bottom port is connected to the blower, and the air induction channel is inserted into the inner chamber of the mist condenser of the mist condenser; The mist condenser is provided with a cylindrical mist induction channel, the upper end of the mist induction channel is connected to the upper end of the mist condenser and the upper port of the mist induction channel is connected to the upper port of the inner cavity of the mist condenser, the lower end of the mist induction channel extends downward in the inner cavity of the mist condenser and is suspended, the air induction channel is located on the side of the mist induction channel, and from a top view, the atomization generator is located within the range defined by the lower port of the mist induction channel, and the lower end of the mist induction channel is provided with a mist induction channel air inlet hole, and the mist induction channel air inlet hole is used for allowing the gas coming out of the air induction channel to enter the mist induction channel through the mist induction channel air inlet hole when atomization is working because the atomized water has closed the lower port of the mist induction channel.

2. The atomizing device according to claim 1, characterized in that: The lower end of the mist condenser is provided with an outer skirt, a skirt through hole is provided on the outer skirt, and positioning ribs are provided on the outer wall of the skirt through hole; a shallow concave cavity is provided on the bottom wall of the atomizing water cavity, the atomizing generator is arranged on the shallow concave cavity, the outer skirt of the mist condenser sinks into the shallow concave cavity and is tightly matched with the inner side wall of the shallow concave cavity through the positioning ribs.

3. The atomizing device according to claim 1, characterized in that: A position sensor and a controller are also provided in the electrical cavity, and a trigger is also provided on the mist condenser. The trigger is used to trigger the position sensor when the mist condenser is installed in place so that the position sensor transmits a position signal of the mist condenser to the controller.

4. The atomizing device according to any one of claims 1 to 3, characterized in that: A control valve is provided on the connecting water pipeline between the water storage tank and the atomizing water chamber, and a liquid level sensor is provided in the atomizing water chamber located outside the mist condenser. The liquid level sensor is used to control the switching action of the control valve according to the water level in the atomizing water chamber.

5. The atomizing device according to claim 4, characterized in that: The liquid level sensor is an annular float, and the float surrounds the outside of the mist condenser.

6. The atomizing device according to any one of claims 1 to 3, characterized in that: It also includes a cylindrical water retainer, the lower end of which is arranged on the upper end of the mist condenser, and the upper end of which is detachably extended into the avoidance channel; a mist passage is arranged in the water retainer, the lower end of which is connected to the upper end of the inner cavity of the mist condenser, and the upper end of which is connected to the avoidance channel; Water retaining wing plates are arranged at intervals in upper and lower directions on the inner side wall of the mist passage, a fixed end of the water retaining wing plate is connected to the inner side wall of the mist passage, and the other end is a free end, and the upper and lower adjacent water retaining wing plates are arranged in a staggered manner to the left and right to form a tortuous mist passage. From a top view, the free ends of the upper and lower adjacent water retaining wing plates are overlapped to block the mist passage.

7. The atomizing device according to claim 6, characterized in that: A sealing device is arranged between the side wall of the water retainer and the side wall for defining the avoidance channel.

8. The atomizing device according to claim 6, characterized in that: The water retaining wing plate is arranged to tilt upward, and a water return hole is provided at the fixed end of the wing plate.

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