Atomizing device and control method of atomizing device

Abstract

The present invention relates to an atomizing device and a control method for the atomizing device, and belongs to the field of household appliances. An atomizing device includes a base assembly, wherein the base assembly is provided with an atomizing space and an air passage; a windshield assembly, wherein the windshield assembly is movably arranged on the base assembly; and a mist outlet shell, wherein the mist outlet shell is detachably arranged on the base assembly, and a pressing pin is arranged on the mist outlet shell, wherein the pressing pin is arranged relative to the windshield assembly, wherein the mist outlet shell has at least a first position and a second position relative to the base assembly, and wherein the windshield assembly has at least a third position and a fourth position relative to the base assembly. By controlling the pressing pin provided on the mist outlet shell to control the windshield assembly, the connection or separation between the atomizing space and the air passage is achieved, thereby achieving the purpose of accurately controlling the mist emission of the atomizing device, improving the use efficiency of the atomizing device, and enhancing the market competitiveness of the atomizing device.

Description

Technical Field

[0001] The present invention relates to the field of household appliances, and in particular to an atomizing device and a control method of the atomizing device. Background Art

[0002] With the development of economy and the improvement of people's living standards, people's requirements for quality of life are getting higher and higher, making atomizers gradually become a must-have for most families. In the prior art, the water mist control accuracy of the atomizer is often insufficient, resulting in poor user experience, and may also cause the atomizer to burn dry and damage or even threaten the safety of the user's life and property. Summary of the invention

[0003] Based on this, it is necessary to provide an atomizing device and a control method for the atomizing device to address the problem of poor water mist control function of the atomizing device.

[0004] 1. An atomizing device, the atomizing device comprising: a base assembly, the base assembly being provided with an atomizing space and an air passage; a windshield assembly, the windshield assembly being movably arranged on the base assembly; a mist outlet shell, the mist outlet shell being detachably arranged on the base assembly, the mist outlet shell being provided with a pressing pin, the pressing pin being arranged relative to the windshield assembly, the mist outlet shell having at least a first position and a second position relative to the base assembly, and the windshield assembly having at least a third position and a fourth position relative to the base assembly; when the mist outlet shell is located at the first position, the mist outlet shell is arranged on the base assembly, the pressing pin is abutted against the windshield assembly, the windshield assembly is located at the third position, and the atomizing space is connected to the air passage; when the mist outlet shell is located at the second position, the mist outlet shell is separated from the base assembly, the pressing pin is separated from the windshield assembly, the windshield assembly is located at the fourth position, and the windshield assembly separates the atomizing space from the air passage.

[0005] The present application discloses an atomizing device. By providing an atomizing space on a base assembly, a dedicated area is provided for the atomizing of the atomizing device, so that the atomization conversion of water can be performed more efficiently, ensuring that the generated mist is concentrated and of good quality, and helping to maintain relatively stable temperature and humidity conditions, which is conducive to the smooth progress of atomization and reduces the interference of external factors on the atomization effect. By providing an air passage on the base assembly, air can flow smoothly inside the atomizing device, and the atomized water vapor can be quickly diffused into the surrounding environment, thereby improving the uniformity and efficiency of humidification. The windshield assembly is arranged on the base assembly and the push-down pin provided on the mist outlet shell can control the movement of the windshield assembly. When the mist outlet shell is in a first position relative to the base assembly, that is, the mist outlet shell and the base assembly are in contact, the push-down pin and the windshield assembly are resisted, and the windshield assembly is pressed down by the push-down pin, thereby causing the atomization space to be connected with the wind passage. When the mist outlet shell is in a second position relative to the base assembly, that is, the mist outlet shell is separated from the base assembly, the push-down pin is separated from the windshield assembly, and the windshield assembly rises, thereby separating the atomization space from the wind passage, especially during movement. The safety of the atomization device during use is enhanced. At the same time, when the atomization shell is picked up, the atomization space and the wind passage can be separated, which can reduce unnecessary waste of mist, and also help to keep the surrounding environment clean and tidy, achieve a certain energy-saving effect, and enhance the market competitiveness of the atomization device.

[0006] In one embodiment, the base assembly includes an atomizing shell, a base, a bottom plate, an atomizing assembly, a heating assembly and a fan, the base is arranged on the bottom plate, the base and the bottom plate are enclosed to form a receiving chamber, the atomizing shell is arranged on the base, the atomizing shell and the base are enclosed to form an atomizing chamber and a heating chamber, the windshield assembly is movable between the atomizing shell and the base, the base is provided with an air outlet, the air outlet is communicated with the wind passage, the windshield assembly can open or close the air outlet, the atomizing assembly is arranged on the base, the heating assembly is arranged on the base, the fan is arranged on the base, and the atomizing assembly, the heating assembly and the fan are all located in the receiving chamber. By arranging the base on the bottom plate and the atomizing shell on the base, a stable base assembly is provided for the entire atomizing device, and a force-bearing support is provided for the atomizing device. The receiving chamber formed by the base and the bottom plate provides a storage location for other atomizing device components to avoid damage or failure caused by the invasion of water vapor. Since the atomizing shell is arranged on the base, the two are enclosed to form an atomizing chamber and a heating chamber. The atomizing chamber is used to generate water mist to realize the main function of the atomizing device, while the heating chamber realizes the heating function of the mist, and at the same time, the mist can be diffused into the air faster, thereby accelerating the efficiency of humidification. By arranging the windshield assembly between the atomizing shell and the base, and the air outlet provided on the base is connected to the wind passage, the user can assemble the mist outlet shell on the base assembly, and control the opening and closing of the air outlet by manipulating the lifting and lowering of the windshield assembly, so as to achieve the process of controlling the blowing and misting, and realize the precise control of the amount of misting. By arranging the atomizing assembly, the heating assembly and the fan on the base and in the accommodating chamber, it can be ensured that the three components of the atomizing device will not shift or fall off during operation, thereby ensuring the normal use of the atomizing device, and also ensuring that they operate in a relatively closed and dedicated space, which can concentrate the effects of atomization, heating and blowing, and reduce the interference of external factors on their working state, thereby improving the efficiency of humidification and the user's experience.

[0007] In one embodiment, the mist outlet housing includes an upper cover assembly, a lower shell assembly and a filter cover, the lower shell assembly is arranged on the base assembly, the upper cover assembly is arranged on the lower shell assembly, the lower shell assembly is provided with a water storage chamber, the lower shell assembly is provided with a mist outlet channel, the mist outlet channel at least partially penetrates the water storage chamber, the upper cover assembly is provided with a mist outlet hole, the mist outlet hole is connected to the mist outlet channel, the lower shell assembly is provided with a water inlet, the water inlet is connected to the water storage chamber, and the filter cover is arranged on the lower shell assembly and located at the water inlet. By arranging the lower shell assembly on the base assembly and then arranging the upper cover assembly on the lower shell assembly, the entire mist outlet housing is firmly mounted on the base assembly, ensuring that the atomizing device maintains structural stability during use. The upper cover assembly and the lower shell assembly are used to form a water storage chamber. The user can directly open the upper cover assembly to add water to the atomizing device. The structure is simple and clear, which is convenient for the user to operate the atomizing device. At the same time, the lower shell assembly is also provided with a mist outlet channel, which further simplifies the structure of the entire atomizing device, separates the mist outlet position from the water storage chamber, and enables it to be smoothly discharged from the mist outlet hole provided in the upper cover assembly, thereby ensuring the efficiency of the mist outlet and the humidification effect. A water inlet is provided in the lower shell assembly and the water inlet is connected to the water storage chamber. Since the filter cover is provided in the water inlet, it can intercept larger particle impurities that may exist in the water to prevent them from entering the base assembly and damaging the internal components. At the same time, it helps to reduce pollutants entering the water tank, keep the water in the water tank relatively clean to a certain extent, ensure the cleanliness of the mist, and enhance the user experience.

[0008] In one embodiment, the lower shell assembly includes a lower shell, a lower pressure pin and a lower shell handle, wherein the lower pressure pin is arranged on the lower shell, the lower pressure pin can be separated from or offset from the wind shield assembly, the lower shell handle is arranged on the inner side of the lower shell, the lower shell is provided with the mist outlet channel, and the lower shell is provided with the water inlet. By arranging the lower pressure pin on the lower shell and being located at the bottom of the lower shell, and the lower shell handle is arranged on the inner side of the lower shell, the user can conveniently pick up or put down the lower shell by using the lower shell handle, and the air outlet can be closed or opened by the lower pressure pin while picking up or putting down the lower shell. The structure is compact and simple, which is convenient for the user to control and operate the lower shell assembly. At the same time, the lower shell handle is arranged on the inner side of the lower shell. When viewed from the outside of the atomizing device, the overall appearance of the device is neater and more beautiful, and the coordination of the overall shape will not be affected by the protruding handle. The mist outlet channel and the water inlet are provided on the lower shell, which reflects the integrity of the atomizing device structure.

[0009] In one embodiment, the lower shell assembly is detachably mounted on the base assembly. By detachably mounting the lower shell assembly on the base assembly, the user can conveniently remove the lower shell assembly separately for thorough cleaning, thereby keeping the interior of the atomizing device clean and hygienic, ensuring a good humidification effect, and facilitating inspection and repair of possible faults.

[0010] In one embodiment, the upper cover assembly includes a water tank cover and a mist outlet cover assembly, the water tank cover is arranged on the lower shell assembly and is arranged opposite to the water storage chamber, the water tank cover is provided with the mist outlet hole, and the mist outlet cover assembly is clamped on the water tank cover and is arranged opposite to the mist outlet channel. By arranging the water tank cover on the lower shell assembly and being arranged opposite to the water storage chamber, the water storage chamber is sealed, and the water in the water storage chamber can be effectively protected from external dust, pollutants and insects, and the water quality can be kept clean and hygienic, and the safety and reliability of the atomization device can be improved. At the same time, the water tank cover is provided with a mist outlet hole, which not only seals the water storage chamber but also provides a space for the discharge of the mist. Combined with the mist outlet cover assembly being clamped on the water tank cover, the mist can pass through the mist outlet channel and be released from the mist outlet cover assembly through the mist outlet hole, which reflects the compactness and rationality of the structure of the atomization device.

[0011] In one embodiment, the mist outlet cover assembly includes a mist outlet outer cover and a mist outlet inner cover, the mist outlet outer cover is clamped on the water tank cover, the mist outlet inner cover is arranged inside the mist outlet outer cover and is located at the mist outlet hole, the mist outlet outer cover is provided with a first mist outlet groove, the mist outlet inner cover is provided with a second mist outlet groove, and the first mist outlet groove and the second mist outlet groove are connected to the mist outlet hole. By clamping the mist outlet outer cover on the water tank cover and setting the mist outlet inner cover on the mist outlet outer cover, the mist outlet cover assembly is firmly installed on the water tank cover. The first mist outlet groove is provided on the mist outlet outer cover, and the second mist outlet groove is provided on the mist outlet inner cover, and both the first mist outlet groove and the second mist outlet groove are connected to the mist outlet hole, which increases the space and area for mist outlet, so that the mist can be released into the air more evenly and quickly, avoiding the uneven or excessive concentration of water mist caused by a single outlet, and improving the overall mist outlet efficiency and effect.

[0012] In one of the embodiments, it also includes a valve body assembly and a valve body control assembly, wherein the valve body assembly is arranged on the mist outlet housing and located at the water inlet, the valve body assembly can open or close the water inlet, the valve body control assembly is arranged on the base assembly, the valve body control assembly can be against or separated from the valve body assembly, the water inlet can be opened when the valve body control assembly is against the valve body assembly, and the water inlet can be closed when the valve body control assembly is separated from the valve body assembly. By arranging the valve body assembly on the mist outlet housing and being located at the water inlet, and using the valve body assembly to control the opening and closing of the water inlet, it can be ensured that there is an appropriate amount of water in the atomizing device for atomization, and that too much or too little water affects the humidification effect, thereby achieving precise water volume control. At the same time, ensuring appropriate water inlet control can avoid dry burning and other faults of the atomizing device due to lack of water, which can effectively ensure the normal use of the atomizing device and maintain its normal working state. The up and down swing of the valve body control assembly is used to control the lifting of the valve body assembly, thereby controlling the opening and closing of the water inlet. Since the lifting movement of the valve body assembly is relatively smooth, the stability of the operation of the atomizing device can be guaranteed. At the same time, this method of controlling water entry is simple and easy, and the water level can be controlled without manual intervention, which reduces the user's operating cost and the complexity of using the atomizing device, and improves the user's experience.

[0013] In one embodiment, a water level detector is further included, and the water level detector is arranged on the base assembly and located in the atomization space. By arranging the water level detector on the base assembly and located in the atomization space, the water level in the atomization space can be detected in real time, and timely feedback is given to the atomization device system to ensure that the atomization device always works at a suitable water level when performing atomization work, avoiding dangerous situations such as dry burning due to lack of water, and also preventing overflow due to excessive water.

[0014] In one embodiment, a display assembly is further included, the display assembly is located in the accommodating cavity, the base assembly is provided with a display clamping groove, and the display assembly is arranged on the base assembly and is located in the display clamping groove. By arranging the display assembly in the display clamping groove provided on the base assembly, a stable installation position is provided for the display assembly, ensuring that it will not shift during operation, ensuring that the user can monitor the atomization device through the display assembly and observe its working status in real time, and at the same time, the display assembly is placed in the accommodating cavity to protect it from the invasion of fog, ensuring that it can work normally.

[0015] The second aspect of the present application discloses a control method for an atomizing device, the control method for an atomizing device is used to control the atomizing device mentioned above, and the control method for an atomizing device comprises the following steps:

[0016] S1, start the atomizing component to atomize the liquid in the atomizing chamber, and start the heating component to heat the liquid in the heating chamber;

[0017] S2, start the fan to provide wind force to the atomizing chamber and the heating chamber at the same time, and blow out the water mist in the atomizing chamber and the heating chamber;

[0018] S3, monitor the liquid level in real time through the water level detector, and adjust the power of the atomizing component, the heating component and the fan when the liquid level drops more or less than the pre-examination range within the preset time, and maintain the current power of the atomizing component, the heating component and the fan when the liquid level drops within the pre-examination range within the preset time;

[0019] S4. When the liquid level fed back by the water level detector is lower than the preset value, the atomizing component, the heating component and the fan are stopped and a signal is sent to the outside.

[0020] The present application discloses a control method for an atomizer device, which ensures that the amount of water mist output by the atomizer device is just right by monitoring the internal liquid level of the atomizer device in real time and automatically adjusting the working efficiency of the atomizer component, the heating component and the fan according to the preset humidification range, so as to avoid the occurrence of over-wetting or over-drying. The system can dynamically adjust the power and working time of the atomizer, the heating component and the fan according to actual needs. When the liquid level is within a stable range, the current power is maintained to save energy; when the liquid level changes beyond the preset range, the working efficiency is adjusted to achieve the best humidification effect while minimizing energy consumption. The entire operation process of the atomizer device is highly automated. The liquid level monitoring system monitors the changes in the internal liquid level of the atomizer device in real time through sensors. Without manual intervention by the user, the system automatically adjusts the working state of the device according to the monitored data, thereby improving the convenience of use and the simplicity of operation. When the liquid level fed back by the water level detector is lower than the preset value, the system immediately stops the operation of the atomizer component, the heating component and the fan, and sends an alarm signal to prevent the atomizer device from causing equipment damage or other safety risks due to too low a liquid level. This timely response protects the safety of the equipment and the use environment.

[0021] In one embodiment, the specific steps of step S3 are as follows:

[0022] S31, setting initial parameters, including a preset liquid level drop range, an atomizing component, a heating component and an initial power of a fan, starting a water level detector, and obtaining an initial liquid level;

[0023] S32, obtaining the current liquid level every second pre-trial time, and recording the timestamp and liquid level value;

[0024] S33, calculating the change in the liquid level in each preset time period, the calculation formula is as follows: , where Hinitial is the liquid level at the beginning of the time period, Hcurrent is the liquid level at the end of the time period, and ΔH is the pre-trial time period liquid level difference;

[0025] S34. Set the range of the liquid level drop as [Lmin, Lmax], and compare ΔH with the set range:

[0026] If ΔH < Lmin, it means that the liquid level drops too slowly, and increase the power of the atomization component, heating component and fan;

[0027] If ΔH > Lmax, it means that the liquid level drops too fast, and reduce the power of the atomization component, heating component and fan;

[0028] If Lmin ≤ ΔH ≤ Lmax, keep the current power unchanged;

[0029] S35. Use a machine learning model to predict the optimal power settings of the atomization component, heating component and fan for the next time period based on the current liquid level change and environmental parameters, and set the power of the atomization component, heating component and fan to the predicted values.

[0030] Through the above steps, the atomization device can accurately monitor and control the water level change. By dynamically adjusting the power of the atomization component, heating component and fan, it can ensure a stable humidification effect within the set humidity range. This precise control can prevent the air from being too wet or too dry, improving the indoor comfort and health level. The system intelligently adjusts the working state and power of the device according to the real-time monitored liquid level change. When the liquid level change is small or in a stable state, the system can operate at a low power, effectively saving energy. When the liquid level drops or rises sharply, it automatically adjusts to ensure efficient humidification while reducing energy consumption and improving the energy efficiency ratio of the device. Almost no manual intervention is required during the entire humidification process, and the system can automatically operate according to the preset algorithms and parameters. Regularly obtain and record the liquid level change, the system can calculate the change amount of the liquid level within the set time period, and adjust the power of the atomization component, heating component and fan according to the preset liquid level drop range from Lmin to Lmax. This automated operation greatly simplifies the user's usage process, reduces human errors and operation complexity, and improves the usage convenience and safety. Through the application of the machine learning model, the atomization device system can analyze historical liquid level data and environmental parameters to predict the optimal power settings of the atomization component, heating component and fan for the next time period. This intelligent prediction ability enables the atomization device to more flexibly respond to complex environmental changes, achieving optimized energy utilization and a continuous and stable humidification effect.

[0031] In one embodiment, the steps of increasing the power of the atomization component, heating component and fan or reducing the power of the atomization component, heating component and fan are as follows:

[0032] Calculate the error: , and use a PID controller to calculate the adjustment amount: , where Kp, Ki, and Kd are the proportional, integral, and differential coefficients of the PID controller, respectively. It represents the accumulation of error over time. It represents the rate of change of error with time t;

[0033] Adjust the power of the atomizing component, heating component and fan according to ΔP.

[0034] By calculating the error of liquid level change, the atomizer can accurately evaluate the gap between the current working state and the target. This accurate error calculation is a key step to achieve precise control. The PID controller calculates the adjustment amount ΔP based on the error. It comprehensively considers the three control parts of proportional, integral and differential coefficients, and can dynamically adjust the power of the atomizer component, heating component and fan according to the current error size, change rate and cumulative error. The PID controller can adjust the power of the atomizer component, heating component and fan in real time to respond quickly and accurately to liquid level changes. This real-time adjustment capability helps the atomizer to quickly reach the set humidity target and maintain a stable working state, improving the stability and reliability of the equipment. The PID controller can also effectively suppress over-adjustment and under-adjustment during the adjustment process, so that the atomizer can operate more smoothly and efficiently during the working process. This precise adjustment helps to reduce energy waste and improve energy efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0035] Figure 1 is a three-dimensional diagram of an atomizing device;

[0036] Figure 2 This is an exploded view of the base assembly;

[0037] Figure 3 It is a three-dimensional picture of the atomization shell;

[0038] Figure 4 An exploded view of the atomization device;

[0039] Figure 5 This is an exploded view of the mist outlet shell;

[0040] Figure 6 is a cross-sectional view of the mist outlet housing;

[0041] Figure 7 is a three-dimensional diagram of the mist outlet housing;

[0042] Figure 8 is a three-dimensional diagram of a mist outlet cover assembly;

[0043] Fig. 9 A schematic flow chart of a control method for an atomization device;

[0044] Fig.10The figure is a flow chart of controlling the power of the atomizing component, the heating component and the fan by real-time monitoring of the liquid level through a water level detector.

[0045] The corresponding relationship between the reference numerals and the component names is as follows:

[0046] 1 base assembly, 11 atomizing shell, 12 base, 13 bottom plate, 14 atomizing assembly, 15 heating assembly, 16 fan, 101 atomizing chamber, 102 heating chamber, 103 air outlet, 104 display card slot;

[0047] 2 windshield assembly;

[0048] 3 mist outlet housing, 31 upper cover assembly, 311 water tank cover, 312 mist outlet cover assembly, 3121 mist outlet outer cover, 3122 mist outlet inner cover, 32 lower shell assembly, 321 lower shell, 322 lower pressure pin, 323 lower shell handle, 33 filter cover, 301 water storage chamber, 302 mist outlet channel, 303 mist outlet hole, 304 water inlet, 305 first mist outlet slot, 306 second mist outlet slot;

[0049] 4 valve body assembly;

[0050] 5. Valve body control assembly;

[0051] 6. Water level detector;

[0052] 7 Display assembly. DETAILED DESCRIPTION

[0053] In order to more clearly understand the above-mentioned purpose, features and advantages of the present invention, the present invention is further described in detail below in conjunction with the accompanying drawings and specific embodiments. It should be noted that the embodiments of the present application and the features in the embodiments can be combined with each other without conflict.

[0054] In the following description, many specific details are set forth to facilitate a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the protection scope of the present invention is not limited to the specific embodiments disclosed below.

[0055] The atomizing device and the control method of the atomizing device according to some embodiments of the present invention will be described below with reference to the accompanying drawings. Example 1

[0056] like Figures 1 to 8As shown, the present embodiment discloses an atomizing device, including a base assembly 1, which is provided with an atomizing space and an air passage; a windshield assembly 2, which is movably arranged on the base assembly 1; a mist outlet shell 3, which is detachably arranged on the base assembly 1, and is provided with a pressing pin 322, which is arranged opposite to the windshield assembly 2, and the mist outlet shell 3 has at least a first position and a second position relative to the base assembly 1, and the windshield assembly 2 has at least a third position and a fourth position relative to the base assembly 1; when the mist outlet shell 3 is in the first position, the mist outlet shell 3 is arranged on the base assembly 1, the pressing pin 322 is abutted against the windshield assembly 2, the windshield assembly 2 is in the third position, and the atomizing space is connected with the air passage; when the mist outlet shell 3 is in the second position, the mist outlet shell 3 is separated from the base assembly 1, the pressing pin 322 is separated from the windshield assembly 2, the windshield assembly 2 is in the fourth position, and the windshield assembly 2 separates the atomizing space from the air passage.

[0057] The present application discloses an atomizing device. By providing an atomizing space on the base component 1, a special area is provided for the atomizing of the atomizing device, so that the atomization conversion of water can be performed more efficiently, ensuring that the generated mist is concentrated and of good quality, and helping to maintain relatively stable temperature and humidity conditions, which is conducive to the smooth progress of atomization and reduces the interference of external factors on the atomization effect. By providing an air passage on the base component 1, the air can flow smoothly inside the atomizing device, and the atomized water vapor can be quickly diffused into the surrounding environment, thereby improving the uniformity and efficiency of humidification. The windshield component 2 is arranged on the base component 1 and the pressing pin 322 provided on the mist outlet shell 3 can control the movement of the windshield component 2. When the mist outlet shell 3 is in the first position relative to the base component 1, that is, the mist outlet shell 3 touches the base component 1, the pressing pin 322 is against the windshield component 2 at this time, and the windshield component 2 is pressed down by the pressing pin 322, thereby causing the atomization space to be connected with the wind passage. When the mist outlet shell 3 is in the second position relative to the base component 1, that is, the mist outlet shell 3 is separated from the base component 1, the pressing pin 322 is separated from the windshield component 2 at this time, and the windshield component 2 rises to separate the atomization space from the wind passage, especially during movement, which enhances the safety of the atomization device when in use. At the same time, when the atomization shell 3 is picked up, the atomization space and the wind passage can be separated, which can reduce unnecessary waste of mist, and also help to keep the surrounding environment clean and tidy, achieve a certain energy-saving effect, and enhance the market competitiveness of the atomization device.

[0058] like Figure 2 , Figure 3 and Figure 4As shown, in addition to the features of the above embodiments, the present embodiment further defines: the base assembly 1 includes an atomizing shell 11, a base 12, a bottom plate 13, an atomizing assembly 14, a heating assembly 15 and a fan 16, the base 12 is arranged on the bottom plate 13, the base 12 and the bottom plate 13 are enclosed to form a accommodating cavity, the atomizing shell 11 is arranged on the base 12, the atomizing shell 11 and the base 12 are enclosed to form an atomizing cavity 101 and a heating cavity 102, the windshield assembly 2 moves between the atomizing shell 11 and the base 12, the base 12 is provided with an air outlet 103, the air outlet 103 is communicated with the wind passage, the windshield assembly 2 can open or close the air outlet 103, the atomizing assembly 14 is arranged on the base 12, the heating assembly 15 is arranged on the base 12, the fan 16 is arranged on the base 12, and the atomizing assembly 14, the heating assembly 15 and the fan 16 are all located in the accommodating cavity. By setting the base 12 on the bottom plate 13 and the atomizing shell 11 on the base 12, a stable base assembly 1 is provided for the entire atomizing device, and force support is provided for the atomizing device. The accommodating cavity formed by the base 12 and the bottom plate 13 provides a storage location for other atomizing device components to avoid damage or malfunction caused by the invasion of water vapor. Since the atomizing shell 11 is set on the base 12, the two enclose an atomizing cavity 101 and a heating cavity 102. The atomizing cavity 101 is used to generate water mist to realize the main function of the atomizing device, while the heating cavity 102 realizes the heating function of the mist, and at the same time, it can make the mist diffuse into the air faster and speed up the humidification efficiency. By clamping the windshield assembly 2 between the atomizing shell 11 and the base 12, and the air outlet 103 provided on the base 12 is connected to the wind passage, the user can assemble the mist outlet shell 3 on the base assembly 1, and control the opening and closing of the air outlet 103 by manipulating the lifting and lowering of the windshield assembly 2, thereby achieving the control of the blowing and misting process and realizing precise control of the misting amount. By arranging the atomizing assembly 14, the heating assembly 15 and the fan 16 on the base 12 and in the accommodating cavity, it can be ensured that the three components of the atomizing device will not shift or fall off during operation, ensuring the normal use of the atomizing device, and also ensuring that they operate in a relatively closed and dedicated space, which can concentrate the effects of atomization, heating and blowing, and reduce the interference of external factors on their working state, thereby improving the efficiency of humidification and the user's experience.

[0059] like Figure 4 and Figure 6As shown, in addition to the features of the above embodiments, this embodiment further defines that: the mist outlet housing 3 includes an upper cover assembly 31, a lower housing assembly 32 and a filter cover 33, the lower housing assembly 32 is arranged on the base assembly 1, the upper cover assembly 31 is arranged on the lower housing assembly 32, the lower housing assembly 32 is provided with a water storage chamber 301, the lower housing assembly 32 is provided with a mist outlet channel 302, the mist outlet channel 302 at least partially penetrates the water storage chamber 301, the upper cover assembly 31 is provided with a mist outlet hole 303, the mist outlet hole 303 is connected to the mist outlet channel 302, the lower housing assembly 32 is provided with a water inlet 304, the water inlet 304 is connected to the water storage chamber 301, and the filter cover 33 is arranged on the lower housing assembly 32 and is located at the water inlet 304. By arranging the lower housing assembly 32 on the base assembly 1 and then arranging the upper cover assembly 31 on the lower housing assembly 32, the entire mist outlet housing 3 is firmly mounted on the base assembly 1, ensuring that the atomizing device maintains structural stability during use. The water storage chamber 301 is formed by enclosing the upper cover assembly 31 and the lower shell assembly 32. The user can directly open the upper cover assembly 31 to add water to the atomizing device. The structure is simple and clear, which is convenient for the user to operate the atomizing device. At the same time, the lower shell assembly 32 is also provided with a mist outlet channel 302, which further simplifies the structure of the entire atomizing device, separates the mist outlet position from the water storage chamber 301, so that it can be smoothly discharged from the mist outlet hole 303 provided in the upper cover assembly 31, ensuring the efficiency of the mist outlet and the humidification effect. A water inlet 304 is provided in the lower shell assembly 32 and the water inlet 304 is connected to the water storage chamber 301. Since the filter cover 33 is provided in the water inlet 304, it can intercept larger particulate impurities that may exist in the water, prevent them from entering the base assembly 2 and damaging the internal components, and at the same time help reduce pollutants entering the water tank, keep the water in the water tank relatively clean to a certain extent, ensure the cleanliness of the mist, and enhance the user's experience.

[0060] like Figure 2 , Figure 5 and Figure 7As shown, in addition to the features of the above embodiments, the present embodiment further defines: the lower shell assembly 32 includes a lower shell 321, a lower pressure pin 322 and a lower shell handle 323, the lower pressure pin 322 is arranged on the lower shell 321, the lower pressure pin 322 can be separated from or offset from the wind shield assembly 2, the lower shell handle 323 is arranged on the inner side of the lower shell 321, the lower shell 321 is provided with a mist outlet channel 302, and the lower shell 321 is provided with a water inlet 304. By setting the lower pressure pin 322 at the bottom of the lower shell 321 and setting the lower shell handle 323 on the inner side of the lower shell 321, the user can conveniently pick up or put down the lower shell 321 by using the lower shell handle 323, and the air outlet 103 can be closed or opened by the lower pressure pin 322 while picking up or putting down the lower shell 321. The structure is compact and simple, which is convenient for the user to control and operate the lower shell assembly 32. At the same time, the lower shell handle 323 is set on the inner side of the lower shell 321. When viewed from the outside of the atomizing device, the overall appearance of the device is neater and more beautiful, and the coordination of the overall shape will not be affected by the protruding handle. The mist outlet channel 302 and the water inlet 304 are provided on the lower shell 321, which reflects the integrity of the atomizing device structure.

[0061] like Figure 4 As shown, in addition to the features of the above embodiment, this embodiment further defines that: the lower shell component 32 can be detachably mounted on the base component 1. By detachably mounting the lower shell component 32 on the base component 1, it is convenient for the user to separately disassemble the lower shell component 32 for thorough cleaning, thereby keeping the interior of the atomizing device clean and hygienic, ensuring a good humidification effect, and also facilitating inspection and repair of possible faults.

[0062] like Figure 4 , Figure 5 and Figure 6 As shown, in addition to the features of the above embodiments, this embodiment further defines: the upper cover assembly 31 includes a water tank cover 311 and a mist outlet cover assembly 312, the water tank cover 311 is arranged on the lower shell assembly 32 and is arranged opposite to the water storage chamber 301, the water tank cover 311 is provided with a mist outlet hole 303, and the mist outlet cover assembly 312 is clamped on the water tank cover 311 and is arranged opposite to the mist outlet channel 302. By setting the water tank cover 311 on the lower shell assembly 32 and opposite to the water storage chamber 301, the water storage chamber 301 is sealed, and the water in the water storage chamber 301 can be effectively protected from external dust, pollutants and insects and ants, so as to keep the water quality clean and hygienic, and improve the safety and reliability of the atomizer. At the same time, the water tank cover 311 is provided with a mist outlet hole 303, which not only seals the water storage chamber 301 but also provides a space for the discharge of mist. Combined with the mist outlet cover assembly 312 being clamped on the water tank cover 311, the mist can pass through the mist outlet channel 302 and be released from the mist outlet cover assembly 312 through the mist outlet hole 303, which reflects the compactness and rationality of the structure of the atomizer.

[0063] like Figure 2 , Figure 5 and Figure 8 As shown, in addition to the features of the above embodiments, this embodiment further defines that: the mist outlet cover assembly 312 includes a mist outlet outer cover 3121 and a mist outlet inner cover 3122, the mist outlet outer cover 3121 is clamped on the water tank cover 311, the mist outlet inner cover 3122 is arranged in the mist outlet outer cover 3121 and is located at the mist outlet hole 103, the mist outlet outer cover 3121 is provided with a first mist outlet groove 305, the mist outlet inner cover 3122 is provided with a second mist outlet groove 306, and the first mist outlet groove 305 and the second mist outlet groove 306 are connected to the mist outlet hole 303. By clamping the mist outlet outer cover 3121 on the water tank cover 311 and setting the mist outlet inner cover 3122 on the mist outlet outer cover 3121, the mist outlet cover assembly 312 is firmly installed on the water tank cover 311. A first mist outlet groove 305 is arranged on the mist outlet outer cover 3121, and a second mist outlet groove 306 is arranged on the mist outlet inner cover 3122, and both the first mist outlet groove 305 and the second mist outlet groove 306 are connected to the mist outlet hole 303, thereby increasing the space and area for mist outlet, so that the mist can be released into the air more evenly and quickly, avoiding the uneven or excessive concentration of water mist due to a single outlet, and improving the overall mist outlet efficiency and effect.

[0064] like Figure 1 , Figure 4 and Figure 7 As shown, in addition to the features of the above-mentioned embodiment, the present embodiment is further defined as follows: it also includes a valve body assembly 4 and a valve body control assembly 5, the valve body assembly 4 is arranged on the mist outlet housing 3 and is located at the water inlet 304, the valve body assembly 4 can open or close the water inlet 304, the valve body control assembly 5 is arranged on the base assembly 1, the valve body control assembly 5 can be against or separated from the valve body assembly 4, the valve body control assembly 5 can open the water inlet 304 when it is against the valve body assembly 4, and the valve body control assembly 5 can close the water inlet 304 when it is separated from the valve body assembly 4. By arranging the valve body assembly 4 on the mist outlet housing 3 and being located at the water inlet 304, and using the valve body assembly 4 to control the opening and closing of the water inlet 304, it can be ensured that there is an appropriate amount of water in the atomizing device for atomization, and it is avoided that too much or too little water affects the humidification effect, thereby realizing accurate water volume control. At the same time, ensuring appropriate water inlet control can avoid dry burning and other faults of the atomizing device due to lack of water, which can effectively ensure the normal use of the atomizing device and maintain its normal working state. The up and down swing of the valve body control component 5 is used to control the lifting of the valve body component 4, thereby controlling the opening and closing of the water inlet 304. Since the lifting movement of the valve body component is relatively stable, the stability of the operation of the atomizing device can be guaranteed. At the same time, this method of controlling water entry is simple and easy, and the water level can be controlled without manual intervention, which reduces the user's operating cost and the complexity of using the atomizing device, and improves the user's experience.

[0065] like Figure 4As shown, in addition to the features of the above-mentioned embodiment, this embodiment is further defined as follows: it also includes a water level detector 6, which is arranged on the base assembly 1 and located in the atomization space. By arranging the water level detector 6 on the base assembly 1 and located in the atomization space, the water level of the atomization space can be detected in real time, and timely feedback is given to the atomization device system to ensure that the atomization device always works at a suitable water level when performing atomization work, avoiding dangerous situations such as dry burning due to lack of water, and also preventing overflow due to excessive water.

[0066] like Figure 2 and Figure 4 As shown, in addition to the features of the above-mentioned embodiment, this embodiment is further defined as follows: it also includes a display assembly 7, the display assembly 7 is located in the accommodating cavity, the base assembly 1 is provided with a display clamping groove 104, and the display assembly 7 is arranged on the base assembly 1 and is located in the display clamping groove 104. By arranging the display assembly 7 in the display clamping groove 104 provided on the base assembly 1, a stable installation position is provided for the display assembly 7, ensuring that it will not shift during operation, ensuring that the user can monitor the atomization device through the display assembly 7 and observe its working status in real time, and at the same time, the display assembly 7 is placed in the accommodating cavity to protect it from the invasion of fog and ensure that it can work normally. Example 2

[0067] like Figures 9 and 10 As shown, this embodiment discloses a control method of an atomizing device, and the control method of the atomizing device is used to control the above-mentioned atomizing device. The control method of the atomizing device includes the following steps:

[0068] S1, start the atomizing assembly 14 to atomize the liquid in the atomizing chamber 101, and start the heating assembly 15 to heat the liquid in the heating chamber 102;

[0069] S2, start the fan 16 to provide wind force to the atomizing chamber 101 and the heating chamber 102 at the same time, so as to blow out the water mist in the atomizing chamber 101 and the heating chamber 102;

[0070] S3, monitor the liquid level in real time through the water level detector 6, and adjust the power of the atomizing assembly 14, the heating assembly 15 and the fan 16 when the liquid level drops more or less than the pre-examination range within the preset time, and maintain the current power of the atomizing assembly 14, the heating assembly 15 and the fan 16 when the liquid level drops within the pre-examination range within the preset time;

[0071] S4. When the liquid level fed back by the water level detector 6 is lower than a preset value, the atomizing component 14, the heating component 15 and the fan 16 are stopped and a signal is sent to the outside.

[0072] The present application discloses a control method for an atomization device. By monitoring the liquid level inside the atomization device in real time and automatically adjusting the working efficiency of the atomization component 14, the heating component 15, and the fan 16 according to a preset humidification range, it ensures that the amount of water mist output by the atomization device is just right, avoiding the occurrence of over-wetting or over-drying. The system can dynamically adjust the power and working duration of atomization, heating, and the fan according to actual needs. When the liquid level is within the stable range, the current power is maintained to save energy; when the change in the liquid level exceeds the preset range, the working efficiency is adjusted to achieve the best humidification effect while minimizing energy consumption. The entire operation process of the atomization device realizes a high degree of automation. The liquid level monitoring system monitors the change in the liquid level inside the atomization device in real time through a sensor. Without manual intervention by the user, the system automatically adjusts the working state of the device according to the monitored data, improving the convenience of use and the simplicity of operation. When the liquid level feedback by the water level detector 6 is lower than the preset value, the system immediately stops the operation of the atomization component 14, the heating component 15, and the fan 16 and issues an alarm signal to prevent equipment damage or other safety risks caused by too low a liquid level in the atomization device. This timely response protects the safety of the device and the use environment. Embodiment 3

[0073] As Fig.10 shown, this embodiment discloses a control method for an atomization device. The specific steps of step S3 are as follows:

[0074] S31. Set initial parameters, including the preset liquid level drop range, the initial power of the atomization component 14, the heating component 15, and the fan 16, start the water level detector 6, and obtain the initial liquid level;

[0075] S32. Obtain the current liquid level every second pre-trial time, and record the time stamp and the liquid level value;

[0076] S33. Calculate the change in the liquid level for each preset time period. The calculation formula is as follows: , where Hinitial is the liquid level at the start of the time period, Hcurrent is the liquid level at the end of the time period, and ΔH is the liquid level difference during the pre-trial time period;

[0077] S34. Set the liquid level drop range as [Lmin, Lmax], and compare ΔH with the set range:

[0078] If ΔH < Lmin, it means that the liquid level drops too slowly, and increase the power of the atomization component 14, the heating component 15, and the fan 16;

[0079] If ΔH > Lmax, it means that the liquid level drops too fast, and reduce the power of the atomization component 14, the heating component 15, and the fan 16;

[0080] If Lmin ≤ ΔH ≤ Lmax, maintain the current power unchanged;

[0081] S35. Use a machine learning model to predict the optimal power settings of the atomizing component 14, the heating component 15 and the fan 16 for the next time period according to the current liquid level changes and environmental parameters, and set the power of the atomizing component 14, the heating component 15 and the fan 16 to the predicted values.

[0082] Through the above steps, the atomizing device can accurately monitor and control the water level change, and dynamically adjust the power of the atomizing component 14, the heating component 15 and the fan 16 to ensure a stable humidification effect within the set humidity range. This precise control can prevent the air from being too wet or too dry, and improve the indoor comfort and health level. The system intelligently adjusts the working state and power of the equipment according to the real-time monitored liquid level changes. When the liquid level changes slightly or is in a stable state, the system can maintain low-power operation and effectively save energy. When the liquid level drops or rises sharply, it automatically adjusts to ensure efficient humidification while reducing energy consumption and improving the energy efficiency ratio of the equipment. The entire humidification process requires almost no human intervention, and the system can run automatically according to the preset algorithms and parameters. The liquid level changes are regularly obtained and recorded, and the system can calculate the change in the liquid level within a set time period, and adjust the power of the atomizing component 14, the heating component 15 and the fan 16 according to the preset liquid level drop range Lmin to Lmax. This automated operation greatly simplifies the user's use process, reduces human errors and operational complexity, and improves ease of use and safety. Through the application of machine learning models, the atomizer system can analyze historical liquid level data and environmental parameters to predict the optimal power settings of the atomizer component 14, the heating component 15 and the fan 16 in the next time period. This intelligent prediction capability enables the atomizer to respond to complex environmental changes more flexibly, achieve optimized energy utilization and continuous and stable humidification effects. Example 4

[0083] like Fig.10 As shown, this embodiment discloses a control method for an atomizing device, and the steps of increasing the power of the atomizing component 14, the heating component 15 and the fan 16 or reducing the power of the atomizing component 14, the heating component 15 and the fan 16 are as follows:

[0084] Calculation error: , use the PID controller to calculate the adjustment amount: , where Kp, Ki, and Kd are the proportional, integral, and differential coefficients of the PID controller, respectively. It represents the accumulation of error over time. It represents the rate of change of error with time t;

[0085] The power of the atomizing assembly 14 , the heating assembly 15 and the fan 16 is adjusted according to ΔP.

[0086] By calculating the error of the liquid level change, the atomizer can accurately evaluate the gap between the current working state and the target. This accurate error calculation is a key step to achieve precise control. The PID controller calculates the adjustment amount ΔP based on the error. It comprehensively considers the three control parts of proportional, integral and differential coefficients, and can dynamically adjust the power of the atomizer component 14, the heating component 15 and the fan 16 according to the current error size, change rate and cumulative error. The PID controller can adjust the power of the atomizer component 14, the heating component 15 and the fan 16 in real time to respond quickly and accurately to the liquid level change. This real-time adjustment capability helps the atomizer to quickly reach the set humidity target and maintain a stable working state, thereby improving the stability and reliability of the equipment. The PID controller can also effectively suppress over-adjustment and under-adjustment during the adjustment process, so that the atomizer can operate more smoothly and efficiently during the working process. This precise adjustment helps to reduce energy waste and improve energy efficiency.

[0087] The technical features of the above-described embodiments may be arbitrarily combined. To make the description concise, not all possible combinations of the technical features in the above-described embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0088] The above-mentioned embodiments only express several implementation methods of the present invention, and the descriptions thereof are relatively specific and detailed, but they cannot be understood as limiting the scope of the invention patent. It should be pointed out that, for ordinary technicians in this field, several variations and improvements can be made without departing from the concept of the present invention, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the patent of the present invention shall be subject to the attached claims.

Claims

1. An atomizing device, characterized in that: The atomizing device comprises: A base assembly (1), wherein the base assembly (1) is provided with an atomization space and an air passage; A windshield component (2), the windshield component (2) being movably arranged on the base component (1); A mist outlet housing (3), the mist outlet housing (3) being detachably arranged on the base assembly (1), the mist outlet housing (3) being provided with a pressing pin (322), the pressing pin (322) being arranged opposite to the wind shield assembly (2), the mist outlet housing (3) having at least a first position and a second position relative to the base assembly (1), and the wind shield assembly (2) having at least a third position and a fourth position relative to the base assembly (1); When the mist outlet housing (3) is located at the first position, the mist outlet housing (3) is arranged on the base assembly (1), the pressing pin (322) abuts against the wind shield assembly (2), the wind shield assembly (2) is located at the third position, and the atomization space is connected to the wind passage; When the mist outlet housing (3) is located at the second position, the mist outlet housing (3) is separated from the base assembly (1), the pressing pin (322) is separated from the wind shield assembly (2), the wind shield assembly (2) is located at the fourth position, and the wind shield assembly (2) separates the atomization space from the wind passage; The base assembly (1) comprises an atomizing shell (11), a base (12), a bottom plate (13), an atomizing assembly (14), a heating assembly (15) and a fan (16); the base (12) is arranged on the bottom plate (13); the base (12) and the bottom plate (13) are combined to form a receiving cavity; the atomizing shell (11) is arranged on the base (12); the atomizing shell (11) and the base (12) are combined to form an atomizing cavity (101) and a heating cavity (102); the wind shield assembly (2) is movable on the atomizing shell (11) ) and the base (12), the base (12) being provided with an air outlet (103), the air outlet (103) being in communication with the wind passage, the wind shielding component (2) being capable of opening or closing the air outlet (103), the atomizing component (14) being arranged on the base (12), the heating component (15) being arranged on the base (12), the fan (16) being arranged on the base (12), the atomizing component (14), the heating component (15) and the fan (16) being all located in the accommodating cavity; The mist outlet housing (3) comprises an upper cover component (31), a lower shell component (32) and a filter cover (33); the lower shell component (32) is arranged on the base component (1); the upper cover component (31) is arranged on the lower shell component (32); the lower shell component (32) is provided with a water storage chamber (301); the lower shell component (32) is provided with a mist outlet channel (302); the mist outlet channel (302) at least partially penetrates the water storage chamber (301); the upper cover component (31) is provided with a mist outlet hole (303); the mist outlet hole (303) is communicated with the mist outlet channel (302); the lower shell component (32) is provided with a water inlet (304); the water inlet (304) is communicated with the water storage chamber (301); the filter cover (33) is arranged on the lower shell component (32) and is located at the water inlet (304); The lower shell assembly (32) comprises a lower shell (321), a lower pressing pin (322) and a lower shell handle (323); the lower pressing pin (322) is arranged on the lower shell (321); the lower pressing pin (322) can be separated from or abutted against the wind shield assembly (2); the lower shell handle (323) is arranged on the inner side of the lower shell (321); the lower shell (321) is provided with the mist outlet channel (302); and the lower shell (321) is provided with the water inlet (304); The lower shell component (32) can be detachably mounted on the base component (1).

2. The atomizing device according to claim 1, characterized in that: The upper cover assembly (31) comprises a water tank cover (311) and a mist outlet cover assembly (312); the water tank cover (311) is arranged on the lower shell assembly (32) and is arranged opposite to the water storage chamber (301); the water tank cover (311) is provided with the mist outlet hole (303); and the mist outlet cover assembly (312) is clamped on the water tank cover (311) and is arranged opposite to the mist outlet channel (302).

3. The atomizing device according to claim 1, characterized in that: The invention also comprises a valve body component (4) and a valve body control component (5); the valve body component (4) is arranged on the mist outlet housing (3) and located at the water inlet (304); the valve body component (4) can open or close the water inlet (304); the valve body control component (5) is arranged on the base component (1); the valve body control component (5) can abut against or separate from the valve body component (4); when the valve body control component (5) abuts against the valve body component (4), the water inlet (304) can be opened; when the valve body control component (5) separates from the valve body component (4), the water inlet (304) can be closed.

4. The atomizing device according to claim 1, characterized in that: It also includes a water level detector (6), which is arranged on the base assembly (1) and located in the atomization space; And / or further comprising a display assembly (7), the display assembly (7) being located in the accommodating cavity, the base assembly (1) being provided with a display clamping groove (104), the display assembly (7) being arranged on the base assembly (1) and being located in the display clamping groove (104).

5. A method for controlling an atomizing device, characterized in that: The control method of the atomization device is used to control the atomization device described in claim 1, characterized in that the control method of the atomization device includes the following steps: S1. Start the atomization component (14) to atomize the liquid in the atomization chamber (101), and at the same time start the heating component (15) to heat the liquid in the heating chamber (102); S2. Start the fan (16) to provide wind power to the atomization chamber (101) and the heating chamber (102) at the same time, and blow out the water mist in the atomization chamber (101) and the heating chamber (102); S3. Monitor the liquid level in real time through the water level detector (6). When the liquid level drop value within the preset time period is greater than or less than the pre-reviewed range, adjust the power of the atomization component (14), the heating component (15) and the fan (16). When the liquid level drop value within the preset time is within the pre-reviewed range, maintain the current power of the atomization component (14), the heating component (15) and the fan (16); S4. When the liquid level feedback by the water level detector (6) is lower than the preset value, stop the atomization component (14), the heating component (15) and the fan (16) and send a signal externally.

6. The control method of the atomization device according to claim 5, characterized in that: The specific steps of step S3 are as follows: S31. Set initial parameters, including the preset liquid level drop range, the initial power of the atomization component (14), the heating component (15) and the fan (16). Start the water level detector (6) to obtain the initial liquid level; S32. Obtain the current liquid level every second pre-reviewed time, and record the time stamp and the liquid level value; S33, calculating the change in the liquid level in each preset time period, the calculation formula is as follows: , where Hinitial is the liquid level at the beginning of the time period, Hcurrent is the liquid level at the end of the time period, and ΔH is the pre-trial time period liquid level difference; S34. Set the liquid level drop range as [Lmin, Lmax], and compare ΔH with the set range: If ΔH < Lmin, it means that the liquid level drops too slowly, and increase the power of the atomization component (14), the heating component (15) and the fan (16); If ΔH > Lmax, it means that the liquid level drops too fast, and reduce the power of the atomization component (14), the heating component (15) and the fan (16); If Lmin ≤ ΔH ≤ Lmax, maintain the current power unchanged; S35. Use a machine learning model to predict the optimal power settings of the atomization component (14), the heating component (15) and the fan (16) in the next time period according to the current liquid level change and environmental parameters, and set the power of the atomization component (14), the heating component (15) and the fan (16) as the predicted value.

7. The control method of the atomization device according to claim 6, characterized in that: The steps of increasing or decreasing the power of the atomization component (14), the heating component (15) and the fan (16) are as follows: Calculation error: , use the PID controller to calculate the adjustment amount: , where Kp, Ki, and Kd are the proportional, integral, and differential coefficients of the PID controller, respectively. It represents the accumulation of error over time. It represents the rate of change of error with time t; Adjust the power of the atomization component (14), the heating component (15) and the fan (16) according to ΔP.

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