An intelligent atomizer and an intelligent atomization control method

Abstract

The present invention provides an intelligent atomizer and an intelligent atomization control method. The atomizer is provided with a first body of a power supply component and a second body provided with an oil storage chamber and an atomization chamber. The second body includes a heating element disposed in the atomization chamber, an oil guiding component connecting the heating element and the oil storage chamber, a flow sensor for monitoring the fog flow rate, a temperature sensor for monitoring the surface temperature of the heating element, and a pressure regulating component for regulating the pressure in the oil storage chamber. The intelligent atomizer further includes a controller, which is configured to adjust the heating power of the heating element according to the fog flow rate at the air outlet of the intelligent atomizer, and control the pressure regulating component to regulate the pressure in the oil storage chamber according to the heating power of the heating element and the real-time temperature of the heating element, so that the oil supply speed of the oil storage chamber to the oil guiding component matches the heating power, effectively avoiding the situations of dry burning and liquid leakage.

Description

Technical Field

[0001] The present invention relates to the technical field of atomizers, and particularly to an intelligent atomizer and an intelligent atomization control method. Background Art

[0002] An electronic cigarette is an electronic atomizer that uses e-liquid as the atomization liquid. It usually consists of a cigarette rod (battery), an atomizer, a cartridge (e-liquid), etc. The heating components such as the heating wire in the atomizer are used to heat and atomize the e-liquid provided by the cartridge to form smoke. The cartridge generally supplies oil to the atomizer through an oil guiding component such as cotton wick or microporous ceramics. Whether it is a cotton wick or microporous ceramics, the oil supply speed is related to the structural characteristics, material characteristics of the oil guiding component itself and the material characteristics of the e-liquid. Therefore, the oil supply speed is relatively fixed after the product leaves the factory. In order to provide a better user experience, the heating power of most electronic atomizers is adjustable. For example, users who like a large amount of fog and thick smoke can adjust to a high power gear to increase the heating temperature, while users who like a small amount of fog and less mist can adjust to a low power gear to reduce the heating temperature. When using the high power gear for a long time, it is easier to occur that the oil supply speed cannot keep up with the atomization speed, resulting in dry burning. When using the low power gear for a long time, leakage is likely to occur after the oil guiding component is saturated with accumulated liquid. Summary of the Invention

[0003] Based on the above problems, the present invention proposes an intelligent atomizer and an intelligent atomization control method, which can effectively avoid dry burning and leakage.

[0004] In view of this, the first aspect of the present invention proposes an intelligent atomizer, which includes a first body provided with a power supply component and a second body provided with an oil storage chamber and an atomization chamber. The second body includes a heating element arranged in the atomization chamber, an oil guiding component connecting the heating element and the oil storage chamber for supplying the oil liquid in the oil storage chamber to the heating element for atomization, a flow sensor arranged at the air outlet of the second body for monitoring the fog flow rate, a temperature sensor arranged on one side of the heating element for monitoring the surface temperature of the heating element, and a pressure regulating component for regulating the pressure in the oil storage chamber. The intelligent atomizer further includes a controller connected to the flow sensor, the temperature sensor, and the pressure regulating component. The controller is used to adjust the heating power of the heating element according to the fog flow rate at the air outlet of the intelligent atomizer, and control the pressure regulating component to adjust the pressure in the oil storage chamber according to the heating power of the heating element and the real-time temperature of the heating element, so that the oil supply speed from the oil storage chamber to the oil guiding component matches the heating power.

[0005] The second aspect of the present invention proposes an intelligent atomization control method applied to the intelligent atomizer described in the first aspect of the present invention, including:

[0006] Monitor the fog flow rate Q at the air outlet of the intelligent atomizer in real time t to obtain the real-time fog flow velocity v at the air outlet of the intelligent atomizer when the user uses the intelligent atomizer t ;

[0007] According to the real-time fog flow velocity v t Adjust the heating power P of the heating element of the intelligent atomizer t ;

[0008] Monitor the temperature T of the heating element in real time t ;

[0009] According to the heating power P of the heating element t and the real-time temperature T of the heating element t Determine the oil content S of the oil guiding component of the intelligent atomizer t ;

[0010] Obtain the target pressure value F in the oil storage tank of the intelligent atomizer corresponding to the oil content S of the oil guiding component t ; t ;

[0011] Adjust the pressure in the oil storage tank to reach the target pressure value F through the pressure regulating component of the intelligent atomizer t so that the oil supply speed from the oil storage tank to the oil guiding component matches the heating power P t .

[0012] Furthermore, in the above intelligent atomization control method, before the step of adjusting the heating power P of the heating element of the intelligent atomizer according to the real-time fog flow velocity v t it further includes: t Configure and store the personalized concentration parameter p of the user through a computer device or a mobile communication device connected to the intelligent atomizer

[0013] ; co ;

[0014] Furthermore, in the above intelligent atomization control method, before the step of adjusting the heating power P of the heating element of the intelligent atomizer according to the real-time fog flow velocity v t it further includes: t Configure and store the personalized concentration parameter p of the user through a computer device or a mobile communication device connected to the intelligent atomizer

[0015] The mist flow rate at the air outlet of the smart atomizer when the user uses the smart atomizer is analyzed to obtain a first mist flow rate upper limit v1 in the gentle mode and a second mist flow rate upper limit v2 in the fast mode when the user uses the smart atomizer, wherein the first mist flow rate upper limit v1 is the maximum flow rate of a single puff in the gentle mode, and the second mist flow rate upper limit v2 is the maximum flow rate of a single puff in the fast mode.

[0016] Furthermore, in the above-mentioned intelligent atomization control method, according to the real-time atomization flow rate v t Adjust the heating power P of the heating element of the intelligent atomizer t Before the steps, also include:

[0017] Obtaining the maximum heating power of the intelligent atomizer;

[0018] According to the maximum heating power P of the intelligent atomizer max , the personalized concentration parameter p co And the first mist flow rate upper bound v1 is used to calculate the adaptive power parameter of the intelligent atomizer:

[0019]

[0020] Further, in the above-mentioned intelligent atomization control method, the step of analyzing the mist flow rate at the air outlet of the intelligent atomizer when the user uses the intelligent atomizer to obtain the first mist flow rate upper limit v1 in the smooth mode and the second mist flow rate upper limit v2 in the fast mode when the user uses the intelligent atomizer specifically includes:

[0021] Acquire the mist flow rate data when the user uses the intelligent atomizer over a period of time;

[0022] Calculating the mist flow rate change rate and the average mist flow rate change rate during each inhalation process of the user;

[0023] Eliminating abnormal suction data from the mist flow rate data according to the mist flow rate change rate;

[0024] The mist flow rate data are divided into mist flow rate data of a gentle mode inhalation process and mist flow rate data of a rapid mode inhalation process according to the average mist flow rate change rate, and the first mist flow rate upper limit v1 in the gentle mode and the second mist flow rate upper limit v2 in the rapid mode are calculated respectively.

[0025] Furthermore, in the above-mentioned intelligent atomization control method, the step of calculating the mist flow rate change rate and the average mist flow rate change rate during each inhalation process of the user specifically includes:

[0026] Obtain the monitoring data sampling period Δt for real-time monitoring of the mist flow rate at the air outlet of the intelligent atomizer;

[0027] Divide each suction process of the user into several sampling points at intervals of the monitoring data sampling period Δt;

[0028] Obtain the mist flow rate Q monitored at each sampling point of each suction process i , where i = (1, 2, …, n), and n is the number of sampling points in the current suction process;

[0029] Calculate the mist flow velocity corresponding to each sampling point in the current suction process and the change rate of the mist flow velocity where when i = 1, v i = 0, and when i = 1 and i = 2, v i ′ = 0;

[0030] Calculate the average change rate of the mist flow velocity in the current suction process

[0031] Further, in the above intelligent atomization control method, the step of removing abnormal suction data from the mist flow velocity data according to the change rate of the mist flow velocity specifically includes:

[0032] Remove the mist flow velocity data with the duration of a single suction process shorter than the preset time threshold;

[0033] Obtain the number n1 of the first sampling points with the change rate v of the mist flow velocity less than the preset change rate threshold and the number n2 of the second sampling points greater than or equal to the change rate threshold in each suction process; i ′ When n2 > 0 and

[0034] , determine the mist flow velocity data of the current suction process as abnormal suction data, where 0 < 0 ≤ 0.5;

[0035] Remove the abnormal suction data from the mist flow velocity data.

[0036] Further, in the above intelligent atomization control method, the step of dividing the mist flow velocity data into the mist flow velocity data of the gentle mode suction process and the mist flow velocity data of the fast mode suction process according to the average change rate of the mist flow velocity and respectively calculating the first upper bound v1 of the mist flow velocity in the gentle mode and the second upper bound v2 of the mist flow velocity in the fast mode specifically includes:

[0037] Determine the single suction process with the average change rate of the mist flow velocity less than the change rate threshold as the suction process in the gentle mode;​

[0038] Determine the single suction process with the average fog gas flow rate change rate greater than or equal to the change rate threshold as the suction process in the fast mode;

[0039] Determine the maximum fog gas flow rate in all the suction processes in the gentle mode within the period of time as the upper bound v1 of the first fog gas flow rate;

[0040] Determine the maximum fog gas flow rate in all the suction processes in the fast mode within the period of time as the upper bound v2 of the second fog gas flow rate.

[0041] Further, in the above intelligent atomization control method, according to the real-time fog gas flow rate v t Adjust the heating power P of the heating element of the intelligent atomizer t The steps specifically include:

[0042] Obtain the personalized concentration parameter p co And the adaptive power parameter p a ;

[0043] According to the concentration parameter p co 、the adaptive power parameter p a 、the upper bound v1 of the first fog gas flow rate, the upper bound v2 of the second fog gas flow rate and the real-time fog gas flow rate v t Calculate the heating power of the heating element:

[0044]

[0045] The present invention provides an intelligent atomizer and an intelligent atomization control method. The atomizer is provided with a first body of a power supply component and a second body provided with an oil storage chamber and an atomization chamber. The second body includes a heating element arranged in the atomization chamber, an oil guiding component connecting the heating element and the oil storage chamber, a flow sensor for monitoring the fog gas flow, a temperature sensor for monitoring the surface temperature of the heating element, and a pressure regulating component for regulating the pressure in the oil storage chamber. The intelligent atomizer further includes a controller. The controller is used to adjust the heating power of the heating element according to the fog gas flow at the air outlet of the intelligent atomizer, and control the pressure regulating component to regulate the pressure in the oil storage chamber according to the heating power of the heating element and the real-time temperature of the heating element so that the oil supply speed of the oil storage chamber to the oil guiding component matches the heating power, which can effectively avoid the situation of dry burning and liquid leakage. Description of the Drawings

[0046] Figure 1 It is a schematic block diagram of an intelligent atomizer provided by an embodiment of the present invention;

[0047] Figure 2 This is a flowchart of an intelligent atomization control method provided by an embodiment of the present invention. Detailed implementation manners

[0048] In order to more clearly understand the above objects, features, and advantages of the present invention, the present invention will be further described in detail below in conjunction with the accompanying drawings and specific implementation manners. It should be noted that, without conflict, the embodiments of the present application and the features in the embodiments can be combined with each other.

[0049] In the following description, many specific details are set forth to facilitate a thorough understanding of the present invention. However, the present invention can also be implemented in other ways different from those described herein. Therefore, the protection scope of the present invention is not limited by the specific embodiments disclosed below.

[0050] In the description of the present invention, the term "a plurality" refers to two or more, unless otherwise clearly defined. The orientation or positional relationship indicated by terms such as "upper", "lower", etc. is based on the orientation or positional relationship shown in the accompanying drawings, and is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and thus cannot be understood as a limitation of the present invention. Terms such as "connection", "installation", "fixation", etc. should all be understood in a broad sense. For example, "connection" can be a fixed connection, a detachable connection, or an integral connection; it can be directly connected, or indirectly connected through an intermediate medium. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific circumstances. In addition, terms such as "first", "second", etc. are only used for descriptive purposes, and cannot be understood as indicating or implying relative importance or implicitly indicating the quantity of the indicated technical features. Thus, features defined with "first", "second", etc. can explicitly or implicitly include one or more of such features. In the description of the present invention, unless otherwise stated, the meaning of "a plurality" is two or more.

[0051] In the description of this specification, the description of terms such as "an embodiment", "some implementation manners", "specific embodiments", etc. means that the specific features, structures, materials, or characteristics described in connection with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic descriptions of the above terms do not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials, or characteristics described can be combined in a suitable manner in any one or more embodiments or examples.

[0052] Next, an intelligent atomizer and an intelligent atomization control method provided according to some implementation manners of the present invention will be described with reference to the accompanying drawings.

[0053] As Figure 1As shown in the figure, a first aspect of the present invention provides an intelligent atomizer, which includes a first body provided with a power supply component and a second body provided with an oil storage chamber and an atomization chamber. The second body includes a heating element arranged in the atomization chamber, an oil guiding component connecting the heating element and the oil storage chamber for supplying the oil liquid in the oil storage chamber to the heating element for atomization, a flow sensor arranged at the air outlet of the second body for monitoring the fog flow rate, a temperature sensor arranged on one side of the heating element for monitoring the surface temperature of the heating element, and a pressure regulating component for regulating the pressure in the oil storage chamber. The intelligent atomizer further includes a controller connected to the flow sensor, the temperature sensor, and the pressure regulating component. The controller is used to adjust the heating power of the heating element according to the fog flow rate at the air outlet of the intelligent atomizer, and control the pressure regulating component to adjust the pressure in the oil storage chamber according to the heating power of the heating element and the real-time temperature of the heating element so that the oil supply speed from the oil storage chamber to the oil guiding component matches the heating power.

[0054] As Figure 2 shown, a second aspect of the present invention provides an intelligent atomization control method applied to the intelligent atomizer described in the first aspect of the present invention, including:

[0055] Real-time monitoring of the fog flow rate Q at the air outlet of the intelligent atomizer t to obtain the real-time fog flow velocity v at the air outlet of the intelligent atomizer when the user uses the intelligent atomizer t ;

[0056] According to the real-time fog flow velocity v t Adjust the heating power P of the heating element of the intelligent atomizer t ;

[0057] Real-time monitoring of the temperature T of the heating element t ;

[0058] According to the heating power P of the heating element t and the real-time temperature T of the heating element t Determine the oil content S of the oil guiding component of the intelligent atomizer t ;

[0059] Obtain the target pressure value F in the oil storage chamber of the intelligent atomizer corresponding to the oil content s of the oil guiding component t ; t ;

[0060] Adjust the pressure in the oil storage chamber to reach the target pressure value F through the pressure regulating component of the intelligent atomizer t so that the oil supply speed from the oil storage chamber to the oil guiding component matches the heating power Pt Match

[0061] In the above intelligent atomization control method, before the step of adjusting the heating power P of the heating element of the intelligent atomizer according to the real-time fog gas flow rate v t It further includes: t Before the step of

[0062] Configure and store the personalized concentration parameter p of the user through a computer device or a mobile communication device connected to the intelligent atomizer co .

[0063] In the above intelligent atomization control method, before the step of adjusting the heating power P of the heating element of the intelligent atomizer according to the real-time fog gas flow rate v t It further includes: t Before the step of

[0064] Analyze the fog gas flow rate at the air outlet of the intelligent atomizer when the user uses the intelligent atomizer to obtain the upper bound v1 of the first fog gas flow rate in the gentle mode and the upper bound v2 of the second fog gas flow rate in the fast mode when the user uses the intelligent atomizer. The upper bound v1 of the first fog gas flow rate is the maximum flow rate of a single puff in the gentle mode, and the upper bound v2 of the second fog gas flow rate is the maximum flow rate of a single puff in the fast mode.

[0065] In the above intelligent atomization control method, before the step of adjusting the heating power P of the heating element of the intelligent atomizer according to the real-time fog gas flow rate v t It further includes: t Before the step of

[0066] Obtain the maximum heating power of the intelligent atomizer;

[0067] According to the maximum heating power P of the intelligent atomizer max , the personalized concentration parameter p co And the upper bound v1 of the first fog gas flow rate, calculate the adaptive power parameter of the intelligent atomizer:

[0068]

[0069] In the above intelligent atomization control method, the step of analyzing the fog gas flow rate at the air outlet of the intelligent atomizer when the user uses the intelligent atomizer to obtain the upper bound v1 of the first fog gas flow rate in the gentle mode and the upper bound v2 of the second fog gas flow rate in the fast mode specifically includes:

[0070] Obtain the fog gas flow rate data when the user uses the intelligent atomizer within a period of time;

[0071] Calculate the rate of change of the fog flow velocity and the average rate of change of the fog flow velocity during each suction process of the user;

[0072] Eliminate abnormal suction data from the fog flow velocity data according to the rate of change of the fog flow velocity;

[0073] Divide the fog flow velocity data into fog flow velocity data of the gentle mode suction process and fog flow velocity data of the fast mode suction process according to the average rate of change of the fog flow velocity, and calculate the first upper bound v1 of the fog flow velocity in the gentle mode and the second upper bound v2 of the fog flow velocity in the fast mode respectively.

[0074] In the above intelligent atomization control method, the steps of calculating the rate of change of the fog flow velocity and the average rate of change of the fog flow velocity during each suction process of the user specifically include:

[0075] Obtain the monitoring data sampling period Δt for real-time monitoring of the fog flow rate at the air outlet of the intelligent atomizer;

[0076] Divide each suction process of the user into a number of sampling points at intervals of the monitoring data sampling period Δt;

[0077] Obtain the fog flow rate Q monitored at each sampling point of each suction process i , where i = (1, 2,..., n), and n is the number of sampling points in the current suction process;

[0078] Calculate the fog flow velocity corresponding to each sampling point during the current suction process and the rate of change of the fog flow velocity where v i = 0 when i = 1, and v i ′ = 0 when i = 1 and i = 2;

[0079] Calculate the average rate of change of the fog flow velocity during the current suction process

[0080] In the above intelligent atomization control method, the steps of eliminating abnormal suction data from the fog flow velocity data according to the rate of change of the fog flow velocity specifically include:

[0081] Eliminate the fog flow velocity data with the duration of a single suction process shorter than the preset time threshold;

[0082] Obtain the number n1 of the first sampling points and the number n2 of the second sampling points where the rate of change of the fog flow velocity v i ′ is less than the preset rate of change threshold and greater than or equal to the rate of change threshold during each suction process;

[0083] When n2 > 0 and When 0 < 0 ≤ 0.5, determine the fog gas flow rate data of the current suction process as abnormal suction data.

[0084] Exclude the abnormal suction data from the fog gas flow rate data.

[0085] In the above intelligent atomization control method, the step of classifying the fog gas flow rate data into the fog gas flow rate data of the smooth mode suction process and the fog gas flow rate data of the fast mode suction process according to the average fog gas flow rate change rate, and respectively calculating the first fog gas flow rate upper bound v1 in the smooth mode and the second fog gas flow rate upper bound v2 in the fast mode specifically includes:

[0086] Determine the single suction process with the average fog gas flow rate change rate less than the change rate threshold as the suction process in the smooth mode;

[0087] Determine the single suction process with the average fog gas flow rate change rate greater than or equal to the change rate threshold as the suction process in the fast mode;

[0088] Determine the maximum fog gas flow rate in all suction processes in the smooth mode within the period of time as the first fog gas flow rate upper bound v1;

[0089] Determine the maximum fog gas flow rate in all suction processes in the fast mode within the period of time as the second fog gas flow rate upper bound v2.

[0090] In the above intelligent atomization control method, according to the real-time fog gas flow rate v t Adjust the heating power P of the heating element of the intelligent atomizer t The specific steps include:

[0091] Obtain the personalized concentration parameter p co And the adaptive power parameter p a ;

[0092] According to the concentration parameter p co 、the adaptive power parameter p a 、the first fog gas flow rate upper bound v1, the second fog gas flow rate upper bound v2 and the real-time fog gas flow rate v t Calculate the heating power of the heating element:

[0093]

[0094] In some embodiments of the present invention, the oil storage tank further includes an oil liquid information storage unit, and the controller is connected to the oil liquid information storage unit to obtain the oil liquid information of the oil storage tank from the oil liquid information storage unit. Specifically, the oil liquid information storage unit may be an NFC tag, and the intelligent atomizer includes an NFC reader for reading the oil liquid information from the oil liquid information storage unit. The oil liquid information storage unit may also be other memories such as a flash memory, which will not be elaborated here.

[0095] In the above intelligent atomization control method, according to the heating power P of the heating element t and the real-time temperature T of the heating element t to determine the oil content S of the oil guiding component of the intelligent atomizer t The steps specifically include:

[0096] Read the oil liquid information of the oil storage tank from the oil liquid information storage unit, and the oil liquid information includes one or more of the brand, name, type, and number information of the oil liquid;

[0097] Obtain the temperature rise data of the corresponding oil content under different heating powers of the oil liquid according to the oil liquid information, and the temperature rise data is measured using the heating element and the oil guiding component in a laboratory environment;

[0098] Determine the oil content S corresponding to the change of the heating power P of the heating element t and the real-time temperature T of the heating element t according to the temperature rise data; t .

[0099] In some embodiments of the present invention, the computer device or mobile communication device connected to the intelligent atomizer is used to configure and store the commonly used oil liquid information of the user and the temperature rise data of the corresponding oil content under different heating powers.

[0100] In the above intelligent atomization control method, according to the heating power P of the heating element t and the real-time temperature T of the heating element t to determine the oil content S of the oil guiding component of the intelligent atomizer t The steps specifically include:

[0101] Match the change of the heating power P of the heating element t and the real-time temperature T of the heating element t with the temperature rise data corresponding to the heating power P of the heating element stored in the intelligent atomizer; t According to the matching result, determine the oil liquid type in the oil storage tank;

[0102] ​

[0103] Obtain the heating power P of the heating element corresponding to the oil type t and the real-time temperature T t and the oil content S t .

[0104] In the technical solution of the present invention, corresponding to different oil types, the corresponding relationship between the heating power of the heating element, the oil content of the oil guiding assembly and the target pressure value in the oil storage chamber of the intelligent atomizer can be obtained by measurement in a laboratory environment.

[0105] In the above intelligent atomization control method, before the step of obtaining the target pressure value F in the oil storage chamber of the intelligent atomizer corresponding to the oil content S t of the oil guiding assembly t , the following steps are further included:

[0106] Control the heating element to atomize the oil in the oil guiding assembly at different heating powers;

[0107] Control the pressure regulating assembly to adjust the pressure in the oil storage chamber;

[0108] Measure the change in the oil content of the oil guiding assembly corresponding to different heating powers and different pressures in the oil storage chamber;

[0109] When the oil content of the oil guiding assembly is approximately equal to the target oil content and the change range of the oil content of the oil guiding assembly is less than the preset oil content change threshold, determine the pressure value in the oil storage chamber as the target pressure value corresponding to the heating power and the target oil content.

[0110] It should be noted that in this article, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the term "comprising", "including" or any other variant thereof is intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements not only includes those elements, but also includes other elements not expressly listed, or also includes elements inherent to such process, method, article or device. Without further limitation, an element defined by the statement "including a..." does not exclude the existence of additional identical elements in the process, method, article or device including the element.

[0111] As described above, the embodiments in accordance with the present invention do not describe all the details in detail, nor limit the invention to the specific embodiments described. Obviously, many modifications and variations can be made according to the above description. These embodiments are selected and specifically described in this specification in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can make good use of the present invention and its modifications based on the present invention. The present invention is only limited by the claims and their full scope and equivalents.

Claims

1. An intelligent atomization control method applied to an intelligent atomizer, characterized in that, The intelligent atomizer includes a first body provided with a power supply component and a second body provided with an oil storage chamber and an atomization chamber. The second body includes a heating element disposed in the atomization chamber, an oil guiding component connecting the heating element and the oil storage chamber for supplying the oil in the oil storage chamber to the heating element for atomization, a flow sensor disposed at the air outlet of the second body for monitoring the mist flow rate, a temperature sensor disposed on one side of the heating element for monitoring the surface temperature of the heating element, and a pressure regulating component for regulating the pressure in the oil storage chamber. The intelligent atomizer further includes a controller connected to the flow sensor, the temperature sensor, and the pressure regulating component. The controller is configured to adjust the heating power of the heating element according to the mist flow rate at the air outlet of the intelligent atomizer, and control the pressure regulating component to regulate the pressure in the oil storage chamber according to the heating power of the heating element and the real-time temperature of the heating element so that the oil supply speed from the oil storage chamber to the oil guiding component matches the heating power. The intelligent atomization control method includes: Real-time monitoring of the mist flow Q at the air outlet of the intelligent atomizer t , to obtain the real-time mist flow rate v at the air outlet of the smart atomizer when the user uses the smart atomizer t ; According to the real-time fog gas flow velocity v t Adjust the heating power P of the heating element of the intelligent atomizer t ; Real-time monitor the temperature T of the heating element t ; According to the heating power P of the heating element t and the real-time temperature T of the heating element t to determine the oil content S of the oil guiding component of the intelligent atomizer t ; Obtain the oil content S of the oil guiding component t The target pressure value F in the oil storage chamber of the intelligent atomizer corresponding thereto t ; Adjust the pressure in the oil storage chamber through the pressure regulating component of the intelligent atomizer to reach the target pressure value F t so that the oil supply speed of the oil storage chamber to the oil guiding component matches the heating power P t ; Before adjusting the heating power P of the heating element of the intelligent atomizer according to the real-time fog gas flow velocity v t it further includes: t before the step of Configure and store the personalized concentration parameter p of the user through a computer device or a mobile communication device connected to the intelligent atomizer co ; Before adjusting the heating power P of the heating element of the intelligent atomizer according to the real-time fog gas flow velocity v t there are further steps including: t before the step of Analyzing the mist flow rate at the air outlet of the intelligent atomizer when the user uses the intelligent atomizer to obtain a first upper bound of mist flow rate v1 in a smooth mode and a second upper bound of mist flow rate v2 in a fast mode when the user uses the intelligent atomizer. The first upper bound of mist flow rate v1 is the maximum flow rate of a single puff in the smooth mode, and the second upper bound of mist flow rate v2 is the maximum flow rate of a single puff in the fast mode. Before adjusting the heating power P of the heating element of the intelligent atomizer according to the real-time fog gas flow velocity v t the following steps are also included: t before the step of Obtain the maximum heating power P of the intelligent atomizer max ; According to the maximum heating power P of the intelligent atomizer max 、the personalized concentration parameter p co and the upper bound v1 of the first fog flow rate, calculate the adaptive power parameter of the intelligent atomizer:

2. The intelligent atomization control method according to claim 1, wherein, The step of analyzing the mist flow rate at the air outlet of the intelligent atomizer when the user uses the intelligent atomizer to obtain a first upper bound of mist flow rate v1 in a smooth mode and a second upper bound of mist flow rate v2 in a fast mode specifically includes: Obtaining the mist flow rate data when the user uses the intelligent atomizer within a period of time. Calculating the mist flow rate change rate and the average mist flow rate change rate during each puff of the user. Eliminating abnormal puff data from the mist flow rate data according to the mist flow rate change rate. Dividing the mist flow rate data into mist flow rate data of the smooth mode puff process and mist flow rate data of the fast mode puff process according to the average mist flow rate change rate, and respectively calculating the first upper bound of mist flow rate v1 in the smooth mode and the second upper bound of mist flow rate v2 in the fast mode.

3. The intelligent atomization control method according to claim 2, wherein The step of calculating the mist flow rate change rate and the average mist flow rate change rate during each puff of the user specifically includes: Obtaining the monitoring data sampling period Δt for real-time monitoring of the mist flow rate at the air outlet of the intelligent atomizer. Dividing each puff process of the user into a plurality of sampling points at intervals of the monitoring data sampling period Δt. Obtain the fog flow rate Q monitored at each sampling point during each suction process i , where i = 1, 2, …, n, and n is the number of sampling points in the current suction process; Calculate the fog gas flow rate corresponding to each sampling point during the current suction process and the change rate of the fog gas flow rate where when i = 1, v i = 0, and when i = 1 and i = 2, v' i = 0; Calculate the average rate of change of the fog gas flow velocity during the current suction process 4. The intelligent atomization control method according to claim 3, wherein The step of eliminating abnormal puff data from the mist flow rate data according to the mist flow rate change rate specifically includes: Eliminating the mist flow rate data with the duration of a single puff process shorter than a preset time threshold. Obtain the change rate v' of the fog flow velocity during each suction process i The number n1 of the first sampling points less than the preset change rate threshold and the number n2 of the second sampling points greater than or equal to the change rate threshold; When n2 > 0 and the fog gas flow rate data of the current suction process is determined as abnormal suction data, where 0 < n0 ≤ 0.5; Eliminating the abnormal puff data from the mist flow rate data.

5. The intelligent atomization control method according to claim 4, wherein The steps of classifying the fog gas flow rate data into the fog gas flow rate data of the gentle mode suction process and the fog gas flow rate data of the fast mode suction process according to the average fog gas flow rate change rate, and respectively calculating the first fog gas flow rate upper bound v1 in the gentle mode and the second fog gas flow rate upper bound v2 in the fast mode specifically include: Determining a single suction process with an average fog gas flow rate change rate less than the change rate threshold as a suction process in the gentle mode; Determining a single suction process with an average fog gas flow rate change rate greater than or equal to the change rate threshold as a suction process in the fast mode; Determining the maximum fog gas flow rate among all the suction processes in the gentle mode within the period of time as the first fog gas flow rate upper bound v1; Determining the maximum fog gas flow rate among all the suction processes in the fast mode within the period of time as the second fog gas flow rate upper bound v2.

6. The intelligent atomization control method according to any one of claims 1-5, characterized in that, According to the real-time fog gas flow velocity v t Adjust the heating power P of the heating element of the intelligent atomizer t The steps specifically include: Obtain the personalized concentration parameter p co and the adaptive power parameter p a ; According to the concentration parameter p co 、the adaptive power parameter p a 、the upper bound v1 of the first fog gas flow rate, the upper bound v2 of the second fog gas flow rate, and the real-time fog gas flow rate v t calculate the heating power of the heating element:

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