Interface interaction method and device, computer device and storage medium

Abstract

This application relates to the field of aerosol technology, and provides an interface interaction method, device, computer equipment, and storage medium for an aerosol generating device. After displaying the interactive interface corresponding to the target mode, the interactive interface is dynamically changed according to the interactive operation and the preset physical model. In the interface interaction scheme provided by the embodiments of this application, when the user triggers the interactive operation through the aerosol generating device, the interactive interface is controlled in combination with the interactive operation and the preset physical model. It does not rely on chemical sensors, avoiding the response delay problem caused by sensors. At the same time, the interactive interface changes dynamically with the measurement results, which can intuitively present the nicotine release amount, aerosol generation dynamics, and subsequent release trends, allowing users to predict the inhalation amount and smoke amount and adjust the usage mode in advance, solving the problems of single interaction mode and response delay in existing solutions.

Description

Technical Field

[0001] This application relates to the field of aerosol technology, and in particular to an interface interaction method, apparatus, computer equipment and storage medium for an aerosol generating device. Background Technology

[0002] Aerosol generation equipment is an electronic device that produces inhalable aerosols by heating a specific aerosol matrix. Currently, new tobacco products mainly fall into two technological categories: heated tobacco products (HNB) and electronic vaporization (Vaping). To combine the advantages of both, hybrid devices that combine solid tobacco matrices with liquid vaporization matrices have emerged in the industry.

[0003] Most current HNB devices rely on user interfaces for interaction. However, these interfaces primarily display basic information such as battery level and heating status, making it difficult for users to predict subsequent nicotine inhalation and vapor production, and thus hindering the ability to adjust usage modes in advance. Furthermore, some products with data display capabilities rely on chemical sensors to directly detect nicotine content, resulting in response delays. Therefore, current interface interaction solutions suffer from limited interaction modes and delayed response times. Summary of the Invention

[0004] Based on this, this application provides an interface interaction method, apparatus, computer device, and storage medium for an aerosol generating device, which can solve the problems of single interaction mode and response delay in current interface interaction methods.

[0005] Firstly, a method for interface interaction in an aerosol generating device is provided, including: Display the interactive interface corresponding to the target mode; The interactive interface is dynamically changed based on the interactive operation and the preset physical model.

[0006] Secondly, an interactive interface for an aerosol generating device is provided, which displays the interface elements of the aerosol generating device in a target mode and dynamically changes according to the interaction and a preset physical model.

[0007] Thirdly, an aerosol generation system is provided, the system comprising: an aerosol generation device and a target terminal, the aerosol generation device being communicatively connected to the target terminal; the aerosol generation device being configured to implement the steps of the interface interaction method of the aerosol generation device described in any of the above claims.

[0008] Fourthly, an aerosol generating device is provided, the aerosol generating device including a controller and an atomizing core, the controller being used to control the atomizing core, the controller being configured to implement the steps of the interface interaction method of any of the above-described aerosol generating devices.

[0009] Fifthly, a computer-readable storage medium is provided, the computer-readable storage medium storing a computer program, which, when executed by a processor, implements the interface interaction steps of the above-described aerosol generating device.

[0010] This application provides an interface interaction method, device, computer equipment, and storage medium for an aerosol generating device. After displaying the interactive interface corresponding to the target mode, the interactive interface is dynamically changed according to the interactive operation and the preset physical model. In the interface interaction scheme provided by this application, when the user triggers the interactive operation through the aerosol generating device, the interactive interface is controlled in combination with the interactive operation and the preset physical model. It does not rely on chemical sensors, avoiding the response delay problem caused by sensors. At the same time, the interactive interface changes dynamically with the measurement results, which can intuitively present the nicotine release amount, aerosol generation dynamics, and subsequent release trends, allowing users to predict the inhalation amount and smoke amount and adjust the usage mode in advance, solving the problems of single interaction mode and response delay in existing solutions. Attached Figure Description

[0011] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0012] in: Figure 1 This is a flowchart illustrating the interface interaction method of the aerosol generating device provided in the embodiments of this application; Figure 2 This is a schematic diagram of the interface of the first embodiment of the interface interaction method of the aerosol generating device provided in this application. Figure 3 This is a schematic diagram of the interface of the second embodiment of the interface interaction method of the aerosol generating device provided in this application. Figure 4 This is a schematic diagram of the interface of the third embodiment of the interface interaction method of the aerosol generating device provided in this application. Figure 5 This is a schematic diagram of the interface of the fourth embodiment of the interface interaction method of the aerosol generating device provided in this application. Figure 6 This is a schematic diagram of the interface of the fifth embodiment of the interface interaction method of the aerosol generating device provided in this application. Figure 7 This is a schematic diagram of the interface of the sixth embodiment of the interface interaction method of the aerosol generating device provided in this application. Figure 8 This is a schematic diagram of the interface of the seventh embodiment of the interface interaction method of the aerosol generating device provided in this application. Figure 9 This is a schematic diagram of the interface interaction device of the aerosol generating device according to an embodiment of this application; Figure 10 This is a structural block diagram of the aerosol generation system provided in the embodiments of this application; Figure 11 This is a structural block diagram of the aerosol generating device provided in the embodiments of this application. Detailed Implementation

[0013] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0014] This application's embodiments rely on the innovative architecture of NHP (Noncombustion Heat Control Platform). Through its highly integrated precision temperature control system and underlying technology framework, it establishes industry performance benchmarks while providing users with a system-level solution that combines excellent safety with an ultimate sensory experience.

[0015] Exemplary embodiments will now be described in detail, examples of which are illustrated in the accompanying drawings. When the following description relates to the drawings, unless otherwise indicated, the same numerals in different drawings denote the same or similar elements. The embodiments described in the following exemplary embodiments do not represent all embodiments consistent with this application. Rather, they are merely examples of systems and methods consistent with those detailed in the appended claims or with some aspects of this application.

[0016] It should be noted that, in this document, the terms "comprising," "including," or any other variations thereof are intended to cover descriptions such as non-exclusive inclusion, so that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such a process, method, article, or apparatus. Without further limitations, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the process, method, article, or apparatus that includes that element. Furthermore, components, features, and elements with the same names in different embodiments of this application may have the same meaning or different meanings, the specific meaning of which must be determined by its interpretation in that specific embodiment or further in conjunction with the context of that specific embodiment.

[0017] It should be understood that the specific embodiments described herein are merely illustrative of this application and are not intended to limit this application.

[0018] In the following description, the use of suffixes such as "module," "part," or "unit" to denote elements is solely for the purpose of illustrative purposes and has no specific meaning in itself. Therefore, "module," "part," or "unit" may be used interchangeably.

[0019] This application provides an interface interaction method for an aerosol generating device, including: displaying an interactive interface corresponding to a target mode; and, in response to a user-triggered inhalation operation, controlling the interactive interface to dynamically change based on the inhalation operation, the heating parameters of the aerosol generating device, and a preset physical model.

[0020] Please see Figure 1 , Figure 1 This is a flowchart illustrating the interface interaction method of an aerosol generating device according to an embodiment of this application. The interface interaction method of the aerosol generating device provided in this embodiment of the application may specifically include the following steps: S101. Display the interactive interface corresponding to the target mode.

[0021] The target mode refers to the preset heating mode of the aerosol generating device. Optionally, in some embodiments of this application, the preset heating mode of the aerosol generating device may specifically include a first mode and a second mode to adapt to different user needs. The first mode is a preset dynamic temperature rise curve with increasing heating power and a faster release rate of aerosols and nicotine to meet the demand for a strong experience. The second mode is a preset constant temperature curve with stable heating power and a gradual release rate of aerosols and nicotine to meet the demand for a mild experience.

[0022] For example, specifically, users can trigger mode selection via device buttons, touch controls, etc. The device system recognizes the operation signal, determines the target mode (first mode or second mode) selected by the user from the preset mode library, and simultaneously locks the core parameter package corresponding to the selected mode. Then, the aerosol generating device retrieves the preset parameters corresponding to the target mode, including the preset total nicotine release, preset total aerosol generation, mode-specific temperature and time curves, and initial state parameters of interface elements (such as the initial style of preset symbols and the range of curve axes). Next, based on the retrieved preset parameters, the interactive interface corresponding to the target mode is initialized, such as... Figure 2 As shown. Among them, Figure 2 (a) is the interactive interface in the first mode. Figure 2 (b) is the interactive interface in the second mode. The difference between the two modes in the initialization phase is the difference in mode description.

[0023] Optionally, in some embodiments of this application, the step of "displaying the interactive interface corresponding to the target mode" may further include: In response to a user-triggered mode selection action, determine the target mode corresponding to the mode selection action.

[0024] The mode selection operation refers to the interactive operation actively triggered by the user to select the heating working mode of the device to suit their own needs. It is a preliminary action to determine the target mode. The operation methods are adapted to the conventional design of aerosol generating equipment, including: short or long presses of physical buttons on the aerosol generating equipment body, touch screen click mode options, etc.

[0025] For example, after the aerosol generator detects the operation signal triggered by the user, it matches the corresponding operation mode option. The system has a built-in preset mode library, such as the first mode and the second mode. Then, the aerosol generator can light up the indicator light corresponding to the selected mode and display the target mode name and identifier. At the same time, a pop-up window will appear on the connected electronic device, such as a mobile phone APP, to indicate that the first mode has been selected.

[0026] S102. Control the dynamic changes of the interactive interface according to the interactive operation and the preset physical model.

[0027] Interactive operation refers to the operation actively triggered by the user in response to the aerosol generating device, which can be recognized by the device and directly or indirectly drive the dynamic changes of the interactive interface, such as the user's operation to obtain the inhalation behavior of inhalable aerosols or to change the device's heating working mode.

[0028] For example, when the interaction is an inhalation operation, the inhalation parameters and heating parameters are calibrated with timestamps according to the inhalation duration; if it is a mode switching operation, the dedicated heating parameter package for that mode is retrieved; then, the integrated standardized dataset is synchronously transmitted to the preset physical model to generate user experience information.

[0029] The user experience information includes at least one of the following: physiological satisfaction indicators, harm reduction and substitution indicators, sensory experience indicators, behavioral management indicators, and efficacy indicators. Physiological satisfaction indicators include nicotine metabolism simulation and addiction relief. Harm reduction and substitution indicators include nicotine replacement amount, tar avoidance amount, or harmful substance exemption amount. Sensory experience indicators include particle size, smoke volume, and taste smoothness. Behavioral management indicators include usage habit scores and addiction risk control prompts. Efficacy indicators include one or more of the following: flavor consistency curve and aroma release efficiency. It should be noted that the nicotine replacement amount is the equivalent of reducing the amount of traditional cigarettes consumed by converting the amount of aerosol generating equipment used.

[0030] Optionally, in some embodiments of this application, the step "controlling the dynamic changes of the interactive interface according to the interactive operation and the preset physical model" may specifically include: In response to user-triggered inhalation actions, the interactive interface is dynamically changed based on the inhalation action, the heating parameters of the aerosol generating device, and a preset physical model.

[0031] Inhalation refers to the user's active inhalation behavior to obtain inhalable aerosol, which is the trigger condition for dynamic changes in the driving interface. Core features are captured by sensors, including single-puff duration, inhalation interval, inhalation intensity (if supported by the device), and cumulative inhalations, directly reflecting the user's usage status. Heating parameters refer to the real-time operating data output by the aerosol generating device for heating the substrate (solid tobacco / liquid atomizing substrate), dynamically adjusted according to the target mode, including real-time heating power, actual heating temperature, power adjustment range, deviation from the preset temperature and time curve, and heater operating time.

[0032] The physical model refers to the built-in physical and mathematical model of the aerosol generating device. This model encompasses the relationship between heating energy, aerosol generation, and nicotine release. It does not rely on chemical sensors and can calculate user experience information through parameter linkage. Specifically, the actual heating energy can be calculated using heating parameters, the aerosol generation amount can be derived by combining inhalation parameters, and then nicotine release data, such as single-inhalation release, cumulative release, and release rate, can be estimated based on the correlation between aerosol and nicotine release. The dynamic change process of the interactive interface refers to the real-time updating of the interface elements along with the user experience information during the inhalation process.

[0033] For example, specifically, after the aerosol generating device captures the user's inhalation signal through airflow sensors and pressure sensors, it obtains the operating parameters of the current inhalation operation (such as the start of the single-inhalation duration) and the current real-time heating parameters of the device. Then, it inputs the operating parameters and heating parameters into a preset physical model, which outputs user experience information. Finally, it controls the dynamic changes of the interactive interface based on the user experience information.

[0034] Optionally, in some embodiments of this application, the step "in response to a user-triggered inhalation operation, controlling the dynamic changes of the interactive interface according to the inhalation operation, the heating parameters of the aerosol generating device, and a preset physical model" may specifically include: Obtain the inhalation parameters corresponding to the inhalation operation and the current heating parameters of the aerosol generating equipment; Based on inhalation parameters, current heating parameters, and a preset physical model, predict the user experience information corresponding to the inhalation operation, and control the dynamic changes of the interactive interface based on the user experience information.

[0035] Among them, user experience information refers to aerosol release information and nicotine release information obtained after physical model calculations based on inhalation parameters and heating parameters. This is the core data driving the dynamic adjustment of the interactive interface. Both types of information include real-time, cumulative, and rate / trend data, specifically: Aerosol release information includes single-port aerosol generation, cumulative aerosol generation, aerosol release rate, and reaction progress with the heated substance, etc.; nicotine release information includes single-port nicotine release, cumulative nicotine release, and current nicotine release rate.

[0036] For example, when a suction action (i.e., inhalation operation) that meets a preset threshold is detected, the heating parameters of the current working state are retrieved in real time from the heating module, and the inhalation parameters corresponding to the inhalation operation are also obtained. Then, the collected inhalation parameters and the current heating parameters are structurally integrated, such as by organizing them in the format of suction time node-inhalation parameter-heating parameter, and input into the preset physical model. The physical model can first calculate the actual output heating energy based on the heating parameters, and then deduce the aerosol release information by combining the actual output heating energy with the inhalation parameters. Based on the correlation between aerosol and nicotine release, the nicotine release information is accurately calculated from the aerosol release information, and finally, user experience information is output.

[0037] Furthermore, the output user experience information is analyzed, such as the ratio of cumulative aerosol generation to the preset total generation and the ratio of cumulative nicotine release to the preset total release. Based on these indicators and release rate and trend prediction data, driving instructions for adjusting interface elements are generated, thereby adjusting the interface elements.

[0038] Optionally, in some embodiments of this application, the step "predicting user experience information corresponding to the inhalation operation based on inhalation parameters, current heating parameters, and a preset physical model, and controlling the dynamic changes of the interactive interface based on the user experience information" may specifically include: Based on inhalation parameters, current heating parameters, and a preset physical model, predict the aerosol release information and nicotine release information corresponding to the inhalation operation; Adjust the interface elements corresponding to the released substances in the interactive interface based on aerosol release information and nicotine release information.

[0039] For example, specifically, the collected inhalation parameters and retrieved current heating parameters are integrated with the preset benchmark parameters of the target mode. Then, the physical model is used to calculate the current heating parameters, and the actual heating energy output by the device to the heated object is calculated based on the real-time heating power, actual heating temperature, and heater working time. At the same time, the deviation between the actual heating energy and the preset heating energy is corrected by combining the preset mapping relationship between the preset temperature and time curve of the target mode. In addition, the physical model performs linkage calculations with the actual heating energy and inhalation parameters to calculate the single-inhalation aerosol generation and cumulative aerosol generation. Based on the aerosol generation per unit time, the real-time aerosol release rate is calculated. At the same time, the cumulative aerosol generation is compared with the preset total aerosol generation of the target mode, which is converted into the reaction progress of the heated object, and finally aerosol release information is generated.

[0040] Meanwhile, the physical model, based on aerosol release information and combined with the nicotine release coefficient of the target mode, calculates the nicotine release per puff, the cumulative nicotine release, and the current nicotine release rate. It also compares the current nicotine release rate with the preset release curve of the target mode. If the rate is consistent with the preset, the release trajectory for the remaining puffing cycles is derived according to the preset trend. If the rate fluctuates, the predicted trajectory is corrected based on real-time data, and finally, nicotine release information containing trend prediction data is generated.

[0041] Furthermore, based on the parsed user experience information and core adjustment metrics, driving instructions for interface elements are generated. Finally, based on the driving instructions, the target interface elements corresponding to the released objects in the interactive interface are adjusted.

[0042] Optionally, in some embodiments of this application, the step "adjusting the interface elements corresponding to the released substances in the interactive interface based on aerosol release information and nicotine release information" may specifically include: Based on the inhalation duration corresponding to the inhalation procedure, a correlation between aerosol release information and nicotine release information was established. Based on the relationship, adjust the interface elements corresponding to the released items in the interactive interface.

[0043] Among them, inhalation duration refers to the time dimension data of the user triggering the inhalation (sucking) operation. It is the benchmark for constructing the relationship between the two types of release information, including single inhalation duration (the duration of a single sucking) and cumulative inhalation duration (the total sucking time from the first sucking to the present, including sucking intervals but the core statistical effective sucking time).

[0044] The correlation refers to the mapping relationship established with inhalation duration as a unified time axis, where time nodes correspond one-to-one and data are positively correlated between aerosol release information and nicotine release information. Essentially, it binds all dimensions of the two types of release information (instantaneous, cumulative, rate) to the same inhalation duration node, forming a correlation between inhalation duration, aerosol release status, and nicotine release status.

[0045] For example, specifically, retrieve complete aerosol release information and nicotine release information from the physical model calculation output, as well as the full inhalation duration data (single inhalation, cumulative) collected by the sensor, and add a timestamp of uniform precision to all data.

[0046] Using the cumulative inhalation time as the main horizontal dimension, the time nodes are divided into equidistant nodes at fixed time intervals. At the same time, the single-inhalation time segmentation is marked on the corresponding node. Then, based on the unified time axis, the data of each dimension of aerosol release information and nicotine release information are bound to the corresponding inhalation time node.

[0047] Optionally, in some embodiments of the application, the single-inhalation aerosol generation and single-inhalation nicotine release at each time point can be matched to the corresponding single-inhalation duration segment, and the real-time aerosol release rate and current nicotine release rate can be matched to the corresponding cumulative inhalation duration node. Optionally, in some embodiments of the application, the cumulative aerosol generation and cumulative nicotine release at each time point can be synchronously matched to the corresponding cumulative inhalation duration node to ensure that the cumulative release data changes continuously as the inhalation duration increases; Optionally, in some embodiments of the application, the nicotine release trend prediction data can be bound to subsequent extended nodes of the current cumulative inhalation time node according to the dimension of the remaining cumulative inhalation time. For example, if the current cumulative inhalation is 10 seconds and the remaining expected inhalation is 20 seconds, the nicotine release trend data of 20 seconds can be bound to each time node after 10 seconds.

[0048] If the user continues to inhale, the system collects new inhalation duration data and release information data in real time, supplements them to a unified timeline and updates the mapping relationship according to the above steps; if there is abnormal fluctuation in the release information rate, the system corrects the mapping relationship between the two types of release information at the corresponding inhalation duration node based on real-time data to ensure that the correlation always matches the release state during the actual inhalation process.

[0049] Finally, based on the cumulative aerosol generation and cumulative nicotine release at each inhalation duration node, combined with the preset total release of the target mode, the cumulative aerosol release ratio and cumulative nicotine release ratio can be calculated. Based on the correlation dataset, the elements corresponding to the released substances in the interactive interface (such as preset symbols, aerosol release curves, nicotine consumption curves, and nicotine intake area model diagrams) can be adjusted synchronously to match the release information status of the corresponding inhalation duration node.

[0050] Optionally, in some embodiments of this application, the step "adjusting the interface elements corresponding to the release object in the interactive interface based on the association relationship" may specifically include: Determine the preset total release amount for the target pattern; Based on the association and the preset total release amount, preset symbols are displayed sequentially on the interactive interface in a preset order.

[0051] The preset total release amount of the target mode refers to the maximum total release amount of aerosol and nicotine that the aerosol generating device is pre-calibrated for the preset working mode. The preset total aerosol generation amount refers to the maximum aerosol generation amount during the entire inhalation cycle in this mode. The preset total nicotine release amount refers to the maximum nicotine release amount during the entire inhalation cycle in this mode. The preset total release amounts of different target modes are different. For example, the preset total release amount of the first mode is higher and the release rate is faster.

[0052] Preset symbols refer to visual identifiers in the interactive interface used to represent the cumulative release progress of released items, replacing the traditional progress display that is tied to real time. They are strongly correlated with the cumulative release percentage of released items and are unrelated to real time. The forms include differentiated graphics, progressive letters, and first-level dynamic icons. Each symbol corresponds to a release percentage threshold and has an initial style (0% percentage) and a full progress style (100% percentage).

[0053] The preset sequence refers to the fixed switching order of preset symbols as the cumulative release percentage of the released substance increases. It is set in advance by the device and adapts to all target modes. This sequence is divided into equidistant / non-equidistant thresholds (such as 10%, 20%...100%) based on the cumulative release percentage of the released substance. Each threshold corresponds to a preset symbol. When the percentage reaches a threshold, the symbol switches in this order.

[0054] For example, please see Figure 3When the user selects a target mode (such as the first mode), the system retrieves the core parameters of the first mode from the built-in parameter library, including the mode heating curve, rated heating power range, aerosol matrix compatibility coefficient, and preset total duration of the suction cycle. Then, based on the heating curve and the device's rated heating power, the system calculates the total heating energy that can be output to the aerosol matrix during the entire suction cycle in the first mode. Simultaneously, it adjusts the heating energy loss value (such as heat conduction loss and ambient temperature loss) based on the matrix compatibility coefficient to obtain the actual total heating energy that can be applied to the matrix. Next, the total heating energy is input into the physical model, which calculates the preset total aerosol generation amount in the first mode. Based on the positive correlation between aerosol and nicotine release, and combined with the proportion of nicotine content in the matrix, the preset total nicotine release amount in this mode is derived from the preset total aerosol generation amount.

[0055] Furthermore, the cumulative release percentages of aerosols and nicotine are calculated separately, using the formula: Cumulative release percentage = Current cumulative release amount ÷ Target mode preset total release amount × 100%; Optionally, in some embodiments of this application, the highest value among the cumulative release percentages of the two types of releases is taken as the trigger value for preset symbol switching.

[0056] Next, the calculated trigger value is matched with a preset sequence percentage threshold set in advance by the aerosol generating device. In some embodiments of this application, when the trigger value is greater than or equal to the threshold, a switch is performed. If multiple thresholds are included, the corresponding logical switch is performed according to the magnitude between the trigger value and each threshold. For example, if the trigger value is 32% and the thresholds are 10%, 20%, 30%, 40%, and 50%, and the trigger value is greater than 10%, 20%, and 30%, but has not reached the next threshold of 40%, then the switch is performed sequentially according to the characters corresponding to each threshold. Figure 4 As shown. That is, the symbol displayed is switched from the currently displayed symbol to the symbol corresponding to the threshold to maintain the continuity of the symbol display; if the trigger value is 0%, the initial style of the preset symbol corresponding to the target mode is displayed to complete the initial display of the symbol.

[0057] Optionally, in some embodiments of this application, if the user continues to perform inhalation, the control system extracts the latest cumulative release from the updated association dataset in real time, continuously calculates new trigger values ​​and matching thresholds, and switches symbols in a preset order; when the user terminates the inhalation operation, or the core trigger value reaches 100% (the release reaches the preset total release amount), the current preset symbol is locked, and the interface continues to display the symbol until the user restarts the inhalation operation or the device enters standby mode.

[0058] Optionally, in some embodiments of this application, the step "adjusting the interface elements corresponding to the release object in the interactive interface based on the association relationship" may specifically include: Based on the correlation, the amount of nicotine released and the reaction progress of the heated substance are determined; Based on the correlation, the release curve of the aerosol is displayed in the interactive interface, showing the inhalation duration and the reaction progress of the heated substance; The nicotine release curve is displayed in the interactive interface based on the inhalation duration and nicotine release amount.

[0059] Nicotine release refers to the quantitative data of nicotine released simultaneously with aerosol generation from the heated material. This includes single-inhalation nicotine release (the nicotine release value in a single inhalation) and cumulative nicotine release (the total nicotine release from the first inhalation to the present). The heated material refers to the matrix in the aerosol generating device that can be heated and vaporized to generate inhalable aerosols, including solid tobacco matrix, liquid atomizing matrix, or a mixture of both. The reaction progress of the heated material refers to the real-time progress of the vaporization reaction to generate aerosols under heating. It is positively correlated with aerosol release information (the higher the aerosol generation rate, the faster the reaction progress), and is usually characterized as a percentage of the cumulative aerosol generation relative to the total aerosol generation preset in the target mode. The aerosol release curve, displayed in the interactive interface, is a continuous dynamic curve plotted with inhalation duration as the time axis and the reaction progress (or aerosol generation rate) of the heated substance as the numerical axis. It visually displays the real-time heating reaction state of the heated substance and the dynamic changes in aerosol release over inhalation duration. Similarly, the nicotine release curve, also displayed in the interactive interface, is a continuous dynamic curve plotted with inhalation duration as the time axis and nicotine release amount as the numerical axis. It can simultaneously mark the peak nicotine release point per breath, visually displaying the dynamic changes in single-breath and cumulative nicotine release over inhalation duration. It is a core visual element for users to perceive their nicotine intake.

[0060] like Figure 5As shown, in the curve display area of ​​the interactive interface, the coordinate axes of the curve are preset: the horizontal axis is the cumulative inhalation time (unit: seconds), and the scale is divided according to the device's preset precision (e.g., one scale per second), extending to the right in real time as the inhalation time increases; the vertical axis is the reaction progress of the heated object or the amount of aerosol generated, and the scale range matches the maximum reaction progress corresponding to the preset total aerosol generation of the target mode (e.g., 0-100%), and remains fixed. All inhalation time nodes and corresponding reaction progress values ​​are extracted to form a series of coordinate data points; the data points are arranged in the order of inhalation time from 0 to the current value to ensure the continuity of the data points. Then, according to the arrangement order of the coordinate data points, all data points are connected with continuous lines within the set coordinate axes to form the initial aerosol release curve; if the user continues to perform inhalation operations, new inhalation time and corresponding reaction progress values ​​are extracted, new coordinate data points are added, and the curve is extended to achieve real-time dynamic refresh of the curve. The upward trend of the curve directly reflects the change in the reaction progress of the heated object (e.g., if the reaction accelerates, the curve slope increases; if the reaction is stable, the curve slope remains unchanged).

[0061] like Figure 6 As shown, the nicotine release curve and aerosol release curve can share the same cumulative inhalation time horizontal axis to ensure consistency in the time dimension and facilitate user comparison. The vertical axis represents nicotine release (unit: mg), with the scale range matching the target mode's preset total nicotine release, which remains fixed. Furthermore, it should be noted that to distinguish between single-inhalation and cumulative release, dual scales can be marked on the vertical axis, or the curve style can be used to differentiate them (e.g., solid line for cumulative, dashed line for single inhalation). Next, all inhalation time nodes and their corresponding cumulative nicotine release values ​​are extracted to form coordinate data points (i.e., inhalation time and cumulative nicotine release). Simultaneously, the single-inhalation nicotine release peak value corresponding to each single-inhalation time segment is extracted and clearly marked on the curve of the corresponding inhalation time node (e.g., dots, triangles, short lines) to demonstrate the nicotine release intensity of a single inhalation. Furthermore, according to the arrangement order of the coordinate data points, all data points are connected with continuous lines within the shared horizontal axis to form an initial nicotine release curve, and the single-shot release peak value is retained; if the user continues to inhale, the system extracts new inhalation duration and corresponding cumulative nicotine release value from the updated correlation dataset in real time, supplements new coordinate data points, marks new single-shot peak values, and extends the curve to achieve real-time dynamic refresh of the curve; if the nicotine release rate fluctuates, the slope of the curve changes synchronously with the rate.

[0062] Optionally, in some embodiments of this application, the step "adjusting the interface elements corresponding to the release object in the interactive interface based on the association relationship" may specifically include: Based on the correlation, determine the current cumulative release amount and current release rate of nicotine; Based on the current release rate and target mode, the nicotine consumption curve in the interactive interface is corrected; The remaining nicotine display space in the interactive interface is filled according to the proportion of the current cumulative release to the preset total nicotine release corresponding to the target mode.

[0063] The current cumulative release refers to the total amount of nicotine released from the heated object along with the aerosol from the moment the user triggers the first inhalation to the current inhalation duration. The current release rate refers to the amount of nicotine released per unit inhalation duration at the current inhalation duration. The nicotine consumption curve is a dynamic curve in the interactive interface with inhalation duration on the horizontal axis and nicotine release and remaining release amount on the vertical axis, displaying both real-time nicotine release status and predicting future release trends. The display location refers to the dedicated visual area of ​​the nicotine intake area model diagram in the interactive interface, with a fixed geometric outline, used to distinguish and display the proportion of released nicotine and remaining nicotine; it is the area visualizing the cumulative nicotine release level.

[0064] For example, specifically, the cumulative nicotine release at the current inhalation duration node and the cumulative nicotine release and inhalation duration at the previous adjacent inhalation duration node are extracted, and the current release rate is calculated according to the formula: Current nicotine release rate = (current cumulative release amount - previous cumulative release amount) ÷ (current inhalation duration - previous inhalation duration); It should be noted that, for the initial node of the first inhalation, the nicotine release amount within a single inhalation duration divided by the single inhalation duration is used as the initial current release rate. Then, the determined current cumulative nicotine release amount and current release rate are bound with the current inhalation duration node and the target mode identifier and stored in the device's temporary cache area. At the same time, the preset nicotine release curve corresponding to the target mode is retrieved, which includes the preset release rate and preset trend slope for each inhalation duration node in the target mode, such as the increasing slope of the first mode and the stable slope of the second mode, as well as the real-time trajectory data of the nicotine consumption curve currently displayed in the interactive interface.

[0065] Furthermore, the current nicotine release rate is compared with the preset release rate corresponding to the current inhalation duration node in the preset release curve of the target mode. If the deviation is 0 or within the preset deviation, it indicates that the current release rate matches the preset rate of the target mode; if the deviation exceeds the preset deviation, it indicates that the current release rate is higher or lower than the preset rate, and rate fluctuations occur, such as a sudden increase in rate due to increased inhalation force.

[0066] Furthermore, based on the deviation determination results, and using the current inhalation duration as the starting point for correction, the nicotine consumption curve in the interactive interface is specifically modified. For example, when the deviation is less than the preset deviation, the original trend slope of the release curve in the target mode is used to linearly extend the subsequent predicted part of the consumption curve, keeping the curve trend consistent with the mode preset. When the deviation is greater than or equal to the preset deviation, the curve slope is modified according to the rate fluctuation amplitude. If the current rate is higher than the preset deviation, the slope is increased; if it is lower than the preset deviation, the slope is decreased. Simultaneously, based on the modified slope, the nicotine release trend for the remaining inhalation cycles is re-derived, updating the predicted part of the consumption curve. Finally, the modified consumption curve trajectory data is synchronized to the interactive interface, retaining the actual release trajectory before the current inhalation duration and updating the predicted trend trajectory after the node. Figure 7 As shown.

[0067] In addition, the filling range of the display position can be determined by the cumulative release percentage. The filled area corresponds to the released nicotine, and the unfilled area is the display position for the remaining nicotine. The filling status is synchronized with the cumulative release percentage in real time, as follows: After retrieving the current cumulative nicotine release and the preset total nicotine release corresponding to the target mode, the core percentage indicator is calculated according to the formula: Cumulative nicotine release percentage = Current cumulative release amount ÷ Target mode preset total nicotine release amount × 100%; Remaining nicotine percentage = 100% - cumulative release percentage, which corresponds to the unfilled percentage of the remaining nicotine display area.

[0068] Then, retrieve the inherent parameters of the nicotine display location in the interactive interface, such as the geometric outline of the display location, total fill pixels, and fill direction. Match the calculated cumulative nicotine release percentage with the fill rules to determine the actual fill range. For example, if the percentage is 30%, fill 30% of the total surface area of ​​the display location. Further, fill the corresponding area of ​​released nicotine according to the cumulative release percentage. The stability of the release rate can be distinguished by color depth or gradient. For example, the more stable the rate, the more uniform the fill color; fluctuations in the rate will result in color gradients or spots. At the same time, reserve the unfilled blank area as the display location for the remaining nicotine. This area can be marked with a light background color or outline to allow users to intuitively identify the percentage of remaining nicotine. Figure 8 As shown.

[0069] Optionally, in some embodiments of this application, the interface elements include one or more of the following: preset symbols, release curves, consumption curves, and display positions.

[0070] Optionally, in some embodiments of this application, it may further include: In response to non-inhalation interaction triggered by the user, a preset screen is displayed in the interactive interface. The preset screen includes a preset curve or preset icon that reflects the trend of user experience changes in the target mode.

[0071] Optionally, in some embodiments of this application, it may further include: In response to a user-triggered mode switching operation, the system determines the new mode corresponding to the mode switching operation and updates the current heating parameters of the aerosol generating device according to the new mode.

[0072] The mode switching operation refers to the interactive operation that users actively trigger to change the heating mode of the aerosol generating equipment in order to adapt to their immediate needs during the use of the equipment, which is different from the mode selection operation before the first use.

[0073] For example, if the switching method of the aerosol generating device is cyclic switching, that is, trigger mode switching operation, then it switches from the target mode to a nearby working mode under the target mode, such as switching from the first mode to the second mode; if the switching method of the aerosol generating device is specified switching, then it switches from the target mode to the specified working mode, such as switching from the first mode to the specified third mode.

[0074] Subsequently, based on the switched mode, the heating parameters corresponding to the switched mode are retrieved. If the device is heating or in the process of suction, the current real-time heating temperature and power are used as a basis, and a gradient smooth adjustment is made according to the temperature-time curve of the switched mode. Specifically, the temperature is gradually increased from the constant 350℃ of the first mode to 400℃ according to the temperature rise curve of the second mode, rather than jumping instantaneously. Other core heating parameters such as real-time heating power and power adjustment range are updated simultaneously. After the heating parameters are updated, in order to allow users to clearly perceive the mode switching result, a multi-dimensional feedback mechanism can be triggered to complete the closed loop of the entire switching process. For example, the name and icon of the switched mode are displayed in the interactive interface, and elements related to heating parameters in the interface are initialized based on the switched mode, such as resetting the release curve coordinate axis, etc. In addition, if the device is in the process of suction when switching, the visualization elements related to the release of substances in the interactive interface are refreshed simultaneously, such as re-predicting the nicotine release trend and resetting the filling benchmark of the remaining nicotine display position, etc.

[0075] Optionally, in some embodiments of this application, it may further include: When the remaining amount of heated material is less than the preset value, a message indicating insufficient remaining amount will be displayed on the interactive interface.

[0076] This application provides an interface interaction method for an aerosol generating device. After displaying the interactive interface corresponding to the target mode, in response to the user-triggered inhalation operation, the interactive interface is dynamically changed based on the inhalation operation, the heating parameters of the aerosol generating device, and a preset physical model. In the interface interaction scheme provided by this application, when the user triggers an inhalation operation through the aerosol generating device, the interactive interface is controlled by combining the inhalation operation, the device's heating parameters, and the preset physical model. This eliminates the need to rely on chemical sensors, avoiding the response delay problem caused by sensors. At the same time, the interactive interface dynamically changes with the measurement results, which can intuitively present the nicotine release amount, aerosol generation dynamics, and subsequent release trends, allowing users to predict the inhalation amount and smoke amount and adjust the usage mode in advance. This solves the problems of single interaction mode and response delay in existing solutions.

[0077] It should be understood that, although Figure 1 The steps in the flowchart are shown sequentially as indicated by the arrows, but these steps are not necessarily executed in the order indicated by the arrows. Unless otherwise specified herein, there is no strict order in which these steps are executed, and they can be performed in other orders. Figure 1 At least some of the steps in the process may include multiple sub-steps or multiple stages. These sub-steps or stages are not necessarily executed at the same time, but may be executed at different times. The execution order of these sub-steps or stages is not necessarily sequential, but may be executed in turn or alternately with other steps or at least some of the sub-steps or stages of other steps. To facilitate better implementation of the interface interaction method for the aerosol generating device according to the embodiments of this application, this application also provides an interface interaction device based on the aforementioned aerosol generating device. The meanings of the terms used are the same as in the interface interaction method based on the aerosol generating device described above, and specific implementation details can be found in the descriptions within the method embodiments.

[0078] Please see Figure 9 , Figure 9 This is a schematic diagram of the interface interaction device for an aerosol generating device provided in an embodiment of this application. Specifically, the interface interaction device based on the aerosol generating device may include a display module 201 and a control module 202, as follows: Display module 201 is used to display the interactive interface corresponding to the target mode; The control module 202 is used to respond to the user-triggered inhalation operation and control the dynamic changes of the interactive interface according to the inhalation operation, the heating parameters of the aerosol generating device, and the preset physical model.

[0079] Optionally, in some embodiments of this application, the control module 202 may specifically include: The acquisition unit is used to acquire the inhalation parameters corresponding to the inhalation operation and the current heating parameters of the aerosol generating device; The prediction unit is used to predict the user experience information corresponding to the inhalation operation based on the inhalation parameters, the current heating parameters and the preset physical model, and to control the dynamic changes of the interactive interface based on the user experience information.

[0080] Optionally, in some embodiments of this application, the prediction unit may specifically include: The prediction subunit is used to predict the aerosol release information and nicotine release information corresponding to the inhalation operation based on the inhalation parameters, the current heating parameters and the preset physical model. The adjustment subunit is used to adjust the interface elements corresponding to the released substances in the interactive interface based on the aerosol release information and nicotine release information.

[0081] Optionally, in some embodiments of this application, the adjustment subunit may be specifically used for: Based on the inhalation duration corresponding to the inhalation operation, a correlation relationship is established between the aerosol release information and the nicotine release information; Based on the aforementioned relationship, adjust the interface elements corresponding to the released items in the interactive interface.

[0082] Optionally, in some embodiments of this application, the adjustment subunit may be specifically used for: Determine the preset total release amount of the target mode; Based on the aforementioned relationship and the preset total release amount, preset symbols are displayed sequentially on the interactive interface in a preset order.

[0083] Optionally, in some embodiments of this application, the adjustment subunit may be specifically used for: Based on the aforementioned correlation, the amount of nicotine released and the reaction progress of the heated substance are determined; Based on the aforementioned correlation, the inhalation duration and the reaction progress of the heated substance are displayed in the interactive interface as the corresponding release curve of the aerosol; Based on the inhalation duration and nicotine release amount, the corresponding nicotine release curve is displayed in the interactive interface.

[0084] Optionally, in some embodiments of this application, the adjustment subunit may be specifically used for: Based on the aforementioned correlation, determine the current cumulative release amount and current release rate of nicotine; Based on the current release rate and target mode, the nicotine consumption curve in the interactive interface is corrected; The remaining nicotine display space in the interactive interface is filled according to the ratio of the current cumulative release amount to the preset total nicotine release amount corresponding to the target mode.

[0085] Optionally, in some embodiments of this application, the interface elements include one or more of the following: preset symbols, release curves, consumption curves, and display positions.

[0086] Optionally, in some embodiments of this application, the display module 201 may also be used to: determine the target mode corresponding to the mode selection operation in response to a mode selection operation triggered by the user.

[0087] Optionally, in some embodiments of this application, the control module 202 may also be used to: in response to a mode switching operation triggered by a user, determine the mode after the mode switching operation, and update the current heating parameters of the aerosol generating device according to the mode after the mode switching.

[0088] Optionally, in some embodiments of this application, the control module 202 may also be used to: display a message indicating insufficient remaining quantity in the interactive interface when the remaining amount of the heated object is less than a preset value.

[0089] This application provides an interface interaction device for an aerosol generating device. After the display module 201 displays the interactive interface corresponding to the target mode, the interaction module 202 responds to the user-triggered inhalation operation. Based on the inhalation operation, the heating parameters of the aerosol generating device, and a preset physical model, the interaction module controls the dynamic changes of the interactive interface. In the interface interaction scheme provided by this application, when the user triggers an inhalation operation through the aerosol generating device, the interactive interface is controlled by combining the inhalation operation, the device's heating parameters, and the preset physical model. This eliminates the need for chemical sensors, avoiding the response delay problem caused by sensors. At the same time, the interactive interface dynamically changes with the measurement results, intuitively presenting the nicotine release amount, aerosol generation dynamics, and subsequent release trends. This allows users to predict the inhalation amount and smoke volume and adjust the usage mode in advance, solving the problems of single interaction modes and response delays in existing solutions. Please see Figure 10 As shown, in one embodiment, an aerosol generation system is provided, the system comprising: an aerosol generation device 2 and a target terminal 1, wherein the aerosol generation device 2 is communicatively connected to the target terminal 1; The aerosol generating device 2 is configured to implement the steps of the interface interaction method of any of the above-described aerosol generating devices.

[0090] The steps specifically include: Display the interactive interface corresponding to the target mode; In response to a user-triggered inhalation operation, the interactive interface is dynamically changed based on the inhalation operation, the heating parameters of the aerosol generating device, and a preset physical model.

[0091] In this embodiment, after displaying the interactive interface corresponding to the target mode, the interactive interface is dynamically changed in response to the user's inhalation operation, based on the inhalation operation, the heating parameters of the aerosol generating device, and the preset physical model. In the interface interaction scheme provided in this application embodiment, when the user triggers the inhalation operation through the aerosol generating device, the interactive interface is controlled by combining the inhalation operation, the device's heating parameters, and the preset physical model. This eliminates the need to rely on chemical sensors, avoiding the response delay problem caused by sensors. At the same time, the interactive interface changes dynamically with the measurement results, which can intuitively present the nicotine release amount, aerosol generation dynamics, and subsequent release trends, allowing users to predict the inhalation amount and smoke amount and adjust the usage mode in advance, solving the problems of single interaction mode and response delay in existing solutions.

[0092] In one embodiment, this application also provides an interactive interface for an aerosol generating device. The interactive interface displays the interface elements of the aerosol generating device in a target mode, and dynamically changes according to the interaction and a preset physical model in response to the interactive operation.

[0093] In one embodiment, the system further includes a cloud platform that is communicatively connected to the target device.

[0094] Please see Figure 11 As shown, in one embodiment, an aerosol generating device 2 is proposed, the aerosol generating device 2 including a controller 21 and an atomizing core 22, the controller 21 being used to control the atomizing core 22, the controller 21 being configured to implement the steps of the interface interaction method of any of the above-described aerosol generating devices.

[0095] The steps specifically include: Display the interactive interface corresponding to the target mode; In response to a user-triggered inhalation operation, the interactive interface is dynamically changed based on the inhalation operation, the heating parameters of the aerosol generating device, and a preset physical model.

[0096] In this embodiment, after displaying the interactive interface corresponding to the target mode, the interactive interface is dynamically changed in response to the user's inhalation operation, based on the inhalation operation, the heating parameters of the aerosol generating device, and the preset physical model. In the interface interaction scheme provided in this application embodiment, when the user triggers the inhalation operation through the aerosol generating device, the interactive interface is controlled by combining the inhalation operation, the device's heating parameters, and the preset physical model. This eliminates the need to rely on chemical sensors, avoiding the response delay problem caused by sensors. At the same time, the interactive interface changes dynamically with the measurement results, which can intuitively present the nicotine release amount, aerosol generation dynamics, and subsequent release trends, allowing users to predict the inhalation amount and smoke amount and adjust the usage mode in advance, solving the problems of single interaction mode and response delay in existing solutions.

[0097] In one embodiment, a computer-readable storage medium is provided that stores a computer program, which, when executed by a processor, implements the steps of the interface interaction method of any of the aerosol generating devices described above.

[0098] The steps specifically include: Display the interactive interface corresponding to the target mode; In response to a user-triggered inhalation operation, the interactive interface is dynamically changed based on the inhalation operation, the heating parameters of the aerosol generating device, and a preset physical model.

[0099] In this embodiment, after displaying the interactive interface corresponding to the target mode, the interactive interface is dynamically changed in response to the user's inhalation operation, based on the inhalation operation, the heating parameters of the aerosol generating device, and the preset physical model. In the interface interaction scheme provided in this application embodiment, when the user triggers the inhalation operation through the aerosol generating device, the interactive interface is controlled by combining the inhalation operation, the device's heating parameters, and the preset physical model. This eliminates the need to rely on chemical sensors, avoiding the response delay problem caused by sensors. At the same time, the interactive interface changes dynamically with the measurement results, which can intuitively present the nicotine release amount, aerosol generation dynamics, and subsequent release trends, allowing users to predict the inhalation amount and smoke amount and adjust the usage mode in advance, solving the problems of single interaction mode and response delay in existing solutions.

[0100] Those skilled in the art will clearly understand that, for the sake of convenience and brevity, the above-described division of functional units and modules is used as an example. In practical applications, the above functions can be assigned to different functional units and modules as needed, that is, the internal structure of the device can be divided into different functional units or modules to complete all or part of the functions described above.

[0101] The above-described embodiments are only used to illustrate the technical solutions of this application, and are not intended to limit them. Although this application has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this application, and should all be included within the protection scope of this application.

Claims

1. An interface interaction method of an aerosol generation device, characterized by, include: Display the interactive interface corresponding to the target mode; The interactive interface is dynamically changed based on the interactive operation and the preset physical model.

2. The interface interaction method of claim 1, wherein, The step of controlling the dynamic changes of the interactive interface based on interactive operations and a preset physical model includes: In response to a user-triggered inhalation operation, the interactive interface is dynamically changed based on the inhalation operation, the current heating parameters of the aerosol generating device, and a preset physical model.

3. The interface interaction method of claim 2, wherein, The response to a user-triggered inhalation operation, based on the inhalation operation, the current heating parameters of the aerosol generating device, and a preset physical model, controls the dynamic changes of the interactive interface, including: Obtain the inhalation parameters corresponding to the inhalation operation and the current heating parameters of the aerosol generating device; Based on the inhalation parameters, current heating parameters, and a preset physical model, predict the user experience information corresponding to the inhalation operation, and control the dynamic changes of the interactive interface based on the user experience information.

4. The interface interaction method of claim 3, wherein, The user experience information includes at least one of the following: physiological satisfaction indicators, harm reduction and substitution indicators, sensory experience indicators, behavioral management indicators, and efficacy indicators. The physiological satisfaction indicators include nicotine metabolism simulation degree and addiction relief degree. The harm reduction and substitution indicators include nicotine replacement amount, tar avoidance amount, or harmful substance exemption amount. The sensory experience indicators include particle size, smoke volume, and taste smoothness. The behavioral management indicators include usage habit score and addiction risk control prompts.

5. The interface interaction method of claim 3, wherein, The step of predicting user experience information corresponding to the inhalation operation based on the inhalation parameters, current heating parameters, and a preset physical model, and controlling the dynamic changes of the interactive interface based on the user experience information, includes: Based on the inhalation parameters, current heating parameters, and a preset physical model, predict the aerosol release information and nicotine release information corresponding to the inhalation operation; Based on the aerosol release information and nicotine release information, adjust the interface elements corresponding to the released substances in the interactive interface.

6. The interface interaction method of claim 5, wherein, The step of adjusting the interface elements corresponding to the released substances in the interactive interface based on the aerosol release information and nicotine release information includes: Based on the inhalation duration corresponding to the inhalation operation, a correlation relationship is established between the aerosol release information and the nicotine release information; Based on the aforementioned relationship, adjust the interface elements corresponding to the released items in the interactive interface.

7. The interface interaction method of claim 5, wherein, The step of adjusting the interface elements corresponding to the released item in the interactive interface based on the aforementioned association includes: Determine the preset total release amount of the target mode; Based on the aforementioned relationship and the preset total release amount, preset symbols are displayed sequentially on the interactive interface in a preset order.

8. The interface interaction method according to claim 5, characterized in that, The step of adjusting the interface elements corresponding to the released item in the interactive interface based on the aforementioned association includes: Based on the aforementioned correlation, the amount of nicotine released and the reaction progress of the heated substance are determined; Based on the aforementioned correlation, the inhalation duration and the reaction progress of the heated substance are displayed in the interactive interface as a corresponding aerosol release curve; Based on the inhalation duration and the nicotine release amount, the corresponding nicotine release curve is displayed in the interactive interface.

9. The interface interaction method according to claim 5, characterized in that, The step of adjusting the interface elements corresponding to the released item in the interactive interface based on the aforementioned association includes: Based on the aforementioned correlation, determine the current cumulative release amount and current release rate of nicotine; Based on the current release rate and target mode, the nicotine consumption curve in the interactive interface is corrected; The remaining nicotine display space in the interactive interface is filled according to the ratio of the current cumulative release amount to the preset total nicotine release amount corresponding to the target mode.

10. The interface interaction method according to claim 5, characterized in that, The interface elements include one or more of the following: preset symbols, release curves, consumption curves, and display positions.

11. The interface interaction method according to claim 2, characterized in that, Also includes: In response to a non-inhalation interactive operation triggered by the user, a preset screen is displayed in the interactive interface. The preset screen includes a preset curve or preset icon that reflects the trend of user experience changes in the target mode.

12. The interface interaction method according to claim 1, characterized in that, Before displaying the interactive interface corresponding to the target mode, the following is also included: In response to a user-triggered mode selection operation, the target mode corresponding to the mode selection operation is determined.

13. The interface interaction method according to claim 1, characterized in that, Also includes: In response to a user-triggered mode switching operation, the system determines the new mode corresponding to the mode switching operation and updates the current heating parameters of the aerosol generating device according to the new mode.

14. The interface interaction method according to claim 1, characterized in that, Also includes: When the remaining amount of heated material is less than a preset value, a message indicating insufficient remaining amount will be displayed on the interactive interface.

15. An interactive interface for an aerosol generating device, characterized in that, The interactive interface displays the interface elements of the aerosol generating device in the target mode, and dynamically changes in response to the interactive operation based on the interaction and the preset physical model.

16. An aerosol generation system, characterized in that, The system includes: an aerosol generating device and a target terminal, wherein the aerosol generating device is communicatively connected to the target terminal; The aerosol generating device is configured to implement the steps of the interface interaction method of the aerosol generating device as described in any one of claims 1 to 14.

17. An aerosol generating device, characterized in that, The aerosol generating device includes a controller and an atomizing core, the controller being used to control the atomizing core, and the controller being configured to implement the steps of the interface interaction method of the aerosol generating device as claimed in any one of claims 1 to 14.

18. A computer-readable storage medium, characterized in that, The computer-readable storage medium stores a computer program that, when executed by a processor, implements the steps of the interface interaction method of the aerosol generating device as described in any one of claims 1 to 14.

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