Atomization equipment and information processing method and information processing device thereof

Abstract

The invention provides atomization equipment and an information processing method and device thereof, and belongs to the technical field of electronic atomization. The information processing method comprises the steps that in response to a starting instruction of current suction, the working state of at least one of an atomization assembly and a power supply assembly and current working parameters of the atomization equipment are obtained, the current suction duration is obtained according to the working state and the current working parameters, and the remaining smokable information of the atomization equipment is obtained according to the preset total suction duration, the historical suction duration and the current suction duration, so that the current working parameters and the working state of the atomization assembly and / or the power supply assembly are associated with the current suction duration, and the remaining smokable information of the atomization equipment is obtained. The current smoking duration, the historical smoking duration and the preset total smoking duration can be conveniently processed, the remaining smokable information of the atomization equipment is obtained, the accuracy of the remaining smokable information obtained through processing of the atomization equipment is improved, and the information processing intelligence of the atomization equipment is improved.

Description

Technical Field

[0001] The present application relates to the field of electronic atomization technology, and in particular to an atomization device and an information processing method and an information processing device thereof. Background Art

[0002] The atomization device usually includes a power supply component, an atomization component and an aerosol generating substrate. During the use of the atomization device, the power supply component provides electrical energy, and the aerosol generating substrate is heated and atomized by the atomization component to obtain an aerosol for the user to inhale.

[0003] During the use of the atomization device of the related technology, it is difficult for the user to intuitively identify the consumption of the aerosol generating matrix loaded inside the atomization device due to the structure of the atomization device itself, so that the user cannot understand the remaining inhalation time of the atomization device in real time, and thus cannot replenish the aerosol generating matrix into the atomization device in time. Therefore, the current atomization device is not intelligent enough in terms of information processing. Summary of the invention

[0004] The present application provides an atomization device and an information processing method and an information processing device thereof, aiming to improve the intelligence of information processing of the atomization device.

[0005] In a first aspect, the present application provides an information processing method for an atomization device, wherein the atomization device comprises an atomization component and a power supply component electrically connected to the atomization component, and the information processing method comprises the following steps:

[0006] In response to a start instruction for a current puff, obtaining a working state of at least one of the atomization assembly and the power supply assembly and a current working parameter of the atomization device;

[0007] Obtaining the current puffing duration according to the working state and the current working parameters;

[0008] Obtaining the historical puffing time of the atomizing device and the preset total puffing time of the atomizing device;

[0009] The remaining puffable information of the atomizing device is obtained according to the preset total puffing time, the historical puffing time and the current puffing time.

[0010] In a second aspect, the present application further provides an information processing device for an atomization device, the information processing device comprising:

[0011] A storage module, used to store the historical puffing time of the atomizing device and the preset total puffing time of the atomizing device;

[0012] A start instruction output module, which outputs a start instruction in response to the current puff;

[0013] A current working parameter acquisition module, used to acquire the current working parameters of the atomization device according to the startup instruction;

[0014] A working status acquisition module, used for acquiring the working status of at least one of the atomizing component of the atomizing device and the power supply component of the atomizing device according to the startup instruction;

[0015] A current puff duration acquisition module, used to obtain the current puff duration according to the working state and the current working parameters;

[0016] The remaining puffable information acquisition module is used to acquire the historical puffing time and the preset total puffing time, and obtain the remaining puffable information of the atomizing device according to the historical puffing time, the preset total puffing time and the current puffing time.

[0017] In a third aspect, the present application also provides an atomization device, comprising:

[0018] Atomization components;

[0019] A power supply assembly electrically connected to the atomization assembly;

[0020] A control component electrically connected to the power supply component, wherein the control component is used to execute the information processing method provided in the present application.

[0021] In the information processing method of the atomization device provided in the present application, based on the startup instruction, the working state of at least one of the atomization component and the power supply component and the current working parameters of the atomization device are obtained, and the current puff duration of the current puff is obtained according to the working state and the current working parameters, and then the remaining puffable information of the atomization device is obtained according to the current puff duration, the preset total puff duration and the historical puff duration, so as to associate the working parameters of the atomization device, the working state of the atomization component and / or the power supply component with the current puff duration when the user is currently puffing, and on the basis of quantifying the total amount of aerosol-generated matrix of the atomization device as the preset total puff duration, it is convenient to process the current puff duration, the historical puff duration and the preset total puff duration and obtain the remaining puffable information of the atomization device, thereby improving the accuracy of the remaining puffable information processed by the atomization device, and further improving the intelligent information processing of the atomization device. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 A schematic diagram of the steps of an information processing method provided by an embodiment of the present application;

[0023] Figure 2 A schematic diagram of the steps of an information processing method provided by another embodiment of the present application;

[0024] Figure 3 for Figure 2 A specific step schematic diagram of step S21 is shown;

[0025] Figure 4 for Figure 2 Another specific step schematic diagram of step S21 is shown;

[0026] Figure 5 for Figure 2 Another specific step schematic diagram of step S21 is shown;

[0027] Figure 6 for Figure 2 A specific step schematic diagram of step S22 is shown;

[0028] Figure 7 A schematic diagram of the steps of an information processing method provided in yet another embodiment of the present application;

[0029] Figure 8 A schematic diagram of the steps of an information processing method provided in yet another embodiment of the present application;

[0030] Fig. 9 A block diagram of an information processing device provided by an embodiment of the present application;

[0031] Fig.10 A block diagram of an atomization device provided for one embodiment of the present application. DETAILED DESCRIPTION

[0032] The technical solutions in the embodiments of the present application will be described below in conjunction with the accompanying drawings in the embodiments of the present application. The described embodiments are only used to explain the ideas created by the present invention and should not be regarded as limiting the scope of protection of the present application.

[0033] In the first aspect of the present application, an information processing method of an atomization device is provided. The atomization device includes an atomization component and a power supply component electrically connected to the atomization component, the power supply component is used to provide electric energy to the electric device of the atomization device (such as the atomization component), and the atomization component can be in a working state after receiving the electric energy, and the atomization component in the working state can heat and atomize the aerosol generation matrix to obtain the aerosol generation matrix.

[0034] like Figure 1 As shown, the information processing method 100 provided in the present application includes step S10, step S20, step S30 and step S40:

[0035] Step S10, in response to the start instruction of the current puff, obtaining the working state of at least one of the atomization assembly and the power supply assembly and the current working parameters of the atomization device.

[0036] In this step, the start instruction is triggered by the user's puffing action on the atomizing device, that is, each time the user puffs on the atomizing device, a start instruction is generated.

[0037] In this step, based on a received start-up instruction, the working state of at least one of the atomizing component and the power supply component and the current working parameters of the atomizing device are obtained. That is, each time the user takes a puff of the atomizing device, the working state of at least one of the atomizing component and the power supply component and the current working parameters of the atomizing device are obtained.

[0038] Among them, the current working parameters of the atomization device refer to the working parameters of the atomization device at the starting time when the atomization device receives the start instruction of the current puff or within a preset time period after the atomization device receives the start instruction (the end time of this preset time period is before the starting time of receiving another start instruction).

[0039] In this step, the working state of the atomizer assembly refers to the normal working state of the atomizer assembly or the abnormal working state of the atomizer assembly. The working state of the power supply assembly refers to the normal working state of the atomizer assembly or the abnormal working state of the atomizer assembly.

[0040] Step S20, obtaining the current puff duration according to the working state and the current working parameters.

[0041] In this step, the current puff duration refers to the duration corresponding to the user taking a puff of the atomizing device. In this embodiment, the current puff duration is not determined based on the actual duration of the user taking the current puff, but is determined based on the working state of at least one of the atomizing component and the power supply component and the current working parameters of the atomizing device.

[0042] Among them, Figure 2 As shown, in some embodiments provided in the present application, step S20 specifically includes step S21 and step S22:

[0043] Step S21, obtaining the unit puffing time under the current working parameters.

[0044] Among them, in this step S21, the unit puff duration refers to the puff duration corresponding to a puff taken by the user using the atomizer device with the current working parameters. Therefore, there is a one-to-one mapping relationship between the unit puff duration and the current working parameters. If the working parameters corresponding to the two puffs are different, the puff durations of the two puffs are different.

[0045] Specifically, if Figure 3 As shown, in some embodiments provided in the present application, step S21 further specifically includes step S211, step S212 and step S213:

[0046] Step S211, obtaining a target suction coefficient according to current working parameters.

[0047] In this step S211, if the current working parameter is different from the previous working parameter, then the target suction coefficient corresponding to the current working parameter is different from the target suction coefficient corresponding to the previous working parameter. Specifically, each working parameter has a target suction coefficient mapped thereto, so each working parameter and the target suction coefficient mapped thereto can be stored in advance, so that when the atomizing device is in working state, the target suction coefficient mapped to the current working parameter can be directly obtained.

[0048] Specifically, in some embodiments provided in the present application, the current operating parameters of the atomization device include the current remaining power of the power supply component. Figure 4 As shown, step S211 is specifically as follows:

[0049] Step S211a, obtaining a target suction coefficient according to the current remaining power.

[0050] The current remaining power belongs to one of a plurality of preset power intervals, and each preset power interval has a matching target suction coefficient. It is worth mentioning that there is no intersection between any two preset power intervals. Two adjacent preset power intervals increase or decrease in sequence.

[0051] It is worth mentioning that the current remaining power refers to the remaining power of the power supply component at the starting time when the atomization device receives the start instruction for the current puff or within a preset time period after the atomization device receives the start instruction (the end time of this preset time period is before the starting time of receiving another start instruction).

[0052] For example, when the remaining power of the power supply component is in the power interval of greater than 3.8 volts (V) and less than or equal to 3.9V (hereinafter referred to as [3.8, 3.9]), the power supply component loses power relatively slowly because it is in the power supply working state. When the remaining power of the power supply component is in the power interval of greater than or equal to 3.5V and less than 3.6V (hereinafter referred to as [3.5, 3.6)), the power supply component loses power relatively quickly because it is in the power supply working state.

[0053] Assume that during the time period when the remaining power of the power supply component belongs to the power range of [3.8, 3.9] (first time period), the amount of aerosol atomized by the atomization component is a first volume, and during the time period when the remaining power of the power supply component belongs to the power range of [3.5, 3.6) (second time period), the amount of aerosol atomized by the atomization component is a second volume, then, since the first time period is longer than the second time period, the first volume is greater than the second volume.

[0054] When the volume of aerosol inhaled from the atomization device for each puff taken by the user is a constant, the first volume can be quantified as the first number of puffs available for the user, and the second volume can be quantified as the second number of puffs available for the user, so that the puff duration corresponding to a puff taken in the first time period can be calculated based on the first time period and the first number of puffs, and similarly, the puff duration corresponding to a puff taken in the second time period can be calculated based on the second time period and the second number of puffs, and further, the target puff coefficient mapped to each time period can be calculated based on the puff duration corresponding to a puff taken in each time period and a pre-set reference duration. In other words, each power interval of the power supply component is mapped to a time period, and each time period is mapped to a target puff coefficient, so that each power interval of the power supply component is mapped to a target puff coefficient.

[0055] Therefore, before the atomizer device leaves the factory, each power interval and the target suction coefficient mapped to each power interval can be stored, so that when executing step S211a, the target suction coefficient mapped to the current remaining power can be directly obtained according to the current remaining power of the power supply component.

[0056] In some other embodiments provided in the present application, the current working parameters include the current remaining power of the power supply component and the current heating mode of the atomizer component, such as Figure 5 As shown, step S211 specifically includes step S2111, step S2112 and step S2113:

[0057] Step S2111, obtaining a first suction coefficient according to the current heating mode.

[0058] The current heating mode is one of a plurality of preset heating modes of the atomization assembly, and each preset heating mode has a matching first suction coefficient.

[0059] The number of preset heating modes matches the number of heating elements of the atomization assembly. For example, the atomization assembly includes four independently controllable heating elements. Accordingly, there are four preset heating modes. Specifically, the four preset heating modes are a single-shot mode (only one heating element is used for heating and atomization), a double-shot mode (two heating elements are used for heating and atomization), a triple-shot mode (three heating elements are used for heating and atomization), and a quad-shot mode (four heating elements are used for heating and atomization).

[0060] On the premise that the total power of the power supply component is constant, since the power supply component needs to drive two heating elements to work in the double-shot mode, the power consumption of the double-shot mode is greater than that of the single-shot mode, and the aerosol generated by atomizing and heating the aerosol generating matrix in the double-shot mode is also greater than that of the aerosol generated by atomizing and heating the aerosol generating matrix in the single-shot mode. Similarly, the power consumption of the three-shot mode is greater than that of the double-shot mode, and the aerosol generated by atomizing and heating the aerosol generating matrix in the three-shot mode is also greater than that of the aerosol generated by atomizing and heating the aerosol generating matrix in the single-shot mode.

[0061] Assuming that in the single-shot mode, it takes 850 seconds for the power supply component to go from 100% power to zero power, and in the double-shot mode, it takes 500 seconds for the power supply component to go from 100% power to zero power. According to the law of conservation of energy, it can be calculated that the power of the double-shot mode is 1.7 times the power of the single-shot mode (850 / 500=1.7). Therefore, in unit time, the aerosol generated by the double-shot mode is 1.7 times the aerosol generated by the single-shot mode. Therefore, when the duration of a puff is a constant, assuming that it takes 2 seconds to puff, the amount of aerosol puffed in 2 seconds in the double-shot mode is equal to the amount of aerosol puffed in 3.4 seconds in the single-shot mode. Therefore, the duration of the current puff corresponding to a puff in the double-shot mode is equal to 1.7 times the duration of the current puff corresponding to a puff in the single-shot mode.

[0062] Exemplarily, with the single-engine mode as the reference mode, the ratio of the power of the dual-engine mode to the power of the single-engine mode may be assigned as the first suction coefficient corresponding to the dual-engine mode. Similarly, the ratio of the power of the three-engine mode to the power of the single-engine mode may be assigned as the first suction coefficient corresponding to the three-engine mode, the ratio of the power of the four-engine mode to the power of the single-engine mode may be assigned as the first suction coefficient corresponding to the four-engine mode, and the ratio of the power of the single-engine mode to the power of the single-engine mode may be assigned as the first suction coefficient corresponding to the single-engine mode.

[0063] Before the atomization device leaves the factory, each preset heating mode and the first suction coefficient matching each preset heating mode can be stored in the atomization device, so that the atomization device can directly obtain the first suction coefficient matching the current heating mode according to the current heating mode when executing step S2111.

[0064] Step S2112, obtaining a second suction coefficient according to the current remaining power.

[0065] The current remaining power belongs to one of a plurality of preset power intervals of the power supply component, and each preset power interval has a matching second suction coefficient.

[0066] The principle of step S2112 of this embodiment is the same as the principle of step S211a of the aforementioned embodiment, and will not be described in detail here.

[0067] Step S2113, obtaining a target suction coefficient according to the first suction coefficient and the second suction coefficient.

[0068] Based on step S2113, it can be known that, compared with the previous embodiment, in this embodiment, the target puff coefficient is not only related to the current remaining power but also to the current heating mode. In this way, it is convenient for subsequent steps to flexibly calculate the remaining puffable information of the atomizer device according to the current heating mode selected by the user before each puff and the current remaining power.

[0069] Please continue reading Figures 3 to 5 , step S21 further includes:

[0070] Step S212, obtaining a preset reference puffing time.

[0071] In this step S212, the reference puff time is stored in the atomizing device by the user before using the atomizing device. Regardless of whether the working parameters of the atomizing device are the same during any two puffs, the reference puff time needs to be determined each time the unit puff time is calculated, that is, in this embodiment, the reference puff time is a fixed value and is not affected by any working parameters or any working state of the atomizing device.

[0072] Step S213, obtaining a unit puff duration according to the reference puff duration and the target puff coefficient.

[0073] In step S213, since the puff time parameter is a fixed value, the unit puff time is positively correlated with the current working parameter. In other words, the specific value of the unit puff time actually depends on the specific value of the current working parameter of the atomizing device.

[0074] Exemplarily, in some embodiments provided in the present application, step S213 is specifically as follows: obtaining a unit puff duration according to a first preset relationship, a reference puff duration and a target puff coefficient.

[0075] Among them, the first preset formula is:

[0076] T 单位_a =T 参考 ×V a (1);

[0077] In the first preset relationship (1), T 单位_a is the unit suction time, T 参考 is the reference suction time, V a is the target suction coefficient.

[0078] Please continue reading Figure 2 , after step S21, step S20 further includes:

[0079] Step S22, obtaining the current puff duration according to the working state and the unit puff duration.

[0080] Based on this step S22, it can be known that in this embodiment, the duration of the current puff is not only related to the unit puff duration, but also to the working state of the atomizer component and / or the working state of the power supply component. That is to say, even if the working parameters of the atomizer device are the same when the user takes two puffs, since the working states of the atomizer component and / or the working states of the power supply component are different, there is a difference between the puff duration corresponding to the previous puff and the current puff duration.

[0081] Specifically, in some embodiments provided in this application, Figure 6 As shown, step S22 specifically includes:

[0082] Step S221, determining whether the working state is abnormal during the current puffing period.

[0083] The current puff period is a period after the start time point of the current puff and before the end time point of the current puff.

[0084] Generally speaking, atomizing devices are provided with a sensor device for detecting the user's puffing action, such as a microphone, which can detect the start and end time of the user's puff.

[0085] It is worth mentioning that in some embodiments, only whether the working state of the atomization component is abnormal is determined, while in other embodiments, only whether the working state of the power supply component is abnormal is determined, and in yet other embodiments, both whether the working state of the atomization component is abnormal and whether the working state of the power supply component is abnormal are determined.

[0086] Exemplarily, if a short circuit or short-circuit is detected in the atomizer assembly, the working state of the atomizer assembly is determined to be abnormal, otherwise, the working state of the atomizer assembly is normal.

[0087] Exemplarily, if a short circuit, open circuit or undervoltage is detected in the power supply component, the working state of the power supply component is determined to be abnormal; otherwise, the working state of the power supply component is normal.

[0088] When the working status is normal, then:

[0089] Step S222, obtaining a preset first weighting coefficient.

[0090] In this step S222, the first weighting coefficient is related to whether the atomizing component and / or the power supply component is operating normally. The first weighting coefficient can be set according to actual needs.

[0091] Step S223, obtaining the current puff duration according to the first weighted coefficient and the unit puff duration.

[0092] Specifically, step S223 includes:

[0093] Step S223a, obtaining the current puff duration according to the second preset relationship, the first weighting coefficient and the unit puff duration.

[0094] Among them, the second preset relationship is:

[0095] T 当前 =T 单位_a ×V b (2);

[0096] In the second preset relationship (2), T 当前 is the duration of the current puff, T 单位_a is the unit suction time, V b is the first weighting coefficient.

[0097] Generally speaking, the first weighting coefficient is 1, that is, when the atomizer assembly and / or the power supply assembly are both in normal working state, based on the second preset relationship (2), it can be known that the unit puff duration is the current puff duration.

[0098] When the working state is abnormal, step S22 further includes:

[0099] Step S224, obtaining the start time point of the abnormality and the start time point of the current puff.

[0100] The start time of the abnormality is earlier than the end time of the current puff. If the start time of the abnormality is not earlier than the end time of the current puff, the atomization device and / or the power supply device is working normally during the current puff.

[0101] Step S225, the actual puff duration is obtained according to the start time point of the abnormality and the start time point of the current puff. Specifically, the start time point of the abnormality minus the start time point of the current puff equals the actual puff duration.

[0102] Step S226, assigning the actual puff duration as the current puff duration.

[0103] Based on this step S226, it can be known that if during the current puff, at least one of the atomizer component and the power supply component is abnormal, the calculation of the current puff duration is not related to the unit puff duration, but is directly calculated and obtained based on the starting time point of the current puff detected by the sensor device (such as a microphone) and the starting time point when at least one of the atomizer component and the power supply component is abnormal.

[0104] See also Figure 1 After step S20, the information processing method 100 further includes: step S30, obtaining the historical puffing time of the atomizing device and the preset total puffing time of the atomizing device.

[0105] In this step, the historical puff duration refers to the sum of the puff durations from the 1st puff to the n-1th puff before the current puff (assuming that the current puff is the nth puff). The puff duration of the first puff is the puff duration of a user taking a puff when the atomizer is fully loaded with aerosol generating matrix. It is worth mentioning that if the current puff is the first puff, the historical puff duration is zero.

[0106] In this step, the preset total puffing time is the total puffing time that has been preset on the atomizing device by the user before using the atomizing device. The preset total puffing time represents the time required for the aerosol generation base mass in the atomizing device to go from full to zero.

[0107] Due to the influence of the structural design of the atomizing device, different types of atomizing devices contain different amounts of aerosol-generating substrates, and the amounts of atomized aerosol-generating substrates per unit time are also different. Therefore, this application does not impose any restrictions on the specific value of the preset total puffing time, which can be set according to actual needs.

[0108] Step S40, obtaining the remaining puffable information of the atomizing device according to the preset total puffing time, the historical puffing time and the current puffing time.

[0109] In this way, based on Figure 1 Steps S10, S20, S30 and S40 are shown, so as to obtain the current puff duration according to the current working parameters of the atomizer device, the working state of at least one of the atomizer component and the power supply component when the user is puffing for the current time, and then obtain the current puff duration according to the preset puff duration, the historical puff duration and the current puff duration.

[0110] Specifically, in some embodiments provided in the present application, the remaining puffable information includes at least one of the remaining puffable time, the remaining puffable number, or the remaining puffable percentage, so that Figure 7 As shown, this step S40 may specifically include:

[0111] Step S40a, obtaining the remaining puffing time according to the preset total puffing time, the historical puffing time and the current puffing time.

[0112] Specifically, the remaining puffable time is obtained according to the third preset relationship, the preset total puffing time, the historical puffing time and the current puffing time.

[0113] The third preset relationship is:

[0114] T 剩余 =T 预设总 -T 历史 -T 当前 (3);

[0115] In the third preset relation (3), T 剩余 is the remaining time for inhalation, T 预设总 is the preset total puffing time, Thistory is the historical puffing time, and Tcurrent is the current puffing time.

[0116] In some other embodiments provided in the present application, step S40 may also include:

[0117] Step S41, obtaining the remaining puffing time according to the preset total puffing time, the historical puffing time and the current puffing time.

[0118] The step S41 of this embodiment is similar to the step S40a of the above embodiment, that is, in this step S41, the remaining inhalable time can also be calculated based on the third preset relationship (3).

[0119] Step S42, based on the remaining puffable time and the mapping relationship between the preset total puffing time and the total amount of aerosol generating substrate, determine the remaining puffable grid number or the remaining puffable percentage.

[0120] Specifically, the remaining percentage of inhalable air is obtained according to the fourth preset relationship. The fourth preset relationship is:

[0121] Remaining % = (T 剩余 / T 预设总 )×100%(4);

[0122] In the fourth preset relational expression (4), the remaining % is the remaining percentage of the pumpable portion, T 剩余 is the remaining time for inhalation, T 预设总 The total duration of the preset puffing.

[0123] Specifically, the remaining number of inhalable grids is associated with the remaining inhalable time, the remaining number of inhalable grids is less than or equal to the total number of inhalable grids, and the total number of inhalable grids is preset.

[0124] For example, assuming that the preset total puffing time is 3600 seconds and the total number of remaining puffable grids is 6, then, when the specific value of the remaining puffable time is less than or equal to 3600 seconds and greater than 3000 seconds, all 6 remaining puffable grids are illuminated; when the specific value of the remaining puffable time is less than or equal to 3000 seconds and greater than 2400 seconds, 5 remaining puffable grids are illuminated and 1 remaining puffable grid is not illuminated; when the specific value of the remaining puffable time is less than or equal to 2400 seconds and greater than 1800 seconds, 4 remaining puffable grids are illuminated. When the specific value of the remaining inhalable time is less than or equal to 1800 seconds and greater than 1200 seconds, 3 remaining inhalable grids are illuminated, and 3 remaining inhalable grids are not illuminated; when the specific value of the remaining inhalable time is less than or equal to 1200 seconds and greater than 600 seconds, 2 remaining inhalable grids are illuminated, and 4 remaining inhalable grids are not illuminated; when the specific value of the remaining inhalable time is less than or equal to 600 seconds and greater than 0 seconds, 1 remaining inhalable grid is illuminated, and 5 remaining inhalable grids are not illuminated.

[0125] Furthermore, in some embodiments provided in the present application, the atomization device further includes a display component electrically connected to the power supply component, and the display component is used to display specific information so that the user can intuitively understand the specific information of the atomization device. Figure 7 or Figure 8 As shown, after step S40a or step S42, the information processing method further includes: step S50, controlling the display component to display prompt information matching the remaining inhalable information.

[0126] The display component may be a display screen provided on the atomizing device, and the display screen may include a plurality of display lamps, for example, a digital display lamp for displaying the remaining puffable percentage, and / or a remaining puffable grid number for displaying the remaining puffable time, etc. The larger the value of the remaining puffable percentage displayed, the longer the remaining puffable time is, and the larger the number of remaining puffable grid numbers displayed, the longer the remaining puffable time is.

[0127] Specifically, after the atomization device obtains the remaining inhalable time, the remaining inhalable information can be displayed in digital form on the display component. For example, if the remaining inhalable percentage that matches the remaining inhalable time is 66%, the number "66" and the percentage sign "%" are displayed in the first display area of ​​the display component. For example, if the number of remaining inhalable grids that matches the remaining inhalable time is 4 grids, the 4 remaining luminous grids that can be inhaled are displayed in the second display area of ​​the display component. For example, if the remaining inhalable percentage that matches the remaining inhalable time of 2376 seconds is 66%, the number "66" and the percentage sign "%" are displayed in the first display area of ​​the display component, and the 4 remaining luminous grids that match the remaining inhalable time of 2376 seconds are displayed in the second display area of ​​the display component.

[0128] It is worth mentioning that the specific range of the remaining percentage of smokeable liquid displayed by the display component is 0% to 100%, and in some embodiments, it is displayed in 1% steps, and in other embodiments, it is displayed in 0.5% steps.

[0129] In the information processing method provided in this embodiment, based on the setting of step S50, the user can understand the remaining inhalable aerosol generating matrix in the atomization device by displaying the remaining inhalable information representing the remaining inhalable time on the display component of the identification machine during the use of the atomization device. On the basis of improving the intelligence level of the atomization device in calculating the remaining inhalable aerosol amount according to the number of puffs of the user (i.e., information processing), the intelligence level of information display of the atomization device is further improved.

[0130] Further, in some embodiments provided in this application, please continue to refer to Figure 8 When the remaining puffable time is less than or equal to the preset time threshold, the information processing method further includes:

[0131] Step S60: After the end point of each inhalation, the display component is controlled to display a prompt message for replacing the aerosol generating substrate.

[0132] In some embodiments provided in this application, please continue to refer to Figure 8 , when the number of remaining smokeable grids is less than or equal to the preset grid number threshold, the information processing method further includes:

[0133] Step S60: After the end point of each inhalation, the display component is controlled to display a prompt message for replacing the aerosol generating substrate.

[0134] The preset grid number threshold can be set according to actual needs, and this application does not limit it. For example, the total number of remaining inhalable grids is 6, and the preset grid number threshold is set to 1. Then, when the remaining number of inhalable grids is less than or equal to 1, the display component will display a prompt message for replacing the aerosol generating substrate every time the user takes a puff.

[0135] In some embodiments, the replacement prompt information refers to the display component displaying a pattern in the display area indicating that the aerosol generating substrate is about to be exhausted. In other embodiments, the replacement prompt information refers to one remaining inhalable grid flashing continuously for a set number of times.

[0136] In some embodiments of the present application, please continue to refer to Figure 8 , when the remaining inhalable percentage is less than or equal to the preset percentage, the information processing method further includes:

[0137] Step S60: After the end point of each inhalation, the display component is controlled to display a prompt message for replacing the aerosol generating substrate.

[0138] The preset percentage can be set according to actual needs, and this application is not limited. For example, if the preset percentage is 20%, then when the remaining inhalable percentage is less than or equal to 20%, the display component will display a prompt message for replacing the aerosol generating substrate every time the user takes a puff.

[0139] It is worth mentioning that in step S60 provided in any embodiment of the present application, the “end time of each puff” is detected in real time by a sensor device (such as a microphone) of the atomization device.

[0140] In some embodiments, the replacement reminder information refers to the display component displaying a pattern in the display area indicating that the aerosol generating substrate is about to be exhausted. In other embodiments, the replacement reminder information refers to the remaining puffable percentage flashing continuously for a set number of times.

[0141] This helps the user to notice that the aerosol generating matrix remaining in the atomizing device is insufficient, so that the user can prepare to refill the aerosol generating matrix in time.

[0142] In a second aspect of the present application, there is also provided an information processing device for an atomization device, such as Fig. 9 As shown, the information processing device 200 includes a storage module 201, a start instruction output module 202, a current working parameter acquisition module 203, a working state acquisition module 204, a current puff duration acquisition module 205 and a remaining puffable information acquisition module 206.

[0143] The storage module 201 is used to store the historical puffing duration of the atomizing device and the preset total puffing duration of the atomizing device.

[0144] The activation command output module 202 outputs an activation command in response to the current puff.

[0145] The current working parameter acquisition module 203 is used to acquire the current working parameters of the atomization device according to the start-up instruction.

[0146] The working state acquisition module 204 is used to acquire the working state of at least one of the atomization component of the atomization device and the power supply component of the atomization device according to the start-up instruction.

[0147] The current puff duration acquisition module 205 is used to obtain the current puff duration according to the working state and current working parameters.

[0148] Specifically, the current puff duration acquisition module 205 is used to acquire the unit puff duration under the current working parameters, and obtain the current puff duration according to the working state and the unit puff duration of at least one of the atomizing component and the power supply component.

[0149] Specifically, the current puff duration acquisition module 205 is used to obtain a target puff coefficient according to current working parameters, obtain a preset reference puff duration, and obtain a unit puff duration according to the target puff coefficient and the reference puff duration.

[0150] The remaining puffable information acquisition module 206 is used to acquire the historical puffing time and the preset total puffing time, and obtain the remaining puffable information of the atomizing device according to the historical puffing time, the preset total puffing time and the current puffing time.

[0151] In the information processing device provided in the present embodiment, the remaining puffable information of the atomizing device is obtained based on the number of puffs of the atomizing device by the user, the working status of at least one of the power supply component and the atomizing component of the atomizing device, and the current working parameters of the atomizing device, so that the information processing device provided in the present embodiment obtains the remaining puffable information more timely and accurately.

[0152] The third aspect of the present application also provides an atomization device, such as Fig.10 As shown, the atomization device 300 includes an atomization component 301, a power supply component 302 and a control component 303. The power supply component 302 is electrically connected to the atomization component 301 and the control component 303 respectively, and the control component 303 is used to execute the information processing method provided by any embodiment of the present application.

[0153] Of course, the present application may have many other embodiments. Without departing from the spirit and essential points of the present application, technicians familiar with the field may make various corresponding changes and modifications based on the present application, but these corresponding changes and modifications should all fall within the scope of protection of the claims attached to the present application.

Claims

1. An information processing method for an atomization device, characterized in that: The atomization device includes an atomization component and a power supply component electrically connected to the atomization component, and the information processing method includes the following steps: In response to a start instruction for a current puff, obtaining a working state of at least one of the atomization assembly and the power supply assembly and a current working parameter of the atomization device; Obtaining the current puffing duration according to the working state and the current working parameters; Obtaining the historical puffing time of the atomizing device and the preset total puffing time of the atomizing device; The remaining puffable information of the atomizing device is obtained according to the preset total puffing time, the historical puffing time and the current puffing time.

2. The information processing method according to claim 1, characterized in that: The step of obtaining the current puff duration according to the working state and the current working parameters comprises: Obtaining a unit suction time under the current working parameters; The current puff duration is obtained according to the working state and the unit puff duration.

3. The information processing method according to claim 2, characterized in that: The step of obtaining the unit puffing time under the current working parameters comprises: Obtaining a target suction coefficient according to the current working parameters; Obtaining a preset reference suction time; The unit puff duration is obtained according to the reference puff duration and the target puff coefficient.

4. The information processing method according to claim 3, characterized in that: The current working parameters include the current remaining power of the power supply component, and the step of obtaining the target suction coefficient according to the current working parameters includes: Acquire the target suction coefficient according to the current remaining power, wherein the current remaining power belongs to one of a plurality of preset power intervals of the power supply component, and each of the preset power intervals has a matching target suction coefficient; Alternatively, the current operating parameters include the current remaining power of the power supply component and the current heating mode of the atomizer component, and the step of obtaining the target suction coefficient according to the current operating parameters includes: Acquire a first suction coefficient according to the current heating mode, wherein the current heating mode is one of a plurality of preset heating modes of the atomization assembly, and each of the preset heating modes has a matching first suction coefficient; Acquire a second suction coefficient according to the current remaining power, wherein the current remaining power belongs to one of a plurality of preset power intervals of the power supply component, and each of the preset power intervals has a matching second suction coefficient; The target suction coefficient is obtained according to the first suction coefficient and the second suction coefficient.

5. The information processing method according to claim 2, characterized in that: The step of obtaining the current puff duration according to the working state and the unit puff duration comprises: Determining whether the working state is abnormal during the current puff period, wherein the current puff period is a period after the start time point of the current puff and before the end time point of the current puff; If not, obtaining a preset first weighting coefficient; The current puff duration is obtained according to the first weighting coefficient and the unit puff duration.

6. The information processing method according to claim 5, characterized in that: The step of obtaining the current puff duration according to the working state and the unit puff duration also includes: If yes, then obtaining the starting time point of the abnormality and the starting time point of the current puff; Obtaining the actual puffing duration according to the starting time point of the abnormality and the starting time point of the current puffing; The actual puff duration is assigned as the current puff duration.

7. The information processing method according to claim 1, characterized in that: The remaining inhalable information includes at least one of the remaining inhalable time, the remaining inhalable grid number or the remaining inhalable percentage, and the step of obtaining the remaining inhalable information of the atomizing device according to the preset total inhalation time, the historical inhalation time and the current inhalation time includes any one of the following: The first method is to obtain the remaining puffing time according to the preset total puffing time, the historical puffing time and the current puffing time; The second method is to obtain the remaining puffing time according to the preset total puffing time, the historical puffing time and the current puffing time; The remaining number of inhalable grids or the remaining inhalable percentage is determined based on the remaining inhalable time and the mapping relationship between the preset total inhalation time and the total amount of aerosol generating substrate.

8. The information processing method according to claim 7, characterized in that: The atomization device further includes a display component electrically connected to the power supply component, and the information processing method further includes: The display component is controlled to display prompt information matching the remaining inhalable information.

9. The information processing method according to claim 8, characterized in that: When the remaining puffable time is less than or equal to a preset time threshold, or when the remaining puffable grid number is less than or equal to a preset grid number threshold, or when the remaining puffable percentage is less than or equal to a preset percentage, the information processing method further includes: After the end point of each inhalation, the display component is controlled to display a reminder message for replacing the aerosol generating substrate.

10. An information processing device for atomization equipment, characterized in that: The information processing device comprises: A storage module, used to store the historical puffing time of the atomizing device and the preset total puffing time of the atomizing device; A start instruction output module, which outputs a start instruction in response to the current puff; A current working parameter acquisition module, used to acquire the current working parameters of the atomization device according to the startup instruction; A working status acquisition module, used for acquiring the working status of at least one of the atomizing component of the atomizing device and the power supply component of the atomizing device according to the startup instruction; A current puff duration acquisition module, used to obtain the current puff duration according to the working state and the current working parameters; The remaining puffable information acquisition module is used to acquire the historical puffing time and the preset total puffing time, and obtain the remaining puffable information of the atomizing device according to the historical puffing time, the preset total puffing time and the current puffing time.

11. An atomization device, characterized in that: include: Atomization components; A power supply assembly electrically connected to the atomization assembly; A control component electrically connected to the power supply component, wherein the control component is used to execute the information processing method according to any one of claims 1 to 9.

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