Target content quantification and decomposition method and atomization device

Abstract

The application relates to a target content quantification and decomposition method and an atomization device, which comprises the following steps: acquiring and saving static posture data and motion detection data in real time; determining a motion mode and a motion amount according to the static posture data and the motion detection data; calculating a target decomposition coefficient according to the motion mode and the motion amount; acquiring a last time target inhalation amount, calculating a target residual amount according to the target decomposition coefficient and a target residual algorithm; acquiring a current airflow speed and a current working time length; calculating a current target inhalation amount according to a target concentration-power relationship, the current airflow speed and the current working time length; and summing the target residual amount and the current target inhalation amount to obtain a total target amount to be decomposed. The target content inhaled and the target content consumed in the motion process can be accurately calculated, and target metabolic motion suggestions can be output, so that the atomization device is more intelligent and the user experience is improved.

Description

Technical Field

[0001] This application relates to the field of atomization device technology, specifically to a method for contentification and decomposition of a target substance and an atomization device. Background Technology

[0002] Atomizing devices are favored by users due to their portability and ease of use. Atomizing devices generally consist of a rechargeable battery, an atomizer coil, and a cartridge. The atomizer coil heats the e-liquid in the cartridge, causing at least some of the active substances in the e-liquid to evaporate and produce an aerosol. The atomizing device's usage status and battery level are displayed on its display window.

[0003] Nicotine, the most abundant component in e-liquid for vaping devices, determines the flavor, texture, and safety of the e-liquid. However, current vaping devices do not detect the nicotine content in the e-liquid during vaping. Alternatively, they rely on methods to predict nicotine intake, resulting in a rough estimate that cannot accurately measure and quantify the amount of nicotine ingested during daily vaping.

[0004] However, the accumulation of excessive nicotine in the body can affect the body's functional balance. Therefore, customers need prompts and guidance on the breakdown of nicotine. In addition, they also need to know the amount of nicotine metabolized by the vaping device between inhalation intervals due to activity. However, existing vaping devices do not provide magnetic functionality. Summary of the Invention

[0005] To address the aforementioned problems, the purpose of this application is to provide a method for measuring the power of an atomizing device and an atomizing device itself, thereby resolving the technical problems of existing atomizing devices being unable to accurately count the amount of ingested target substance, i.e., the amount of nicotine, and being unable to provide prompts and guidance information on the decomposition of nicotine target substance and the metabolic data of nicotine target substance. This will be explained in detail below.

[0006] In a first aspect, this embodiment provides a method for content determination and decomposition of a target substance, including:

[0007] Real-time acquisition and storage of static posture data and motion detection data of the atomizing device; determination of the motion pattern and amount of motion based on the static posture data and motion detection data.

[0008] Calculate the target object decomposition coefficient under different motion patterns and exercise amounts;

[0009] The last inhalation volume of the target substance is obtained, and the remaining amount of the target substance for the user is calculated based on the target substance decomposition coefficient and the target substance remaining algorithm under different exercise modes.

[0010] Obtain the current airflow velocity and current working time, and calculate the current inhalation volume of the target substance based on the relationship between target substance concentration and power, current airflow velocity, and current working time;

[0011] The total amount of target material to be decomposed is obtained by summing the remaining amount of target material and the amount inhaled in this inhalation.

[0012] In embodiments providing recommendations on the metabolism of a target substance, the following is also included:

[0013] The exercise modes include resting state, mild exercise state, and vigorous exercise state; the degradation time Tn of the target substance is determined under different exercise modes, and the theoretical exercise time for complete decomposition of the target substance is 5Tn;

[0014] Based on the total amount of target objects to be decomposed and the theoretical motion time, a suggested motion pattern and suggested motion time are generated.

[0015] It displays suggested exercise modes and suggested exercise time.

[0016] In one embodiment, the method further includes the following steps:

[0017] The total amount of the target substance is displayed; the total amount of the target substance is used to calculate the remaining amount of the target substance for the next inhalation, and then accumulated with the next inhalation volume.

[0018] In one embodiment, the formula for calculating the inhalation volume is as follows:

[0019] M=D （P） *V0*t; where t is the working duration, M is the intake volume corresponding to the working duration, and D... （P） V is the coefficient relating the concentration of the target substance to the power, and V0 is the airflow velocity during suction.

[0020] The coefficient D of the relationship between target concentration and power （P） The calculation formula is:

[0021] D （P） =0.00155*P i +0.1038, where P i P represents the power corresponding to different power levels. i ≤30 watts.

[0022] In one embodiment, the target object remaining algorithm is as follows:

[0023] Where m is the remaining amount, t i For the motion time of different modes, M iN1 represents the previous inhalation volume, N2 represents the target decomposition rate coefficient at rest, N3 represents the target decomposition rate coefficient during mild exercise, and N1+N2+N3≤5.

[0024] In one embodiment, the movement modes include resting state, light movement state, and vigorous movement state. The remaining target algorithm uses a count calculation method, and the formula for calculating the count of the remaining quantity is:

[0025] Where m is the remaining amount, a1 is the set number of suction ports for the first power setting, a2 is the set number of suction ports for the second power setting, and a3 is the set number of suction ports for the third power setting; b1 is the actual number of suction ports for the first power setting, b2 is the set actual number of suction ports for the second power setting, and b3 is the actual number of suction ports for the third power setting; N1 is the target decomposition rate coefficient in the resting state, N2 is the target decomposition rate coefficient in the slightly moving state, and N3 is the target decomposition rate coefficient in the violently moving state, and N1+N2+N3≤5.

[0026] Secondly, this embodiment provides an atomizing device, including a main control unit, which includes a status statistics unit, a coefficient unit, a remaining amount unit, an inhalation amount unit, and a total amount unit.

[0027] The status statistics unit is used to acquire and save the static posture data and motion detection data of the atomizing device in real time, and to determine the motion mode and amount of motion based on the static posture data and motion detection data.

[0028] The coefficient unit is used to calculate the target object decomposition coefficient under different motion modes based on the motion mode and motion amount;

[0029] The remaining quantity unit is used to obtain the previous inhalation volume of the target object. Based on the target object decomposition coefficient and the target object remaining algorithm under different motion modes, the remaining quantity of the target object for the user is calculated.

[0030] The inhalation volume unit is used to obtain the current airflow velocity and current working time, and to calculate the current inhalation volume of the target substance based on the relationship between target substance concentration and power, current airflow velocity, and current working time.

[0031] The total quantity unit is used to sum the remaining amount of the target substance and the amount inhaled this time to obtain the total amount of the target substance to be decomposed.

[0032] In terms of circuit structure, the atomizing device also includes an airflow sensor, a gravity sensor, and an acceleration sensor. The gravity sensor is used to capture static attitude data, the acceleration sensor is used to capture motion detection data, and the main control unit is connected to the airflow sensor, gravity sensor, and acceleration sensor.

[0033] In the embodiment of providing target substance metabolism recommendations, the main control unit further includes a recommendation generation unit:

[0034] It is recommended that the generated unit be used to determine the degradation time T of the target object under different motion modes. n The theoretical motion time for the target object to completely decompose is 5T. n Based on the total amount of target objects to be decomposed and the theoretical motion time, a suggested motion pattern and a suggested motion time are generated.

[0035] Exercise patterns include resting state, mild exercise state, and vigorous exercise state.

[0036] In one embodiment, a display unit is further included, which is used to display the total amount of the target object, and the display unit is also used to display the suggested exercise mode and the suggested exercise time.

[0037] Compared with the prior art, this application has the following beneficial effects:

[0038] This application provides real-time statistics on the user's movement status, including stationary and different motion modes, to support the data on the consumption of the target substance during the inhalation interval of the nebulizer and accurately calculate the remaining amount of the target substance. This remaining amount, combined with the accurately calculated inhalation volume, allows for precise calculation of the total amount of target substance inhaled each time the nebulizer is used, enabling data-driven management of the ingested target substance content. Attached Figure Description

[0039] Figure 1 This is a schematic diagram of the internal circuit module of the atomizing device in this embodiment;

[0040] Figure 2 This is a structural diagram of an embodiment of an atomizing device;

[0041] Figure 3 This is a software module diagram of the target substance content determination and decomposition method in this embodiment;

[0042] Figure 4 This is a flowchart of the main process for the content determination and decomposition of the target substance in this embodiment;

[0043] Figure 5 This is a detailed flowchart of the target substance content determination and decomposition method in this embodiment. Detailed Implementation

[0044] The present application will now be described in further detail with reference to the accompanying drawings and specific embodiments. Similar elements in different embodiments are referred to by related similar element reference numerals. In the following embodiments, many details are described to facilitate a better understanding of the present application. However, those skilled in the art will readily recognize that some features may be omitted in different situations, or may be replaced by other elements, materials, or methods. In some cases, certain operations related to the present application are not shown or described in the specification. This is to avoid obscuring the core parts of the present application with excessive description. For those skilled in the art, detailed description of these related operations is not necessary; they can fully understand the related operations based on the description in the specification and general technical knowledge in the art.

[0045] Furthermore, the features, operations, or characteristics described in the specification can be combined in any suitable manner to form various embodiments. At the same time, the steps or actions in the method description can be rearranged or adjusted in a manner obvious to those skilled in the art. Therefore, the various orders in the specification and drawings are only for the clear description of a particular embodiment and do not imply a necessary order, unless otherwise stated that a particular order must be followed.

[0046] The serial numbers assigned to components in this document, such as "first" and "second," are used solely to distinguish the described objects and have no sequential or technical meaning. "Multiple" means two or more. Unless otherwise specified, "connection" or "linkage" in this application includes both direct and indirect connections (linkages).

[0047] Please refer to this as well. Figures 1 to 2 The diagram shows the internal and external structures of the atomizing device in this embodiment.

[0048] like Figure 2 As shown, the atomizing device includes a housing 1, a cartridge 3, and a rechargeable battery 20.

[0049] The upper part of the outer casing 1 forms a cartridge space, the lower part forms a power supply space, and the main control circuit board is installed in the middle. The cartridge 3 can be replaced and installed in this cartridge space. The power supply space houses a rechargeable battery 20, hereinafter referred to as battery 20. The input terminal of battery 20 is connected to a charging management unit 21, which is connected to a charging interface 22. The output terminal of battery 20 provides power to the main control circuit board.

[0050] The top of the outer casing 1 includes a mouthpiece 4, and a power display window is provided on the surface of the casing, which is aligned with the internal display unit 40 electronic components. An atomizing core 50, electrically connected to the circuit board, is located above the cartridge 3. The atomizing core 50 is connected to the main control unit 10, which serves as the controller, via an atomization power output circuit 30. The mouthpiece 4 is connected to the atomizing core 50.

[0051] In terms of circuit structure, the circuit board includes a controller serving as the main control unit 10 and houses related electronic components. The mouthpiece 4 contains a microphone detection module and an airflow sensor 80.

[0052] The microphone detection module detects the airflow volume of the mouthpiece 4 and transmits the real-time airflow data to the main control unit 10 for preliminary calculation of the inhaled gas volume and preliminary determination of the target substance content. In actual operation, the microphone detection module generates a control input signal for heating the heating coil. When the airflow detected by the microphone detection module reaches the activation threshold, it determines that the atomizing device is activated and transmits the control input signal to the main control unit 10. The main control unit 10 then controls the heating coil to achieve e-liquid atomization.

[0053] The main control unit 10 is connected to the airflow sensor 80. The main control unit 10 is also connected to a gravity sensor 60 and an acceleration sensor 70. The airflow sensor 80 is used to more precisely capture changes in airflow at the mouthpiece 4 and the airflow velocity V0 during inhalation. The gravity sensor 60 is used to detect the user's static posture data in a resting state. The acceleration sensor 70 is used to detect the user's motion data during mild or vigorous exercise.

[0054] A software program module is written into the main control unit 10. This module receives real-time detection data from the microphone detection module, airflow sensor 80, gravity sensor 60, and accelerometer 70. Based on the data from these sensors, it calculates the remaining amount of metabolized target substances and the current and next inhalation amounts. By incorporating the gravity sensor 60 and accelerometer 70 into the device, the user's movement status, including stationary and different motion modes, is monitored in real time. This provides data support for the consumption of target substances during the inhalation intervals of the nebulizer, accurately calculating the remaining amount of target substances. This remaining amount, combined with the inhalation amount accurately calculated from the airflow sensor 80 or microphone data, allows for accurate statistics of the total amount of target substances inhaled each time the nebulizer is used, enabling data-driven management of the ingested target substance content.

[0055] Please refer to Figure 3 In order to realize the content of target substances and the calculation of the remaining amount, the main control unit 10 includes a status statistics unit 12, a coefficient unit 13, a remaining amount unit 14, an intake amount unit 15, a total amount calculation unit 16, a display unit 17, and a suggestion generation unit 18 in the software functional modules.

[0056] The status statistics unit 12 records the amount of movement the user experienced under different movement modes between the last inhalation and the current inhalation. In this embodiment, this amount of movement is measured in terms of movement time. The data collected by the status statistics unit 12 is used to estimate the remaining amount of the target material from the last inhalation to the present. During operation, the status statistics unit 12 acquires and saves the detection data from the gravity sensor 60 and the acceleration sensor 70 of the atomizing device in real time. The status statistics unit 12 generates static posture data based on the detection data from the gravity sensor 60 and motion detection data based on the detection data from the acceleration sensor 70. Based on the static posture data and the motion detection data, the status statistics unit 12 determines the different movement modes and corresponding amounts of movement, i.e., the movement time, that occurred between the last inhalation and the current inhalation.

[0057] The coefficient unit 13 is used to calculate the target object decomposition coefficient under different motion modes based on the motion mode and motion intensity. The main control unit 10 classifies and times the user's behavior patterns based on the sensor detection data.

[0058] In this embodiment, the exercise modes include resting state, light exercise state, and vigorous exercise state.

[0059] For details on the decomposition coefficients of the target object, please refer to the method implementation examples.

[0060] The remaining quantity unit 14 is used to obtain the previous inhalation volume of the target object and calculate the remaining quantity of the target object for the user based on the target object decomposition coefficient and the target object remaining algorithm under different motion modes.

[0061] The inhalation volume unit 15 is used to obtain the current airflow velocity and the current working time, and to calculate the current inhalation volume of the target substance based on the relationship between the target substance concentration and power, the current airflow velocity, and the current working time.

[0062] Total quantity unit 16 is used to sum the remaining amount of the target substance and the amount inhaled this time to obtain the total amount of the target substance to be decomposed.

[0063] Display unit 17 is used to display the total amount of the target object.

[0064] In the embodiment providing target metabolism recommendations, the recommendation generation unit 18 is used to determine the degradation time T of the target under different motion modes. n The theoretical motion time for the target object to completely decompose is T. n Based on the total amount of target objects to be decomposed and the theoretical motion time, a suggested motion pattern and a suggested motion time are generated.

[0065] The display unit 17 is also used to display the suggested exercise mode and the suggested exercise time.

[0066] The nebulizer collects and displays the total amount of target substances in the user's body after inhalation. Combined with the target substance's half-decay period (i.e., degradation time), it uses an exercise algorithm tailored to the target substance concentration to push suggested exercise modes and durations for target substance metabolism. This provides users with more information on target substance metabolism and health management, enhancing the user experience. The pushed suggestions guide users to exercise scientifically, rapidly breaking down target substances in the body and achieving the health benefits of using the nebulizer. Users can intuitively and accurately know the actual amount of target substances inhaled this time, as well as the previously accumulated amount, and can then adjust their exercise or smoking cessation plans based on the total amount of target substances, resulting in a better user experience.

[0067] The above precise calculations of target substance inhalation and metabolism, along with the push of target substance metabolism suggestions, make nebulizers more intelligent and provide a better user experience.

[0068] There are two methods for calculating the remaining target substance: a precise calculation method and a preliminary calculation method. The precise calculation method is based on the relationship between the concentration of the target substance being aspirated and the power. The preliminary calculation method is based on the target substance content defined at the time of product manufacture and the number of aspiration ports set according to different power levels.

[0069] The two target residue algorithms and the relationship between target concentration and power are described in detail in the subsequent method embodiments.

[0070] Please refer to Figure 4 The diagram shows the main flowchart of the target substance content determination and decomposition method in this embodiment. The method includes the following steps:

[0071] Step S100: Acquire and save the static posture data and motion detection data of the atomizing device in real time, and determine the motion mode and motion amount based on the static posture data and motion detection data.

[0072] The status statistics unit 12 records the amount of exercise that the user has in different exercise modes between the last suction and the current suction. In this embodiment, the exercise modes include resting state, light exercise state and vigorous exercise state.

[0073] During operation, the status statistics unit 12 acquires and saves the detection data from the gravity sensor 60 and the acceleration sensor 70 of the atomizing device in real time. Based on the static posture data and motion detection data, the status statistics unit 12 determines the different motion modes and corresponding amounts of motion, i.e., motion time, that occurred between the last inhalation and the current inhalation. For example, this amount of motion is measured in motion time t. The amount of motion in the resting state is denoted as t1. The amount of motion in the mild motion state is denoted as t2. The amount of motion in the vigorous motion state is denoted as t3.

[0074] Step S200: Calculate the target object decomposition coefficient under different motion modes based on the motion pattern and amount of motion. The derivation is as follows based on the motion mode.

[0075] Resting state: In the resting state, the degradation time of the target substance is T1 = 1.5 (hours), and the content of the target substance that is aspirated theoretically needs 5T1 = 7.5 hours to be completely decomposed.

[0076] Mild motion (4~6 km / h): Under mild motion conditions, the half-degradation time of the target substance is T2=T1 / 1.15 (hours), and the theoretically required content of the target substance to be completely decomposed is 5T2=6.5 hours.

[0077] Intense motion (6-8 km / h): Under intense motion, the half-degradation time of the target substance is T3=T1 / 1.3 (hours), and the theoretical content of the target substance to be drawn requires 5T3=5.8 hours to be completely decomposed.

[0078] The statistics show that during the time period from the last sampling to the current sampling, the user's rest time was t1 (hours); brisk walking time was t2 (hours); and running time was t3 (hours).

[0079] The relationship between the remaining amount of the resorbed target substance m (mg) in the body and the decomposition rate is as follows:

[0080] Resting state target decomposition coefficient: N1 = t1 / T1;

[0081] Decomposition coefficient of a target object in a state of slight motion: N2 = t2 / T2;

[0082] Decomposition coefficient of target object under intense motion: N3=t3 / T3; where N1, N2, and N3 are rounded to the nearest whole number.

[0083] Step S300: Obtain the previous inhalation volume of the target object, and calculate the remaining amount of the target object for the user based on the target object decomposition coefficient and the target object remaining algorithm under different exercise modes.

[0084] There are two methods for calculating the remaining target analyte: a precise calculation method and a preliminary calculation method. The precise calculation method is based on the relationship between the concentration of the target analyte and the power output. The preliminary calculation method is based on the target analyte content defined at the time of product manufacturing and the number of suction ports set according to different power levels.

[0085] The first precise calculation method is introduced below:

[0086] The algorithm for accurately calculating the remaining quantity of the target object is as follows:

[0087] Where m is the remaining amount, t iThe time for different modes of exercise is M, the previous inhalation volume is M, N1 is the target decomposition rate coefficient at rest, N2 is the target decomposition rate coefficient at light exercise, N3 is the target decomposition rate coefficient at vigorous exercise, and N1+N2+N3≤5.

[0088] The second preliminary calculation method is introduced below:

[0089] In the preliminary calculation method, the remaining target quantity is calculated using the number of items. The formula for calculating the number of items remaining is as follows:

[0090] Where m is the remaining amount, a1 is the set number of suction ports for the first power setting, a2 is the set number of suction ports for the second power setting, and a3 is the set number of suction ports for the third power setting; b1 is the actual number of suction ports for the first power setting, b2 is the set actual number of suction ports for the second power setting, and b3 is the actual number of suction ports for the third power setting; N1 is the target decomposition rate coefficient in the resting state, N2 is the target decomposition rate coefficient in the slightly moving state, and N3 is the target decomposition rate coefficient in the violently moving state, and N1+N2+N3≤5.

[0091] Step S400: Obtain the current airflow velocity and current working time, and calculate the current inhalation volume of the target substance based on the relationship between target substance concentration and power, current airflow velocity, and current working time.

[0092] The airflow velocity can be collected by the microphone detection module. The microphone detection module detects the airflow magnitude of the mouthpiece 4 and transmits the real-time airflow magnitude data to the main control unit 10 for preliminary calculation of the drawn gas volume, and can also preliminarily determine the content of the target substance within it.

[0093] In another embodiment, the airflow velocity can also be acquired by the airflow sensor 80. The airflow sensor 80 can capture the airflow changes of the mouthpiece 4 and the airflow velocity V0 during inhalation more precisely.

[0094] In this embodiment, the formula for calculating the inhalation volume is:

[0095] M=D （P） *V0*t; where t is the working duration, M is the intake volume corresponding to the working duration, and D... （P） is the coefficient relating target concentration to power, and V0 is the airflow velocity during suction.

[0096] The coefficient D of the relationship between target concentration and power （P） The calculation formula is:

[0097] D （P） =0.00155*P i +0.1038, where P iP represents the power corresponding to different power levels. i ≤30 watts.

[0098] Step S500: Sum the remaining amount of the target substance with the amount inhaled this time to obtain the total amount of the target substance to be decomposed.

[0099] Step S600: Display the total amount of the target item.

[0100] The total amount of the target substance is used to calculate the remaining amount of the target substance for the next inhalation, and then accumulated with the next inhalation volume.

[0101] like Figure 5 As shown, the method also includes a target metabolite message push step:

[0102] Step S410: Obtain the start time of this aspiration.

[0103] Step S420: Determine the degradation time T of the target object under different motion modes. n The theoretical motion time for the target object to completely decompose is T. n Based on the total amount of target objects to be decomposed and the theoretical motion time, a suggested motion pattern and a suggested motion time are generated.

[0104] Step S430: Display the suggested exercise mode and suggested exercise time.

[0105] The above description provides a further detailed explanation of the embodiments of the present invention in conjunction with specific implementation methods. It should not be construed that the specific implementation of the present invention is limited to these descriptions. In the above embodiments, the connection relationships mentioned can be direct connections, and in some cases, indirect connections, such as those involving switches or relays. For those skilled in the art, several simple deductions or substitutions can be made without departing from the concept of the present invention, and all such modifications and substitutions should be considered within the scope of protection of the present invention.

Claims

1. A method for content determination and decomposition of a target analyte, characterized in that, include: The static posture data and motion detection data of the atomizing device are acquired and saved in real time, and the motion mode and amount of motion are determined based on the static posture data and motion detection data. Calculate the target object decomposition coefficient under different motion modes based on the described motion pattern and amount of motion. The previous inhalation volume of the target substance is obtained, and the remaining amount of the target substance for the user is calculated based on the target substance decomposition coefficient and the target substance remaining algorithm under different exercise modes. The current airflow velocity and current working time are obtained, and the current inhalation volume of the target substance is calculated based on the relationship between target substance concentration and power, the current airflow velocity, and the current working time. The total amount of target material to be decomposed is obtained by summing the remaining amount of the target material and the amount inhaled in this instance.

2. The method for content determination and decomposition of target substances as described in claim 1, characterized in that, The exercise modes include resting state, light exercise state, and vigorous exercise state; the degradation time of the target substance under different exercise modes is determined as Tn, and the theoretical exercise time for complete decomposition of the target substance is 5Tn; Based on the total amount of the target objects to be decomposed and the theoretical motion time, a suggested motion pattern and a suggested motion time are generated. The recommended exercise mode and recommended exercise time are displayed.

3. The method for content determination and decomposition of target substances as described in claim 2, characterized in that, Display the total quantity of the target item; The total amount of the target substance is used to calculate the remaining amount of the target substance for the next inhalation, and then accumulated with the next inhalation volume.

4. The method for content determination and decomposition of target substances as described in claim 1, characterized in that, The formula for calculating the amount inhaled in this instance is: M=D （p） *V0*t; where t is the working duration, M is the inhalation volume corresponding to the working duration, and D (P) V0 is the coefficient relating the concentration of the target substance to the power, and V0 is the airflow velocity during suction. The coefficient D relating the target concentration to the power (P) The calculation formula is: D (P) =0.00155*P i +0.1038, where P i P represents the power corresponding to different power levels. i ≤30 watts.

5. The method for content determination and decomposition of target substances as described in claim 1, characterized in that, The movement modes include resting state, light movement state, and vigorous movement state, and the target object remaining algorithm is as follows: Where m is the remaining amount, t i For the motion time of different modes, M i N1 represents the previous inhalation volume, N2 represents the target decomposition rate coefficient at rest, N3 represents the target decomposition rate coefficient during mild exercise, and N1+N2+N3≤5.

6. The method for content determination and decomposition of target substances as described in claim 1, characterized in that, The movement modes include resting state, light movement state, and vigorous movement state. The remaining target algorithm uses a count calculation method, and the formula for calculating the remaining quantity is: Where m is the remaining amount, a1 is the set number of suction ports for the first power setting, a2 is the set number of suction ports for the second power setting, a3 is the set number of suction ports for the third power setting; b1 is the actual number of suction ports for the first power setting, b2 is the set actual number of suction ports for the second power setting, b3 is the actual number of suction ports for the third power setting; N1 is the target decomposition rate coefficient in the resting state, N2 is the target decomposition rate coefficient in the slightly moving state, N3 is the target decomposition rate coefficient in the violently moving state, and N1+N2+N3≤5.

7. An atomizing device, comprising a main control unit, characterized in that, The main control unit includes a status statistics unit, a coefficient unit, a remaining quantity unit, an inhalation quantity unit, and a total quantity unit; The status statistics unit is used to acquire and save the static posture data and motion detection data of the atomizing device in real time, and determine the motion mode and amount of motion based on the static posture data and motion detection data. The coefficient unit is used to calculate the target decomposition coefficient under different motion modes based on the motion mode and the amount of motion. The remaining quantity unit is used to obtain the previous inhalation volume of the target object, and calculates the user's remaining quantity of the target object based on the target object decomposition coefficient and the target object remaining algorithm under different exercise modes. The inhalation volume unit is used to obtain the current airflow velocity and the current working time, and to calculate the current inhalation volume of the target substance based on the relationship between the target substance concentration and power, the current airflow velocity, and the current working time. The total quantity unit is used to sum the remaining amount of the target substance and the amount inhaled this time to obtain the total amount of the target substance to be decomposed.

8. The atomizing device as described in claim 7, characterized in that, The atomizing device also includes an airflow sensor, a gravity sensor, and an acceleration sensor. The gravity sensor is used to capture the static attitude data, and the acceleration sensor is used to capture motion detection data. The main control unit is connected to the airflow sensor, the gravity sensor, and the acceleration sensor.

9. The atomizing device as described in claim 7, characterized in that, The main control unit also includes a suggestion generation unit: The suggestion generation unit is used to determine the degradation time Tn of the target under different motion modes. The theoretical motion time for the complete decomposition of the target is 5Tn. The unit generates suggested motion modes and suggested motion times based on the total amount of the target to be decomposed and the theoretical motion time. The exercise modes include resting state, light exercise state, and vigorous exercise state.

10. The atomizing device as described in claim 7, characterized in that, It also includes a display unit, which is used to display the total amount of the target object, as well as the suggested exercise mode and the suggested exercise time.

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