Dual-jet atomization monitoring method, device, computer equipment and storage medium

Abstract

The present application provides a dual-atomizer atomization monitoring method, device, computer device, and storage medium. The method includes obtaining atomization oil quantity state parameters of a dual-atomizer; performing atomization alternating processing on the atomization oil quantity state parameters and preset oil quantity state parameters to obtain an atomization alternating oil difference value; and sending a heating alternating opening and closing signal to a dual-atomizer atomization control system according to the atomization alternating oil difference value to adjust the heating state of dual heating wires of the dual-atomizer. By collecting the atomization oil quantity state parameters, it is convenient to determine the atomization state of the e-liquid of the dual-atomizer during dual-atomization. Then, the atomization oil quantity state parameters are compared with the preset oil quantity state parameters to facilitate determining the difference between the two. Finally, according to the difference situation reflected by the above atomization alternating oil difference value, the current alternating atomization situation of the dual-atomizer is monitored, effectively improving the balance of the atomization quantity during the alternating atomization process.

Description

Technical Field

[0001] The present invention relates to the technical field of dual - atomization technology, and in particular, to a dual - atomization monitoring method, device, computer device, and storage medium. Background Art

[0002] An electronic cigarette, also known as a virtual cigarette or an electronic atomizer, is mainly used for quitting smoking and replacing cigarettes. Electronic cigarettes have the same appearance and similar taste as cigarettes, and even have more flavors than ordinary cigarettes. Electronic cigarettes can also produce smoke, flavor, and sensations like cigarettes. In addition, electronic cigarettes do not contain other harmful components such as tar and suspended particles in cigarettes. Therefore, electronic cigarettes have become the best choice to replace cigarettes. Among them, an electronic cigarette with a dual - atomization function is used to increase the content of atomized active ingredients. For example, the Chinese patent application with the application number CN201620091472.7.

[0003] However, there are still certain differences in the atomization of e - liquid in the traditional dual - atomization method. For example, during the alternating heating process, the content of atomized active ingredients often varies, and it is impossible to ensure the taste of users during the alternating use process. Summary of the Invention

[0004] An object of the present invention is to overcome the deficiencies in the prior art and provide a dual - atomization monitoring method, device, computer device, and storage medium that can effectively improve the balance of atomization amounts during the alternating atomization process.

[0005] The object of the present invention is achieved by the following technical solutions:

[0006] A dual - atomization monitoring method, the method comprising:

[0007] Obtaining the atomization oil amount state parameter of a dual - atomizer;

[0008] Performing atomization - alternating processing on the atomization oil amount state parameter and a preset oil amount state parameter to obtain an atomization - alternating oil difference;

[0009] Sending a heating - alternating opening - closing signal to a dual - atomization control system according to the atomization - alternating oil difference to adjust the heating state of the dual - heating wires of the dual - atomizer.

[0010] In one embodiment, the obtaining the atomization oil amount state parameter of the dual - atomizer includes: obtaining the height of the oil liquid under alternating atomization of the dual - atomizer.

[0011] In one embodiment, the performing atomization - alternating processing on the atomization oil amount state parameter and a preset oil amount state parameter to obtain an atomization - alternating oil difference includes: calculating the difference between the height of the oil liquid under alternating atomization and the preset liquid height to obtain an atomization - alternating oil suction difference amount.

[0012] In one embodiment, sending a heating alternating opening and closing signal to the dual - atomizer control system according to the atomization alternating oil difference to adjust the heating state of the dual heating wires of the dual - atomizer includes: detecting whether the atomization alternating oil absorption difference is greater than or equal to a preset oil absorption difference; when the atomization alternating oil absorption difference is greater than or equal to the preset oil absorption difference, sending a heating alternating opening signal to the dual - atomizer control system to change the heating state of the two heating wires of the dual - atomizer.

[0013] In one embodiment, obtaining the atomization oil quantity state parameter of the dual - atomizer includes: obtaining the alternating atomization interval time of the dual - atomizer.

[0014] In one embodiment, performing atomization alternating processing on the atomization oil quantity state parameter and a preset oil quantity state parameter to obtain an atomization alternating oil difference includes: obtaining the difference between the alternating atomization interval time and the preset interval time to obtain an atomization alternating oil guiding difference.

[0015] In one embodiment, sending a heating alternating opening and closing signal to the dual - atomizer control system according to the atomization alternating oil difference to adjust the heating state of the dual heating wires of the dual - atomizer includes: detecting whether the atomization alternating oil guiding difference is less than a preset oil guiding difference; when the atomization alternating oil guiding difference is less than the preset oil guiding difference, sending a heating alternating closing signal to the dual - atomizer control system to maintain the heating state of the two heating wires of the dual - atomizer.

[0016] A dual - atomizer monitoring device includes: an atomization oil quantity acquisition module, an atomization alternating processing module, and a heating state monitoring module; the atomization oil quantity acquisition module is used to obtain the atomization oil quantity state parameter of the dual - atomizer; the atomization alternating processing module is used to perform atomization alternating processing on the atomization oil quantity state parameter and a preset oil quantity state parameter to obtain an atomization alternating oil difference; the heating state monitoring module is used to send a heating alternating opening and closing signal to the dual - atomizer control system according to the atomization alternating oil difference to adjust the heating state of the dual heating wires of the dual - atomizer.

[0017] A computer device includes a memory and a processor, the memory stores a computer program, and when the processor executes the computer program, the following steps are implemented:

[0018] Obtain the atomization oil quantity state parameter of the dual - atomizer;

[0019] Perform atomization alternating processing on the atomization oil quantity state parameter and a preset oil quantity state parameter to obtain an atomization alternating oil difference;

[0020] Send a heating alternating opening and closing signal to the dual - atomizing control system according to the atomizing alternating oil difference value to adjust the heating state of the dual - heating wires of the dual - atomizer.

[0021] A computer - readable storage medium, on which a computer program is stored. When the computer program is executed by a processor, the following steps are implemented:

[0022] Obtain the atomizing oil quantity state parameter of the dual - atomizer;

[0023] Perform atomizing alternating processing on the atomizing oil quantity state parameter and a preset oil quantity state parameter to obtain an atomizing alternating oil difference value;

[0024] Send a heating alternating opening and closing signal to the dual - atomizing control system according to the atomizing alternating oil difference value to adjust the heating state of the dual - heating wires of the dual - atomizer.

[0025] Compared with the prior art, the present invention has at least the following advantages:

[0026] By collecting the atomizing oil quantity state parameter, it is convenient to determine the atomizing state of the e - liquid in the dual - atomizer during dual - atomizing. Then, compare the atomizing oil quantity state parameter with the preset oil quantity state parameter to facilitate determining the difference between the two. Finally, monitor the current alternating atomizing situation of the dual - atomizer according to the difference reflected by the above - mentioned atomizing alternating oil difference value, and adjust the working state of the dual - atomizer during the alternating atomizing process, which is convenient to timely adjust the heating state change of the dual - heating wires after the e - liquid atomizing quantity reaches the specified amount, effectively improving the balance of the atomizing quantity during the alternating atomizing process. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following will briefly introduce the drawings required for the embodiments. It should be understood that the following drawings only show some embodiments of the present invention, so they should not be regarded as limiting the scope. For those of ordinary skill in the art, without creative efforts, other related drawings can also be obtained based on these drawings.

[0028] Figure 1 It is a flowchart of the dual - atomizing monitoring method in one embodiment;

[0029] Figure 2 It is an internal structure diagram of a computer device in one embodiment. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0030] To facilitate the understanding of the present invention, the present invention will be described more comprehensively below with reference to the relevant drawings. Preferred embodiments of the present invention are shown in the drawings. However, the present invention can be implemented in many different forms and is not limited to the embodiments described herein. On the contrary, these embodiments are provided to make the disclosure of the present invention more thorough and comprehensive.

[0031] It should be noted that when an element is referred to as being "fixed to" another element, it can be directly on the other element or there can also be an intermediate element. When an element is considered to be "connected" to another element, it can be directly connected to the other element or there may be an intermediate element at the same time. The terms "vertical", "horizontal", "left", "right" and similar expressions used herein are for illustrative purposes only and do not represent the only embodiments.

[0032] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by those skilled in the technical field to which the present invention belongs. The terms used in the specification of the present invention herein are only for the purpose of describing specific embodiments and are not intended to limit the present invention. The term "and / or" used herein includes any and all combinations of one or more of the related listed items.

[0033] The present invention relates to a dual - atomizer atomization monitoring method. In one embodiment, the dual - atomizer atomization monitoring method includes obtaining the atomization oil quantity state parameter of a dual - atomizer; performing atomization alternating processing on the atomization oil quantity state parameter and a preset oil quantity state parameter to obtain an atomization alternating oil difference value; and sending a heating alternating opening and closing signal to a dual - atomizer control system according to the atomization alternating oil difference value to adjust the heating state of the dual - heating wires of the dual - atomizer. By collecting the atomization oil quantity state parameter, it is convenient to determine the atomization state of the e - liquid of the dual - atomizer during dual - atomization. Then, the atomization oil quantity state parameter is compared with the preset oil quantity state parameter to facilitate determining the difference between the two. Finally, according to the difference reflected by the above - mentioned atomization alternating oil difference value, the current alternating atomization situation of the dual - atomizer is monitored to adjust the working state of the dual - atomizer during the alternating atomization process, which is convenient for timely changing and adjusting the heating state of the dual - heating wires after the e - liquid atomization quantity reaches a specified amount, effectively improving the balance of the atomization quantity during the alternating atomization process.

[0034] Please refer to Figure 1 , which is a flowchart of the dual - atomizer atomization monitoring method according to an embodiment of the present invention. The dual - atomizer atomization monitoring method includes some or all of the following steps.

[0035] S100: Obtain the atomization oil quantity state parameter of the dual - atomizer.

[0036] In this embodiment, the atomized oil quantity state parameter is the atomized state of the e-liquid in the dual-coil atomizer during dual-coil atomization, that is, the atomized oil quantity state parameter is one of the atomized states during the alternating atomization of the dual-coil atomizer, or in other words, the atomized oil quantity state parameter is the state of the change in the e-liquid quantity on one of the heating wires of the dual-coil atomizer during the working cycle. Wherein, the working cycle of each heating wire includes the heating time, the oil absorption time of the oil-absorbing cotton on the heating wire, and the working interval time between the heating wire and the other heating wire. After collecting the atomized oil quantity state parameter, it is convenient to determine the atomized e-liquid quantity during the alternating atomization of the dual-coil atomizer, thereby facilitating the determination of the e-liquid consumption of the dual-coil atomizer, and further facilitating the determination of the reduction in the e-liquid quantity of the dual-coil atomizer. It is also convenient to effectively judge the alternating heating change situation of the two heating wires of the dual-coil atomizer in the subsequent process.

[0037] S200: Perform atomization alternation processing on the atomized oil quantity state parameter and the preset oil quantity state parameter to obtain an atomization alternation oil difference.

[0038] In this embodiment, the atomized oil quantity state parameter is the atomized state of the e-liquid in the dual-coil atomizer during dual-coil atomization, that is, the atomized oil quantity state parameter is one of the atomized states during the alternating atomization of the dual-coil atomizer, or in other words, the atomized oil quantity state parameter is the state of the change in the e-liquid quantity on one of the heating wires of the dual-coil atomizer during the working cycle. Wherein, the working cycle of each heating wire includes the heating time, the oil absorption time of the oil-absorbing cotton on the heating wire, and the working interval time between the heating wire and the other heating wire. After collecting the atomized oil quantity state parameter, it is convenient to determine the atomized e-liquid quantity during the alternating atomization of the dual-coil atomizer, thereby facilitating the determination of the e-liquid consumption of the dual-coil atomizer, and further facilitating the determination of the reduction in the e-liquid quantity of the dual-coil atomizer. It is also convenient to effectively judge the alternating heating change situation of the two heating wires of the dual-coil atomizer in the subsequent process. The preset oil quantity state parameter is the standard atomized state of the e-liquid in the dual-coil atomizer during dual-coil atomization, that is, the preset oil quantity state parameter is one of the standard atomized states during the alternating atomization of the dual-coil atomizer, or in other words, the preset oil quantity state parameter is the specified state of the change in the e-liquid quantity on one of the heating wires of the dual-coil atomizer during the working cycle. By performing atomization alternation processing on the atomized oil quantity state parameter and the preset oil quantity state parameter, it is convenient to determine the difference between the atomized oil quantity state parameter and the preset oil quantity state parameter, thereby facilitating the determination of the difference degree between the current atomized e-liquid quantity and the standard atomized e-liquid quantity of the dual-coil atomizer, and further facilitating the determination of the difference in the oil absorption quantity of the oil-absorbing cotton on the non-working heating wire in the dual-coil atomizer.

[0039] S300: Send a heating alternate opening / closing signal to the dual - atomizer atomization control system according to the atomization alternate oil difference value, so as to adjust the heating state of the dual heating wires of the dual - atomizer.

[0040] In this embodiment, the atomization alternate oil difference value is based on the atomization oil quantity state parameter and the preset oil quantity state parameter. The atomization oil quantity state parameter is the e - liquid atomization state of the dual - atomizer during dual - atomization, that is, the atomization oil quantity state parameter is one of the atomization states of the dual - atomizer during alternate atomization, that is, the atomization oil quantity state parameter is the oil quantity change state of one of the heating wires of the dual - atomizer within the working cycle. Among them, the working cycle of each heating wire includes the heating time, the oil absorption time of the oil absorption cotton on the heating wire, and the working interval time with the other heating wire. After collecting the atomization oil quantity state parameter, it is convenient to determine the e - liquid atomization quantity of the dual - atomizer during alternate atomization, so as to determine the e - liquid consumption situation of the dual - atomizer, and further to determine the e - liquid reduction amount of the dual - atomizer. It is also convenient to effectively judge the alternate heating change situation of the two heating wires of the dual - atomizer subsequently. The preset oil quantity state parameter is the standard e - liquid atomization state of the dual - atomizer during dual - atomization, that is, the preset oil quantity state parameter is one of the standard atomization states of the dual - atomizer during alternate atomization, that is, the preset oil quantity state parameter is the specified oil quantity change state of one of the heating wires of the dual - atomizer within the working cycle. Through the atomization alternation process of the atomization oil quantity state parameter and the preset oil quantity state parameter, it is convenient to determine the difference between the atomization oil quantity state parameter and the preset oil quantity state parameter, so as to determine the difference degree between the current e - liquid atomization quantity and the standard e - liquid atomization quantity of the dual - atomizer, and then to determine the oil absorption quantity difference of the oil absorption cotton on the non - working heating wire in the dual - atomizer. After determining the atomization alternate oil difference value, send a heating alternate opening / closing signal to the dual - atomizer atomization control system in time to adjust the heating state of the dual heating wires of the dual - atomizer, which is convenient to timely adjust the alternate heating situation of the two heating wires of the dual - atomizer, so as to timely change the heating state of the two heating wires of the dual - atomizer, and further to enable the oil absorption cotton on the other non - heating heating wire to absorb a sufficient amount of e - liquid during the working process of one heating wire, so as to have enough e - liquid for atomization during the subsequent alternate heating process, in order to improve the balance of the atomization quantity during the alternate atomization process, that is, the atomization quantities of the two heating wires in the individual atomization processes are the same.

[0041] In the above embodiments, by collecting the state parameters of the atomization oil quantity, it is convenient to determine the atomization state of the e-liquid of the dual-atomizer during dual-atomization. Then, the state parameters of the atomization oil quantity are compared with the preset state parameters of the oil quantity to determine the difference between the two. Finally, according to the difference reflected by the above atomization alternating oil difference, the current alternating atomization situation of the dual-atomizer is monitored to adjust the working state of the dual-atomizer executed during the alternating atomization process, so as to facilitate the timely adjustment of the heating state change of the dual heating wires after the e-liquid atomization quantity reaches the specified quantity, effectively improving the balance of the atomization quantity during the alternating atomization process.

[0042] In one of the embodiments, the obtaining of the state parameters of the atomization oil quantity of the dual-atomizer includes: obtaining the height of the oil liquid under alternating atomization of the dual-atomizer. In this embodiment, the state parameters of the atomization oil quantity are the atomization state of the e-liquid of the dual-atomizer during dual-atomization, that is, the state parameters of the atomization oil quantity are one of the atomization states of the dual-atomizer during alternating atomization, that is, the state parameters of the atomization oil quantity are the oil quantity change state of one of the heating wires of the dual-atomizer during the working cycle. Among them, the working cycle of each heating wire includes the heating time, the oil absorption time of the oil absorption cotton on the heating wire, and the working interval time with the other heating wire. After collecting the state parameters of the atomization oil quantity, it is convenient to determine the e-liquid atomization quantity of the dual-atomizer during the alternating atomization process, so as to facilitate the determination of the e-liquid consumption situation of the dual-atomizer, and further facilitate the determination of the e-liquid reduction amount of the dual-atomizer, and it is also convenient to effectively judge the alternating heating change situation of the two heating wires of the dual-atomizer in the future. The state parameters of the atomization oil quantity are the height of the oil liquid under alternating atomization, and the height of the oil liquid under alternating atomization reflects the e-liquid drop situation of the dual-atomizer during the alternating atomization process, that is, the height of the oil liquid under alternating atomization reflects the e-liquid reduction amount of the dual-atomizer during the alternating atomization process, that is, the height of the oil liquid under alternating atomization reflects the e-liquid amount absorbed by the oil absorption cotton on the non-heating heating wire of the dual-atomizer during the alternating atomization process, which is convenient to determine the change situation of the alternating atomization e-liquid of the dual-atomizer.

[0043] Further, the step of performing atomization alternating processing on the atomized oil quantity state parameter and a preset oil quantity state parameter to obtain an atomization alternating oil difference includes: obtaining a difference between the height of the oil liquid under alternating atomization and a preset liquid height to obtain an atomization alternating oil absorption difference quantity. In this embodiment, the atomized oil quantity state parameter is the e-liquid atomization state of the dual-atomizer under dual-atomization, that is, the atomized oil quantity state parameter is one of the atomization states of the dual-atomizer during alternating atomization, that is, the atomized oil quantity state parameter is the oil quantity change state of one of the heating wires of the dual-atomizer during the working cycle. Wherein, the working cycle of each heating wire includes a heating time, an oil absorption time of the oil absorption cotton on the heating wire, and a working interval time with the other heating wire. After collecting the atomized oil quantity state parameter, it is convenient to determine the e-liquid atomization quantity of the dual-atomizer during alternating atomization, thereby facilitating the determination of the e-liquid consumption of the dual-atomizer, and further facilitating the determination of the e-liquid reduction amount of the dual-atomizer, and also facilitating the subsequent effective judgment of the alternating heating change situation of the two heating wires of the dual-atomizer. The atomized oil quantity state parameter is the height of the oil liquid under alternating atomization, and the height of the oil liquid under alternating atomization reflects the e-liquid drop situation of the dual-atomizer during alternating atomization, that is, the height of the oil liquid under alternating atomization reflects the e-liquid reduction amount of the dual-atomizer during alternating atomization, that is, the height of the oil liquid under alternating atomization reflects the e-liquid quantity absorbed by the oil absorption cotton on the non-heating heating wire of the dual-atomizer during alternating atomization, which is convenient for determining the e-liquid change situation of the dual-atomizer during alternating atomization. The preset liquid height reflects the standard e-liquid drop situation of the dual-atomizer during alternating atomization, that is, the preset liquid height reflects the standard e-liquid reduction amount of the dual-atomizer during alternating atomization, that is, the preset liquid height reflects the specified e-liquid quantity absorbed by the oil absorption cotton on the non-heating heating wire of the dual-atomizer during alternating atomization. The atomization alternating oil absorption difference quantity is obtained based on the height of the oil liquid under alternating atomization and the preset liquid height, that is, by obtaining the difference between the height of the oil liquid under alternating atomization and the preset liquid height. Specifically, the difference between the height of the oil liquid under alternating atomization and the preset liquid height is the liquid level difference of the e-liquid drop of the dual-atomizer during alternating atomization. Then, based on the bottom area size of the oil tank, the e-liquid atomization volume of the dual-atomizer during alternating atomization can be determined, thereby facilitating the determination of the difference between the e-liquid reduction amount and the standard reduction amount of the dual-atomizer during alternating atomization, that is, the atomization alternating oil absorption difference quantity.

[0044] Further, sending a heating alternating opening and closing signal to the dual - atomizer control system according to the atomization alternating oil difference to adjust the heating state of the dual heating wires of the dual - atomizer includes: detecting whether the atomization alternating oil absorption difference is greater than or equal to a preset oil absorption difference; when the atomization alternating oil absorption difference is greater than or equal to the preset oil absorption difference, sending a heating alternating opening signal to the dual - atomizer control system to change the heating state of the two heating wires of the dual - atomizer. In this embodiment, the atomization alternating oil difference is based on the atomization oil quantity state parameter and the preset oil quantity state parameter. The atomization oil quantity state parameter is the e - liquid atomization state of the dual - atomizer during dual - atomization, that is, the atomization oil quantity state parameter is one of the atomization states of the dual - atomizer during alternating atomization, and also the oil quantity change state of one of the heating wires of the dual - atomizer during the working cycle. Among them, the working cycle of each heating wire includes the heating time, the oil absorption time of the oil absorption cotton on the heating wire, and the working interval time with the other heating wire. After collecting the atomization oil quantity state parameter, it is convenient to determine the e - liquid atomization quantity of the dual - atomizer during the alternating atomization process, so as to facilitate determining the e - liquid consumption situation of the dual - atomizer, and further facilitate determining the e - liquid reduction amount of the dual - atomizer, and also facilitate effectively judging the alternating heating change situation of the two heating wires of the dual - atomizer subsequently. The preset oil quantity state parameter is the standard e - liquid atomization state of the dual - atomizer during dual - atomization, that is, the preset oil quantity state parameter is one of the standard atomization states of the dual - atomizer during alternating atomization, and also the specified oil quantity change state of one of the heating wires of the dual - atomizer during the working cycle. Through the atomization alternation processing of the atomization oil quantity state parameter and the preset oil quantity state parameter, it is convenient to determine the difference between the atomization oil quantity state parameter and the preset oil quantity state parameter, so as to facilitate determining the difference degree between the current e - liquid atomization quantity and the standard e - liquid atomization quantity of the dual - atomizer, and then facilitate determining the oil absorption quantity difference of the oil absorption cotton on the non - working heating wire in the dual - atomizer. After determining the atomization alternating oil difference, send a heating alternating opening and closing signal to the dual - atomizer control system in a timely manner to adjust the heating state of the dual heating wires of the dual - atomizer, which is convenient to timely adjust the alternating heating situation of the two heating wires of the dual - atomizer, so as to facilitate timely changing the heating state of the two heating wires of the dual - atomizer, and further facilitate the oil absorption cotton on the other non - heating heating wire to absorb a sufficient amount of e - liquid during the working process of one heating wire, so as to have enough e - liquid for atomization during the subsequent alternating heating process, in order to improve the balance of the atomization quantity during the alternating atomization process, that is, the atomization quantities of the two heating wires in the individual atomization processes are the same.The atomization alternating oil absorption difference is the difference between the amount of e-liquid reduction in the dual-coil atomizer during the alternating atomization process and the standard reduction amount. The preset oil absorption difference is the standard difference between the amount of e-liquid reduction in the dual-coil atomizer during the alternating atomization process and the standard reduction amount. Specifically, the preset oil absorption difference is the difference amount when the amount of e-liquid reduction in the dual-coil atomizer during the alternating atomization process is equal to the standard reduction amount. When the atomization alternating oil absorption difference is greater than or equal to the preset oil absorption difference, it indicates that the amount of e-liquid reduction in the dual-coil atomizer during the alternating atomization process is equal to the standard amount of e-liquid reduction, that is, it indicates that the amount of e-liquid reduction in the dual-coil atomizer during the alternating atomization process is equal to the oil absorption amount of the wicking cotton, which also means that the wicking cotton on the non-heated heating wire of the dual-coil atomizer absorbs a sufficient amount of e-liquid during the alternating atomization process. In this way, during each alternating heating process of the two heating wires of the dual-coil atomizer, the wicking cotton on each heating wire absorbs an equal amount of e-liquid. At this time, a heating alternating start signal is sent to the dual-coil atomization control system to facilitate timely changing the heating states of the two heating wires of the dual-coil atomizer, effectively improving the balance of the atomization amount during the alternating atomization process. In another embodiment, when the atomization alternating oil absorption difference is less than the preset oil absorption difference, a heating alternating stop signal is sent to the dual-coil atomization control system to stop changing the heating states of the two heating wires of the dual-coil atomizer, that is, to maintain the current heating state.

[0045] In one embodiment, obtaining the atomization oil amount state parameter of the dual-coil atomizer includes: obtaining the alternating atomization interval time of the dual-coil atomizer. In this embodiment, the atomization oil amount state parameter is the e-liquid atomization state of the dual-coil atomizer during the dual-coil atomization, that is, the atomization oil amount state parameter is one of the atomization states of the dual-coil atomizer during the alternating atomization, which also means that the atomization oil amount state parameter is the oil amount change state of one of the heating wires of the dual-coil atomizer during the working cycle. Among them, the working cycle of each heating wire includes the heating time, the oil absorption time of the wicking cotton on the heating wire, and the working interval time with the other heating wire. After collecting the atomization oil amount state parameter, it is convenient to determine the e-liquid atomization amount of the dual-coil atomizer during the alternating atomization process, so as to facilitate determining the e-liquid consumption situation of the dual-coil atomizer, and further facilitate determining the e-liquid reduction amount of the dual-coil atomizer, which is also convenient for effectively judging the alternating heating change situation of the two heating wires of the dual-coil atomizer in the future. The atomization oil amount state parameter is the alternating atomization interval time, and the alternating atomization interval time reflects the e-liquid drop situation of the dual-coil atomizer during the alternating atomization process, that is, the alternating atomization interval time reflects the amount of e-liquid reduction in the dual-coil atomizer during the alternating atomization process, which also means that the alternating atomization interval time reflects the amount of e-liquid absorbed by the wicking cotton on the non-heated heating wire of the dual-coil atomizer during the alternating atomization process, facilitating the determination of the alternating atomization e-liquid change situation of the dual-coil atomizer.

[0046] Further, the process of performing atomization alternation processing on the atomized oil quantity state parameter and the preset oil quantity state parameter to obtain an atomization alternation oil difference includes: obtaining a difference between the alternation atomization interval time and the preset interval time to obtain an atomization alternation oil guiding difference quantity. In this embodiment, the atomized oil quantity state parameter is the e-liquid atomization state of the dual-coil atomizer during dual-coil atomization, that is, the atomized oil quantity state parameter is one of the atomization states of the dual-coil atomizer during alternation atomization, that is, the atomized oil quantity state parameter is the oil quantity change state of one of the heating wires of the dual-coil atomizer during the working cycle. Among them, the working cycle of each heating wire includes a heating time, an oil absorption time of the oil absorption cotton on the heating wire, and a working interval time with the other heating wire. After collecting the atomized oil quantity state parameter, it is convenient to determine the e-liquid atomization quantity of the dual-coil atomizer during alternation atomization, so as to facilitate determining the e-liquid consumption situation of the dual-coil atomizer, and further facilitate determining the e-liquid reduction amount of the dual-coil atomizer, and also facilitate effectively judging the alternation heating change situation of the two heating wires of the dual-coil atomizer in the subsequent process. The atomized oil quantity state parameter is the alternation atomization interval time, and the alternation atomization interval time reflects the e-liquid decline situation of the dual-coil atomizer during alternation atomization, that is, the alternation atomization interval time reflects the e-liquid reduction amount of the dual-coil atomizer during alternation atomization, that is, the alternation atomization interval time reflects the e-liquid quantity absorbed by the oil absorption cotton on the unheated heating wire of the dual-coil atomizer during alternation atomization, which is convenient for determining the alternation atomization e-liquid change situation of the dual-coil atomizer. The preset interval time reflects the standard e-liquid decline situation of the dual-coil atomizer during alternation atomization, that is, the preset interval time reflects the standard e-liquid reduction amount of the dual-coil atomizer during alternation atomization, that is, the preset interval time reflects the specified e-liquid quantity absorbed by the oil absorption cotton on the unheated heating wire of the dual-coil atomizer during alternation atomization. The atomization alternation oil guiding difference quantity is obtained based on the alternation atomization interval time and the preset interval time, that is, by obtaining the difference quantity between the alternation atomization interval time and the preset interval time. Specifically, the difference between the alternation atomization interval time and the preset interval time is the interval duration of the e-liquid decline of the dual-coil atomizer during alternation atomization. Then, based on the oil guiding rate of the oil absorption cotton, the e-liquid atomization volume of the dual-coil atomizer during alternation atomization can be determined, so as to facilitate determining the difference between the e-liquid reduction amount and the standard reduction amount of the dual-coil atomizer during alternation atomization, that is, the atomization alternation oil guiding difference quantity.

[0047] Further, sending a heating alternating opening and closing signal to the dual - atomizer atomization control system according to the atomization alternating oil difference to adjust the heating state of the dual heating wires of the dual - atomizer includes: detecting whether the atomization alternating oil guiding difference is less than a preset oil guiding difference; when the atomization alternating oil guiding difference is less than the preset oil guiding difference, sending a heating alternating closing signal to the dual - atomizer atomization control system to maintain the heating state of the two heating wires of the dual - atomizer. In this embodiment, the atomization alternating oil difference is based on the atomization oil quantity state parameter and the preset oil quantity state parameter. The atomization oil quantity state parameter is the e - liquid atomization state of the dual - atomizer during dual - atomization, that is, the atomization oil quantity state parameter is one of the atomization states of the dual - atomizer during alternating atomization, that is, the atomization oil quantity state parameter is the oil quantity change state of one of the heating wires of the dual - atomizer during the working cycle. Wherein, the working cycle of each heating wire includes the heating time, the oil absorption time of the absorbent cotton on the heating wire, and the working interval time with the other heating wire. After collecting the atomization oil quantity state parameter, it is convenient to determine the e - liquid atomization quantity of the dual - atomizer during the alternating atomization process, so as to facilitate determining the e - liquid consumption situation of the dual - atomizer, and further facilitate determining the e - liquid reduction amount of the dual - atomizer, and also facilitate effectively judging the alternating heating change situation of the two heating wires of the dual - atomizer in the follow - up. The preset oil quantity state parameter is the standard e - liquid atomization state of the dual - atomizer during dual - atomization, that is, the preset oil quantity state parameter is one of the standard atomization states of the dual - atomizer during alternating atomization, that is, the preset oil quantity state parameter is the specified oil quantity change state of one of the heating wires of the dual - atomizer during the working cycle. Through the atomization alternation processing of the atomization oil quantity state parameter and the preset oil quantity state parameter, it is convenient to determine the difference between the atomization oil quantity state parameter and the preset oil quantity state parameter, so as to facilitate determining the difference degree between the current e - liquid atomization quantity of the dual - atomizer and the standard e - liquid atomization quantity, and then facilitate determining the oil absorption quantity difference of the absorbent cotton on the un - working heating wire in the dual - atomizer. After determining the atomization alternating oil difference, timely send a heating alternating opening and closing signal to the dual - atomizer atomization control system to adjust the heating state of the dual heating wires of the dual - atomizer, which is convenient to timely adjust the alternating heating situation of the two heating wires of the dual - atomizer, so as to facilitate timely changing the heating state of the two heating wires of the dual - atomizer, and further facilitate the absorbent cotton on the other un - heated heating wire to absorb a sufficient amount of e - liquid during the working process of one heating wire, so as to have enough e - liquid for atomization during the subsequent alternating heating process, in order to improve the balance of the atomization quantity during the alternating atomization process, that is, the atomization quantities of the two heating wires in the individual atomization processes are the same.The atomization alternating oil guiding differential is the difference between the amount of e-liquid reduction of the dual-coil atomizer during the alternating atomization process and the standard reduction amount. The preset oil absorption differential is the standard difference between the amount of e-liquid reduction of the dual-coil atomizer during the alternating atomization process and the standard reduction amount. Specifically, the preset oil guiding differential is the differential when the amount of e-liquid reduction of the dual-coil atomizer during the alternating atomization process is equal to the standard reduction amount. When the atomization alternating oil guiding differential is less than the preset oil guiding differential, it indicates that the amount of e-liquid reduction of the dual-coil atomizer during the alternating atomization process is not equal to the standard amount of e-liquid reduction, that is, it indicates that the amount of e-liquid reduction of the dual-coil atomizer during the alternating atomization process is less than the oil guiding amount of the wicking cotton, which also means that too little e-liquid is guided by the wicking cotton on the unheated heating wire of the dual-coil atomizer during the alternating atomization process. Thus, during each alternating heating process of the two heating wires of the dual-coil atomizer, if the wicking cotton on any one of the unheated heating wires has insufficient e-liquid introduced, a heating alternating shutdown signal is sent to the dual-coil atomization control system at this time to maintain the heating state of the two heating wires of the dual-coil atomizer, facilitating the wicking cotton on the unheated heating wire to continue to introduce e-liquid to a sufficient amount, effectively improving the balance of the atomization amount during the alternating atomization process. In another embodiment, when the atomization alternating oil guiding differential is greater than or equal to the preset oil guiding differential, a heating alternating start signal is sent to the dual-coil atomization control system to alternately change the heating states of the two heating wires of the dual-coil atomizer, that is, to start controlling the alternating change of the heating states of the two heating wires of the dual-coil atomizer.

[0048] During the actual alternating atomization process of the dual-coil atomizer, the two heating wires of the dual-coil atomizer alternately heat to continuously atomize the e-liquid in the dual-coil atomizer, thereby continuously providing atomized gas, facilitating the maintenance of the consistency of the active ingredients in the provided atomized gas. However, as the e-liquid is continuously heated and atomized and consumed, its volume gradually decreases, which easily leads to too low an amount of e-liquid on the wicking cotton of the heating wire, thus easily causing the heating wire to continuously dry-burn the wicking cotton at the upper end, affecting the content of the active ingredients in the generated atomized gas, and further affecting the stability of the active ingredients in the atomized gas.

[0049] To ensure the stability of the active ingredients in the atomized gas generated by the dual-coil atomizer, heating alternating opening and closing signals are sent to the dual-coil atomization control system according to the atomization alternating oil difference value to adjust the heating states of the two heating wires of the dual-coil atomizer. After that, the following steps are further included:

[0050] Obtain the lateral thermal radiation image of the heating side of the dual-coil atomizer;

[0051] Obtain the point thermal radiation flux of the heating side according to the lateral thermal radiation image of the heating side;

[0052] Detect whether the point thermal radiation flux of the heating side is greater than the preset radiation flux;

[0053] When the heat radiation flux of the heating side point is greater than the preset radiation flux, a heat generation alarm signal is sent to the dual - atomizing control system to interrupt the electric energy output from the battery rod to the dual - atomizing device.

[0054] In this embodiment, the heating - side thermal radiation image is a side - direction sampling image of the dual - atomizing device. The heating - side thermal radiation image includes a combined image of the heating wire and the oil - absorbing cotton of the dual - atomizing device. The heating - side thermal radiation image is used to display the working state of the heating wire and the oil - absorbing cotton of the dual - atomizing device in the combined state. Specifically, the main body of the dual - atomizing device is transparent, facilitating the acquisition of the heating - side thermal radiation image of the dual - atomizing device by the infrared sensor. The heating - side point heat radiation flux is obtained based on the heating - side thermal radiation image. For example, the heating - side point heat radiation flux corresponds to the upper end of the heating wire and the oil - absorbing cotton of the dual - atomizing device. When the heating - side point heat radiation flux is greater than the preset radiation flux, it indicates that the radiation intensity of the upper end of the heating wire of the dual - atomizing device is too large, that is, it indicates that there is a large - intensity infrared radiation at the upper end of the heating wire of the dual - atomizing device, which also means that there is too little e - liquid at the upper end of the heating wire and the oil - absorbing cotton of the dual - atomizing device. At this time, if heating continues, the heating wire will continuously dry - burn the oil - absorbing cotton, easily leading to partial carbonization of the oil - absorbing cotton. To avoid the above situation, a heat generation alarm signal is sent to the dual - atomizing control system to promptly send a dry - burning alarm at the upper end of the heating wire, so as to interrupt the electric energy output from the battery rod to the dual - atomizing device, effectively ensuring the stability of the effective components of the atomized gas generated by the dual - atomizing device.

[0055] Further, after detecting whether the heating - side point heat radiation flux is greater than the preset radiation flux, the following steps are also included:

[0056] When the heating - side point heat radiation flux is less than or equal to the preset radiation flux, the single - ventilation time of the dual - atomizing device is obtained;

[0057] Detect whether the single - ventilation time matches the preset ventilation time;

[0058] When the single - ventilation time matches the preset ventilation time, a heat - generation dual - opening signal is sent to the dual - atomizing control system to enable the dual heating wires of the dual - atomizing device to be turned on simultaneously.

[0059] In this embodiment, the thermal radiation flux at the heating side is less than or equal to the preset radiation flux, indicating that the radiation intensity at the upper end of the heating wire of the dual-coil atomizer is relatively small, that is, it indicates that normal or low-intensity infrared radiation appears at the upper end of the heating wire of the dual-coil atomizer, which also means that there is sufficient e-liquid at the upper end of the heating wire of the dual-coil atomizer and the absorbent cotton. At this time, if heating continues, the heating wire normally atomizes the e-liquid on the absorbent cotton. At this time, the dual-coil atomizer is in the atomization state, that is, the hollow channel of the dual-coil atomizer is still discharging atomized gas outward, so that the dual-coil atomizer continuously outputs atomized gas. However, the active ingredients in the continuously output atomized gas of the dual-coil atomizer directly affect the use. In case of urgent use, the content of active ingredients in the atomized gas is insufficient. The single ventilation time is the gas outlet time of the dual-coil atomizer in the alternating atomization state, that is, the single ventilation time is the gas output duration generated by a single atomization of the dual-coil atomizer in the alternating atomization state. The preset ventilation time is the maximum gas output duration generated by a single atomization of the dual-coil atomizer in the alternating atomization state. The matching of the single ventilation time and the preset ventilation time indicates that the single atomization output time of the dual-coil atomizer is relatively long, that is, it indicates that the single atomization output time of the dual-coil atomizer exceeds the predetermined time. At this time, the content of active ingredients in the atomized gas atomized by the dual-coil atomizer is likely to be too low. To avoid the above situation, a heating dual-on signal is sent to the dual-coil atomization control system to simultaneously turn on the two heating wires of the dual-coil atomizer, so as to turn on the dual-on mode of the dual-coil atomizer, which is convenient for increasing the atomization amount of the dual-coil atomizer, thereby increasing the content of active ingredients in the atomized gas atomized by the dual-coil atomizer.

[0060] In another embodiment, after sending the heating dual-on signal to the dual-coil atomization control system to simultaneously turn on the two heating wires of the dual-coil atomizer, the following steps are further included:

[0061] Obtain the first atomization heating voltage and the second atomization heating voltage of the two heating wires of the dual-coil atomizer;

[0062] Detect whether the first atomization heating voltage is equal to the second atomization heating voltage;

[0063] When the first atomization heating voltage is not equal to the second atomization heating voltage, send a dual-on voltage equalization signal to the dual-coil atomization control system to increase both the first atomization heating voltage and the second atomization heating voltage of the two heating wires of the dual-coil atomizer to the dual-on atomization heating voltage.

[0064] In this embodiment, the first atomization heating voltage is the operating voltage of one of the heating wires of the dual-coil atomizer, and the second atomization heating voltage is the operating voltage of the other heating wire of the dual-coil atomizer. That is, the first atomization heating voltage and the second atomization heating voltage are the atomization voltages of the two heating wires of the dual-coil atomizer during atomization. The inequality between the first atomization heating voltage and the second atomization heating voltage indicates that the voltage drops of one of the heating wires of the dual-coil atomizer in its respective voltage-dividing circuit are different. At this time, a dual-switch equalizing signal is sent to the dual-coil atomization control system to increase both the first atomization heating voltage and the second atomization heating voltage of the dual heating wires of the dual-coil atomizer to the dual-switch atomization heating voltage, so that the two heating wires of the dual-coil atomizer are at the same heating temperature, facilitating the simultaneous atomization of an equal amount of atomization gas by the two heating wires of the dual-coil atomizer. Among them, the two heating wires of the dual-coil atomizer are in two separate voltage-dividing circuits. There are two reasons for the different atomization voltages. On the one hand, it is the resistance tolerance of the heating wire, and on the other hand, it is the contact area between the heating wire and the e-liquid on the wicking cotton.

[0065] The above various preset variables are all set in the database for easy and timely extraction. Different preset variables are placed in different storage units, that is, in different storage stacks. Moreover, the e-liquid volume state parameter, the heat radiation flux on the heating side, the first atomization heating voltage, and the second atomization heating voltage can be collected by corresponding detectors. For example, they can be collected by an e-liquid volume collection module.

[0066] In one embodiment, the present application also provides a dual-coil atomization monitoring device, which is implemented by using the dual-coil atomization monitoring method described in any of the above embodiments. In one embodiment, the dual-coil atomization monitoring device has functional modules corresponding to each step of the dual-coil atomization monitoring method. The dual-coil atomization monitoring device includes an e-liquid volume collection module, an atomization alternation processing module, and a heat exchange monitoring module. The e-liquid volume collection module is used to obtain the e-liquid volume state parameter of the dual-coil atomizer. The atomization alternation processing module is used to perform atomization alternation processing on the e-liquid volume state parameter and the preset e-liquid volume state parameter to obtain an atomization alternation oil difference. The heat exchange monitoring module is used to send a heating alternation opening and closing signal to the dual-coil atomization control system according to the atomization alternation oil difference to adjust the heating state of the dual heating wires of the dual-coil atomizer.

[0067] In this embodiment, the atomized oil quantity acquisition module collects the state parameters of the atomized oil quantity to facilitate determining the atomized state of the e-liquid of the dual atomizers during dual atomization. Then, the atomization replacement processing module compares the state parameters of the atomized oil quantity with the preset oil quantity state parameters to facilitate determining the difference between the two. Finally, the heat exchange monitoring module monitors the current atomization replacement situation of the dual atomizers according to the difference reflected by the above atomization replacement oil difference, so as to adjust the working state of the dual atomizers during the atomization replacement process, facilitating timely adjustment of the heating state change of the dual heating wires after the e-liquid atomization quantity reaches the specified amount, effectively improving the balance of the atomization quantity during the atomization replacement process.

[0068] In one embodiment, a computer device is provided. The computer device can be a server, and its internal structure diagram can be as Figure 2 shown. The computer device includes a processor, a memory, and a network interface connected through a system bus. Among them, the processor of the computer device is used to provide computing and control capabilities. The memory of the computer device includes a non-volatile storage medium and an internal memory. The non-volatile storage medium stores an operating system, a computer program, and a database. The internal memory provides an environment for the operation of the operating system and the computer program in the non-volatile storage medium. The database of the computer device is used to store data such as the state parameters of the atomized oil quantity, the preset oil quantity state parameters, and the heating replacement opening and closing signals. The network interface of the computer device is used to communicate with an external terminal through a network connection. When the computer program is executed by the processor, it implements a dual atomization monitoring method.

[0069] Those skilled in the art can understand that Figure 2 the structure shown in

[0070] is only a block diagram of some structures related to the solution of this application, and does not constitute a limitation on the computer device to which the solution of this application is applied. The specific computer device may include more or fewer components than those shown in the figure, or combine some components, or have different component arrangements.

[0071] In one of the embodiments, this application also provides a computer device, including a memory and a processor. A computer program is stored in the memory, and when the processor executes the computer program, it implements the steps in the above method embodiments.

[0072] Those of ordinary skill in the art can understand that all or part of the processes in the methods of the above embodiments can be completed by instructing relevant hardware through a computer program. The computer program can be stored in a non-volatile computer-readable storage medium. When the computer program is executed, it can include the processes of the embodiments of the above methods. Among them, any reference to a memory, storage, database, or other medium used in the embodiments provided in the present application can include at least one of non-volatile and volatile memories. Non-volatile memory can include read-only memory (ROM), magnetic tape, floppy disk, flash memory, or optical memory, etc. Volatile memory can include random access memory (RAM) or external cache memory. By way of illustration and not limitation, RAM can be in various forms, such as static random access memory (SRAM) or dynamic random access memory (DRAM), etc.

[0073] The above-described embodiments merely represent several implementation manners of the present invention. The description thereof is relatively specific and detailed, but it should not be construed as a limitation on the scope of the invention patent. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present invention, several modifications and improvements can still be made, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the present invention patent shall be subject to the appended claims.

Claims

1. A dual-atomization monitoring method, characterized in that, Including: Obtain the atomization oil quantity status parameter of the dual - atomizer; Perform atomization alternating processing on the atomization oil quantity status parameter and a preset oil quantity status parameter to obtain an atomization alternating oil difference; Send a heating alternating opening - closing signal to the dual - atomizer control system according to the atomization alternating oil difference to adjust the heating state of the dual - heating wires of the dual - atomizer; Obtain the heating - side thermal radiation image of the dual - atomizer; Obtain the heating - side point thermal radiation flux according to the heating - side thermal radiation image; Detect whether the heating - side point thermal radiation flux is greater than a preset radiation flux; When the heating - side point thermal radiation flux is greater than the preset radiation flux, send a heating alarm signal to the dual - atomizer control system to interrupt the electric energy output from the battery rod to the dual - atomizer; And when the heating - side point thermal radiation flux is less than or equal to the preset radiation flux, obtain the single - ventilation time of the dual - atomizer; Detect whether the single - ventilation time matches the preset ventilation time; When the single - ventilation time matches the preset ventilation time, send a heating dual - opening signal to the dual - atomizer control system to enable the dual - heating wires of the dual - atomizer to be turned on simultaneously.

2. The dual-atomization monitoring method according to claim 1, characterized in that, The obtaining of the atomization oil quantity status parameter of the dual - atomizer includes: Obtain the height of the oil liquid under alternating atomization of the dual - atomizer.

3. The dual-atomization monitoring method according to claim 2, characterized in that, The performing of atomization alternating processing on the atomization oil quantity status parameter and a preset oil quantity status parameter to obtain an atomization alternating oil difference includes: Calculate the difference between the height of the oil liquid under alternating atomization and the preset liquid height to obtain an atomization alternating oil absorption difference.

4. The dual-atomization monitoring method according to claim 3, characterized in that, The sending of a heating alternating opening - closing signal to the dual - atomizer control system according to the atomization alternating oil difference to adjust the heating state of the dual - heating wires of the dual - atomizer includes: Detect whether the atomization alternating oil absorption difference is greater than or equal to a preset oil absorption difference; When the atomization alternating oil absorption difference is greater than or equal to the preset oil absorption difference, send a heating alternating opening signal to the dual - atomizer control system to change the heating state of the two heating wires of the dual - atomizer.

5. The dual-atomization monitoring method according to claim 1, characterized in that, The obtaining of the atomization oil quantity status parameter of the dual - atomizer includes: Obtain the alternating atomization interval time of the dual - atomizer.

6. The dual-atomization monitoring method according to claim 5, characterized in that, The performing of atomization alternating processing on the atomization oil quantity status parameter and a preset oil quantity status parameter to obtain an atomization alternating oil difference includes: Calculate the difference between the alternating atomization interval time and the preset interval time to obtain an atomization alternating oil guiding difference.

7. The dual-atomization monitoring method according to claim 6, characterized in that, The sending of a heating alternating opening - closing signal to the dual - atomizer control system according to the atomization alternating oil difference to adjust the heating state of the dual - heating wires of the dual - atomizer includes: Detect whether the atomization alternating oil guiding difference is less than a preset oil guiding difference; When the atomization alternating oil guiding difference is less than the preset oil guiding difference, send a heating alternating closing signal to the dual - atomizer control system to maintain the heating state of the two heating wires of the dual - atomizer.

8. A dual-atomization monitoring device adopting the dual-atomization monitoring method according to any one of claims 1 to 7, characterized in that, Including: An atomization oil quantity acquisition module, which is used to obtain the atomization oil quantity status parameter of the dual - atomizer; A fog replacement processing module, which is used to perform fog replacement processing on the atomized oil quantity state parameter and a preset oil quantity state parameter to obtain a fog replacement alternating oil difference; A heat exchange monitoring module, which is used to send a heating alternating opening and closing signal to a dual-atomization control system according to the fog replacement alternating oil difference to adjust the heating state of the dual heating wires of the dual-atomizer.

9. A computer device, comprising a memory and a processor, the memory storing a computer program, characterized in that, When the processor executes the computer program, the steps of the method according to any one of claims 1 to 7 are implemented.

10. A computer-readable storage medium, having a computer program stored thereon, characterized in that, When the computer program is executed by a processor, the steps of the method according to any one of claims 1 to 7 are implemented.

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