Atomization Interval Regulation Method for Multi-Channel Use

Abstract

The present application provides an atomization interval regulation method for multi-channels. The method includes obtaining the atomization interval state parameters of an electronic atomizer for multi-channels; performing atomization interval difference processing on the atomization interval state parameters and preset interval state parameters to obtain an atomization alternating difference amount; sending an atomization interval compensation signal to a multi-channel electronic atomization monitoring system according to the atomization alternating difference amount to compensate the alternating interval time of multiple heating wires of the electronic atomizer for multi-channels. By collecting the atomization interval state parameters, it is convenient to determine the atomization interval state of the electronic atomizer for multi-channels during dual-atomization. Then, the atomization interval state parameters are compared with the preset interval state parameters to facilitate determining the difference between the two. Finally, according to the difference situation reflected by the above atomization alternating difference amount, the current alternating atomization interval situation of the electronic atomizer for multi-channels is monitored, effectively improving the consistency of the oil absorption amount on the oil absorption cotton.

Description

Technical Field

[0001] The present invention relates to the technical field of atomization, and particularly to an atomization interval regulation method for multi-channels. 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. An electronic cigarette has the same appearance and similar taste as a cigarette, and even has more flavors than ordinary cigarettes. An electronic cigarette can also suck out smoke, taste, and feeling like a cigarette. In addition, an electronic cigarette does not contain other harmful components such as tar and suspended particles in a cigarette, so an electronic cigarette becomes the best choice to replace a cigarette. Among them, an electronic cigarette with a dual electronic 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 electronic atomization method. For example, during the alternating heating process, since there are many factors affecting the atomized active ingredients, and the pause time for each time is basically the same, it is impossible to ensure different adsorption amounts of e-liquid on the absorbent cotton, thus it is impossible to ensure the taste of the user 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 an atomization interval regulation method for multi-channels that is convenient for improving the consistency of the oil absorption amount on the absorbent cotton.

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

[0006] An atomization interval regulation method for multi-channels, the method comprising:

[0007] Obtaining the atomization interval state parameters of a multi-channel electronic atomizer;

[0008] Performing atomization interval difference processing on the atomization interval state parameters and preset interval state parameters to obtain an atomization alternating difference amount;

[0009] Sending an atomization interval compensation signal to a multi-channel electronic atomization monitoring system according to the atomization alternating difference amount to compensate the alternating interval time of multiple heating wires of the multi-channel electronic atomizer.

[0010] In one embodiment, the obtaining the atomization interval state parameters of a multi-channel electronic atomizer includes: obtaining the heating oil resistance of the multi-channel electronic atomizer.

[0011] In one embodiment, the processing of the atomization interval state parameter and the preset interval state parameter to obtain the atomization alternating interval difference includes: obtaining the difference between the heating oil resistance and the preset oil resistance to obtain the atomization alternating resistance difference.

[0012] In one embodiment, the sending of the atomization interval compensation signal to the multi-channel electronic atomization monitoring system according to the atomization alternating interval difference to compensate the alternating interval time of the multiple heating filaments of the multi-channel electronic atomizer includes: detecting whether the atomization alternating resistance difference is less than or equal to the preset alternating resistance difference; when the atomization alternating resistance difference is less than or equal to the preset alternating resistance difference, sending an atomization interval reduction compensation signal to the multi-channel electronic atomization monitoring system to shorten the alternating interval time of the multiple heating filaments of the multi-channel electronic atomizer.

[0013] In one embodiment, the obtaining of the atomization interval state parameter of the multi-channel electronic atomizer includes: obtaining the hollow air guiding rate of the multi-channel electronic atomizer.

[0014] In one embodiment, the processing of the atomization interval state parameter and the preset interval state parameter to obtain the atomization alternating interval difference includes: obtaining the difference between the hollow air guiding rate and the preset air guiding rate to obtain the atomization alternating air guiding speed difference.

[0015] In one embodiment, the sending of the atomization interval compensation signal to the multi-channel electronic atomization monitoring system according to the atomization alternating interval difference to compensate the alternating interval time of the multiple heating filaments of the multi-channel electronic atomizer includes: detecting whether the atomization alternating air guiding speed difference is greater than the preset air guiding speed difference; when the atomization alternating air guiding speed difference is greater than the preset air guiding speed difference, sending an atomization interval increase compensation signal to the multi-channel electronic atomization monitoring system to extend the alternating interval time of the multiple heating filaments of the multi-channel electronic atomizer.

[0016] In one embodiment, after sending the heating alternating opening and closing signal to the dual-atomizer control system according to the atomization alternating oil difference value to adjust the heating state of the multiple heating filaments of the multi-channel electronic atomizer, the following steps are further included: obtaining the side-position infrared image of the heating filaments of the multi-channel electronic atomizer; obtaining the side-end radiation intensity of the heating filaments according to the side-position infrared image of the heating filaments; detecting whether the side-end radiation intensity of the heating filaments is greater than the preset radiation intensity; when the side-end radiation intensity of the heating filaments is greater than the preset radiation intensity, sending a heating alarm signal to the multi-channel electronic atomization monitoring system to interrupt the electric energy output from the battery rod to the multi-channel electronic atomizer.

[0017] In one embodiment, after detecting whether the radiation intensity at the side end of the heating wire is greater than a preset radiation intensity, the following steps are further included: when the radiation intensity at the side end of the heating wire is less than or equal to the preset radiation intensity, obtain the single ventilation time of the multi-channel electronic atomizer; detect whether the single ventilation time matches the preset ventilation time; when the single ventilation time matches the preset ventilation time, send a multi-heating-on signal to the multi-channel electronic atomization monitoring system so that the multi-heating wires of the multi-channel electronic atomizer are turned on simultaneously.

[0018] In one embodiment, after sending the multi-heating-on signal to the multi-channel electronic atomization monitoring system so that the multi-heating wires of the multi-channel electronic atomizer are turned on simultaneously, the following steps are further included: obtain the first atomization voltage and the second atomization voltage of the multi-heating wires of the multi-channel electronic atomizer; detect whether the first atomization voltage and the second atomization voltage are equal; when the first atomization voltage and the second atomization voltage are not equal, send a multi-on voltage equalization signal to the multi-channel electronic atomization monitoring system so that the first atomization voltage and the second atomization voltage of the multi-heating wires of the multi-channel electronic atomizer are both increased to the multi-on atomization voltage.

[0019] Compared with the prior art, the present invention has at least the following advantages:

[0020] By collecting the atomization interval state parameters, it is convenient to determine the atomization interval state of the multi-channel electronic atomizer during dual-atomization. Then, the atomization interval state parameters are compared with the preset interval state parameters to facilitate determining the difference between the two. Finally, according to the difference reflected by the above atomization alternating interval difference amount, the current alternating atomization interval situation of the multi-channel electronic atomizer is monitored to adjust the interval time of the multi-channel electronic atomizer during the alternating atomization process, so that the oil absorption amount of the oil absorption cotton is quite the same during each alternating interval of atomization, effectively improving the consistency of the oil absorption amount on the oil absorption cotton. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings required for use in the embodiments will be briefly introduced below. It should be understood that the following drawings only show some embodiments of the present invention and should not be regarded as limiting the scope. For those of ordinary skill in the art, other related drawings can be obtained based on these drawings without creative efforts.

[0022] Figure 1 It is a flowchart of an atomization interval control method for multi-channel use in one embodiment;

[0023] Figure 2It is the circuit diagram corresponding to the electronic atomizer for a channel in an embodiment. Detailed implementation manners

[0024] To facilitate the understanding of the present invention, the present invention will be described more comprehensively below with reference to the relevant drawings. The preferred embodiments of the present invention are given 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.

[0025] 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 may also be a middle 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 a middle element at the same time. The terms "vertical", "horizontal", "left", "right" and similar expressions used herein are only for the purpose of illustration and do not represent the only embodiments.

[0026] 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.

[0027] The present invention relates to a method for regulating atomization intervals for multi-channels. In one embodiment, the method for regulating atomization intervals for multi-channels includes obtaining the atomization interval state parameters of an electronic atomizer for multi-channels; performing an atomization interval difference process on the atomization interval state parameters and preset interval state parameters to obtain an atomization alternating interval difference amount; sending an atomization interval compensation signal to an electronic atomization monitoring system for multi-channels according to the atomization alternating interval difference amount to compensate the alternating interval time of multiple heating wires of the electronic atomizer for multi-channels. By collecting the atomization interval state parameters, it is convenient to determine the atomization interval state of the electronic atomizer for multi-channels in dual-atomization. Then, the atomization interval state parameters are compared with the preset interval state parameters to facilitate determining the difference between the two. Finally, according to the difference situation reflected by the above atomization alternating interval difference amount, the current alternating atomization interval situation of the electronic atomizer for multi-channels is monitored to adjust the interval time of the electronic atomizer for multi-channels during the alternating atomization process, so that the oil absorption amount of the oil absorption cotton is equivalent in each alternating interval of atomization, effectively improving the consistency of the oil absorption amount on the oil absorption cotton.

[0028] Please refer to Figure 1, which is a flowchart of an atomization interval regulation method for multi-channels according to an embodiment of the present invention. The atomization interval regulation method for multi-channels includes some or all of the following steps.

[0029] S100: Obtain the atomization interval state parameter of the multi-channel electronic atomizer.

[0030] In this embodiment, the atomization interval state parameter is the atomization interval state of the multi-channel electronic atomizer in dual-coil atomization, that is, the atomization interval state parameter is one of the atomization interval states of the multi-channel electronic atomizer for alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating wires of the multi-channel electronic 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 interval state parameter, it is convenient to determine the pause interval amount of the heating wire during the alternating atomization process of the multi-channel electronic atomizer, so as to facilitate determining the usage interval of each heating wire of the multi-channel electronic atomizer, and further facilitate determining the oil absorption amount of the absorbent cotton on each heating wire of the multi-channel electronic atomizer, and also facilitate effectively judging the interval heating of the two heating wires of the multi-channel electronic atomizer in the subsequent process.

[0031] S200: Perform atomization interval difference processing on the atomization interval state parameter and the preset interval state parameter to obtain the atomization alternating difference amount.

[0032] In this embodiment, the atomization interval state parameter is the atomization interval state of the multi-channel electronic atomizer during dual-atomization, that is, the atomization interval state parameter is one of the atomization interval states of the multi-channel electronic atomizer for alternating atomization, which is also the pause state of one of the heating wires of the multi-channel electronic atomizer during the working cycle. Among them, 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 another heating wire. After collecting the atomization interval state parameter, it is convenient to determine the pause interval amount of the heating wire during the alternating atomization process of the multi-channel electronic atomizer, so as to facilitate determining the usage interval of each heating wire of the multi-channel electronic atomizer, and further facilitate determining the oil absorption amount of the absorbent cotton on each heating wire of the multi-channel electronic atomizer, which is also convenient for effectively judging the interval heating of the two heating wires of the multi-channel electronic atomizer subsequently. The preset interval state parameter is the standard atomization interval state of the multi-channel electronic atomizer during dual-atomization, that is, the atomization interval state parameter is one of the standard atomization interval states of the multi-channel electronic atomizer for alternating atomization, which is also the pause state of one of the heating wires of the multi-channel electronic atomizer at a specified time during the working cycle. The atomization interval difference processing of the atomization interval state parameter and the preset interval state parameter is to process the difference between the atomization interval state parameter and the preset interval state parameter, which is convenient for determining the difference in the oil absorption rate of the current absorbent cotton of the multi-channel electronic atomizer, so as to facilitate determining the difference degree of the interval time required for the alternating atomization of the multi-channel electronic atomizer, and further facilitate adjusting the interval time required for the alternating atomization of the multi-channel electronic atomizer according to the atomization alternating interval difference amount subsequently, so that the oil absorption amount of the absorbent cotton during each alternating interval process of the multi-channel electronic atomizer is equivalent.

[0033] S300: Send an atomization interval compensation signal to the multi-channel electronic atomizer monitoring system according to the atomization alternating interval difference amount to compensate the alternating interval time of the multiple heating wires of the multi-channel electronic atomizer.

[0034] In this embodiment, the atomization alternating difference quantity is obtained based on the atomization interval state parameter and the preset interval state parameter. The atomization interval state parameter is the atomization interval state of the multi-channel electronic atomizer during dual-atomization, that is, the atomization interval state parameter is one of the atomization interval states of the multi-channel electronic atomizer for alternating atomization, and also the atomization interval state parameter is the pause state of one of the heating wires of the multi-channel electronic atomizer during the working cycle. Among them, 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 another heating wire. After collecting the atomization interval state parameter, it is convenient to determine the pause interval quantity of the heating wire during the alternating atomization process of the multi-channel electronic atomizer, so as to facilitate determining the usage interval of each heating wire of the multi-channel electronic atomizer, and further facilitate determining the oil absorption amount of the absorbent cotton on each heating wire of the multi-channel electronic atomizer, which is also convenient for effectively judging the interval heating situation of the two heating wires of the multi-channel electronic atomizer in the subsequent process. The preset interval state parameter is the standard atomization interval state of the multi-channel electronic atomizer during dual-atomization, that is, the atomization interval state parameter is one of the standard atomization interval states of the multi-channel electronic atomizer for alternating atomization, and also the atomization interval state parameter is the pause state of one of the heating wires of the multi-channel electronic atomizer at a specified time during the working cycle. The atomization difference processing of the atomization interval state parameter and the preset interval state parameter is to process the difference between the atomization interval state parameter and the preset interval state parameter, which is convenient for determining the difference in the oil absorption rate of the current absorbent cotton of the multi-channel electronic atomizer, so as to facilitate determining the difference degree of the interval time required for the alternating atomization of the multi-channel electronic atomizer, and further facilitate adjusting the interval time required for the alternating atomization of the multi-channel electronic atomizer according to the atomization alternating difference quantity in the subsequent process, so that the oil absorption amount of the absorbent cotton is equivalent during each alternating interval process of the multi-channel electronic atomizer. After obtaining the atomization alternating difference quantity, it can be determined whether the interval time required for the alternating atomization of the multi-channel electronic atomizer reaches the specified required time. At this time, an atomization interval compensation signal is sent to the multi-channel electronic atomizer monitoring system to compensate the alternating interval time of the multiple heating wires of the multi-channel electronic atomizer, so that the oil absorption amount of the absorbent cotton is equivalent during each alternating interval process of atomization, ensuring that the oil absorption amount on the absorbent cotton is always the same.

[0035] In the above embodiments, by collecting the atomization interval state parameters, it is convenient to determine the atomization interval state of the multi-channel electronic atomizer during dual-atomization. Then, the atomization interval state parameters are compared with the preset interval state parameters to determine the difference between the two. Finally, according to the difference reflected by the above atomization alternating interval difference amount, the current alternating atomization interval of the multi-channel electronic atomizer is monitored to adjust the interval time of the multi-channel electronic atomizer during the alternating atomization process, so that the oil absorption amount of the oil absorption cotton is equivalent during each alternating interval of atomization, effectively improving the consistency of the oil absorption amount on the oil absorption cotton.

[0036] In one embodiment, obtaining the atomization interval state parameter of the multi-channel electronic atomizer includes: obtaining the heating oil resistance of the multi-channel electronic atomizer. In this embodiment, the atomization interval state parameter is the atomization interval state of the multi-channel electronic atomizer in dual-coil atomization, that is, the atomization interval state parameter is one of the atomization interval states of the multi-channel electronic atomizer for alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating filaments of the multi-channel electronic atomizer within a working cycle. Wherein, the working cycle of each heating filament includes a heating time, an oil absorption time of the absorbent cotton on the heating filament, and a working interval time with another heating filament. After collecting the atomization interval state parameter, it is convenient to determine the pause interval amount of the heating filament during the alternating atomization process of the multi-channel electronic atomizer, so as to facilitate determining the usage interval of each heating filament of the multi-channel electronic atomizer, and further facilitate determining the amount of e-liquid adsorbed by the absorbent cotton on each heating filament of the multi-channel electronic atomizer, and also facilitate effectively judging the interval heating condition of the two heating filaments of the multi-channel electronic atomizer subsequently. The preset interval state parameter is the standard atomization interval state of the multi-channel electronic atomizer in dual-coil atomization, that is, the atomization interval state parameter is one of the standard atomization interval states of the multi-channel electronic atomizer for alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating filaments of the multi-channel electronic atomizer at a specified time within a working cycle. The atomization interval difference processing of the atomization interval state parameter and the preset interval state parameter is to process the difference between the atomization interval state parameter and the preset interval state parameter, which is convenient for determining the difference in the oil absorption rate of the current absorbent cotton of the multi-channel electronic atomizer, so as to facilitate determining the degree of difference in the interval time required for the alternating atomization of the multi-channel electronic atomizer, and further facilitate adjusting the interval time required for the alternating atomization of the multi-channel electronic atomizer according to the atomization alternating interval difference amount subsequently, so that the amount of e-liquid adsorbed by the absorbent cotton during each alternating interval process of the multi-channel electronic atomizer is equivalent. The atomization interval state parameter is the heating oil resistance of the multi-channel electronic atomizer. Specifically, the heating oil resistance is the resistance jointly formed by the heating filament of the multi-channel electronic atomizer and the e-liquid in contact therewith. The heating oil resistance is used to reflect the heating condition of the multi-channel electronic atomizer, that is, the heating oil resistance is used to reflect the temperature of the e-liquid on the heating filament of the multi-channel electronic atomizer, that is, the heating oil resistance is used to reflect the activity of the e-liquid on the heating filament of the multi-channel electronic atomizer, which is convenient for determining the flow degree of the e-liquid in the multi-channel electronic atomizer, so as to facilitate corresponding compensation for the alternating interval time subsequently.

[0037] Further, the process of performing atomization interval difference processing on the atomization interval state parameter and the preset interval state parameter to obtain the atomization alternating interval difference amount includes: obtaining the difference between the heating oil resistance and the preset oil resistance to obtain the atomization alternating resistance difference. In this embodiment, the atomization interval state parameter is the atomization interval state of the multi-channel electronic atomizer during dual-coil atomization, that is, the atomization interval state parameter is one of the atomization interval states of the multi-channel electronic atomizer for alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating filaments of the multi-channel electronic atomizer during the working cycle. Among them, the working cycle of each heating filament includes the heating time, the oil absorption time of the absorbent cotton on the heating filament, and the working interval time with another heating filament. After collecting the atomization interval state parameter, it is convenient to determine the pause interval amount of the heating filament during the alternating atomization process of the multi-channel electronic atomizer, so as to facilitate determining the usage interval of each heating filament of the multi-channel electronic atomizer, and further facilitate determining the amount of e-liquid adsorbed by the absorbent cotton on each heating filament of the multi-channel electronic atomizer, and it is also convenient to effectively judge the interval heating situation of the two heating filaments of the multi-channel electronic atomizer subsequently. The preset interval state parameter is the standard atomization interval state of the multi-channel electronic atomizer during dual-coil atomization, that is, the atomization interval state parameter is one of the standard atomization interval states of the multi-channel electronic atomizer for alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating filaments of the multi-channel electronic atomizer at a specified time during the working cycle. The atomization interval difference processing of the atomization interval state parameter and the preset interval state parameter is to process the difference between the atomization interval state parameter and the preset interval state parameter, which is convenient to determine the difference in the oil absorption rate of the current absorbent cotton of the multi-channel electronic atomizer, so as to facilitate determining the difference degree of the interval time required for the alternating atomization of the multi-channel electronic atomizer, and further facilitate adjusting the interval time required for the alternating atomization of the multi-channel electronic atomizer according to the atomization alternating interval difference amount subsequently, so that the amount of e-liquid absorbed by the absorbent cotton during each alternating interval process of the multi-channel electronic atomizer is equivalent. The atomization interval state parameter is the heating oil resistance of the multi-channel electronic atomizer. Specifically, the heating oil resistance is the resistance jointly formed by the heating filament of the multi-channel electronic atomizer and the e-liquid in contact therewith. The heating oil resistance is used to reflect the heating situation of the multi-channel electronic atomizer, that is, the heating oil resistance is used to reflect the temperature of the e-liquid on the heating filament of the multi-channel electronic atomizer, that is, the heating oil resistance is used to reflect the activity of the e-liquid on the heating filament of the multi-channel electronic atomizer.The preset oil resistance is used to reflect the standard heating condition of the multi-channel electronic atomizer, that is, the preset oil resistance is used to reflect the standard temperature of the e-liquid on the heating wire of the multi-channel electronic atomizer, which also means that the preset oil resistance is used to reflect the standard activity of the e-liquid on the heating wire of the multi-channel electronic atomizer. By obtaining the atomization alternating resistance difference, it is convenient to determine the current oil resistance condition of the heating wire of the multi-channel electronic atomizer, thereby facilitating the determination of the oil absorption condition of the oil absorption cotton on the heating wire of the multi-channel electronic atomizer, and further facilitating the subsequent precise regulation of the alternating interval time.

[0038] Further, sending an atomization interval compensation signal to the multi-channel electronic atomization monitoring system according to the atomization alternating difference amount to compensate the alternating interval time of the multiple heating wires of the multi-channel electronic atomizer includes: detecting whether the atomization alternating resistance difference is less than or equal to a preset alternating resistance difference; when the atomization alternating resistance difference is less than or equal to the preset alternating resistance difference, sending an atomization interval reduction compensation signal to the multi-channel electronic atomization monitoring system to shorten the alternating interval time of the multiple heating wires of the multi-channel electronic atomizer. In this embodiment, the atomization alternating difference amount is obtained based on the atomization interval state parameter and the preset interval state parameter. The atomization interval state parameter is the atomization interval state of the multi-channel electronic atomizer in dual-coil atomization, that is, the atomization interval state parameter is one of the atomization interval states of the multi-channel electronic atomizer for alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating wires of the multi-channel electronic atomizer during the working cycle. Among them, the working cycle of each heating wire includes a heating time, an oil absorption time of the absorbent cotton on the heating wire, and a working interval time with another heating wire. After collecting the atomization interval state parameter, it is convenient to determine the pause interval amount of the heating wire during the alternating atomization process of the multi-channel electronic atomizer, so as to facilitate determining the usage interval of each heating wire of the multi-channel electronic atomizer, and further facilitate determining the amount of e-liquid adsorbed by the absorbent cotton on each heating wire of the multi-channel electronic atomizer, and also facilitate effectively judging the interval heating situation of the two heating wires of the multi-channel electronic atomizer in the subsequent process. The preset interval state parameter is the standard atomization interval state of the multi-channel electronic atomizer in dual-coil atomization, that is, the atomization interval state parameter is one of the standard atomization interval states of the multi-channel electronic atomizer for alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating wires of the multi-channel electronic atomizer at a specified time during the working cycle. The atomization difference processing of the atomization interval state parameter and the preset interval state parameter is to process the difference between the atomization interval state parameter and the preset interval state parameter, which is convenient for determining the difference in the oil absorption rate of the current absorbent cotton of the multi-channel electronic atomizer, so as to facilitate determining the difference degree of the interval time required for the alternating atomization of the multi-channel electronic atomizer, and further facilitate adjusting the interval time required for the alternating atomization of the multi-channel electronic atomizer according to the atomization alternating difference amount in the subsequent process, so that the amount of e-liquid adsorbed by the absorbent cotton during each alternating interval process of the multi-channel electronic atomizer is equivalent.The atomization interval state parameter is the heating oil resistance of the multi-channel electronic atomizer. Specifically, the heating oil resistance is the resistance jointly formed by the heating wire of the multi-channel electronic atomizer and the e-liquid in contact therewith. The heating oil resistance is used to reflect the heating condition of the multi-channel electronic atomizer, that is, the heating oil resistance is used to reflect the temperature of the e-liquid on the heating wire of the multi-channel electronic atomizer, and also the activity of the e-liquid on the heating wire of the multi-channel electronic atomizer. The preset oil resistance is used to reflect the standard heating condition of the multi-channel electronic atomizer, that is, the heating oil resistance is used to reflect the standard temperature of the e-liquid on the heating wire of the multi-channel electronic atomizer, and also the standard activity of the e-liquid on the heating wire of the multi-channel electronic atomizer. By obtaining the atomization alternating resistance difference, it is convenient to determine the current oil resistance condition of the heating wire of the multi-channel electronic atomizer, and the preset alternating resistance difference is the standard atomization alternating resistance difference, that is, the preset alternating resistance difference is the standard oil resistance difference of the heating wire of the multi-channel electronic atomizer during the alternating atomization process. When the atomization alternating resistance difference is less than or equal to the preset alternating resistance difference, it indicates that the oil resistance on the heating wire of the multi-channel electronic atomizer during the alternating atomization process is less than the standard oil resistance, that is, it indicates that the oil resistance on the heating wire of the multi-channel electronic atomizer during the alternating atomization process is too small, and also indicates that the power of the heating wire of the multi-channel electronic atomizer during the alternating atomization process is too large. At this time, the multi-channel electronic atomization monitoring system sends an atomization interval reduction and compensation signal to shorten the alternating interval time of the multiple heating wires of the multi-channel electronic atomizer, so that the heating time of the heating wire of the multi-channel electronic atomizer during the alternating atomization process is reduced, thereby slowing down the oil absorption rate of the oil absorption cotton on the heating wire of the multi-channel electronic atomizer during the alternating atomization process, and further making the oil absorption amount of the oil absorption cotton during the current alternating interval of atomization remain comparable to that before, ensuring that the oil absorption amount on the oil absorption cotton is always the same. Among them, the heating wire of the multi-channel electronic atomizer during the alternating atomization process is the heating wire that is about to stop working. This heating wire uses the afterheat after the previous atomization heating to affect the activity of the e-liquid. Moreover, the power supply of the heating wire of the multi-channel electronic atomizer is a constant voltage source battery to ensure that the voltage loaded on each heating wire remains the same.

[0039] In another embodiment, when the atomization alternating resistance difference is greater than the preset alternating resistance difference, an atomization interval addition and compensation signal is sent to the multi-channel electronic atomization monitoring system to increase the alternating interval time of the multiple heating wires of the multi-channel electronic atomizer.

[0040] In one embodiment, obtaining the atomization interval state parameter of the multi-channel electronic atomizer includes: obtaining the hollow air guiding rate of the multi-channel electronic atomizer. In this embodiment, the atomization interval state parameter is the atomization interval state of the multi-channel electronic atomizer in dual-coil atomization, that is, the atomization interval state parameter is one of the atomization interval states of the multi-channel electronic atomizer for alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating wires of the multi-channel electronic atomizer within the working cycle, where 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 with another heating wire. After collecting the atomization interval state parameter, it is convenient to determine the pause interval amount of the heating wire during the alternating atomization process of the multi-channel electronic atomizer, so as to facilitate determining the usage interval of each heating wire of the multi-channel electronic atomizer, and further facilitate determining the amount of e-liquid adsorbed by the oil-absorbing cotton on each heating wire of the multi-channel electronic atomizer, and also facilitate effectively judging the interval heating situation of the two heating wires of the multi-channel electronic atomizer subsequently. The preset interval state parameter is the standard atomization interval state of the multi-channel electronic atomizer in dual-coil atomization, that is, the atomization interval state parameter is one of the standard atomization interval states of the multi-channel electronic atomizer for alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating wires of the multi-channel electronic atomizer at a specified time within the working cycle. The atomization interval difference processing of the atomization interval state parameter and the preset interval state parameter is to process the difference between the atomization interval state parameter and the preset interval state parameter, which is convenient for determining the difference in the oil absorption rate of the current oil-absorbing cotton of the multi-channel electronic atomizer, so as to facilitate determining the degree of difference in the interval time required for the alternating atomization of the multi-channel electronic atomizer, and further facilitate adjusting the interval time required for the alternating atomization of the multi-channel electronic atomizer according to the atomization alternating interval difference amount subsequently, so that the amount of e-liquid adsorbed by the oil-absorbing cotton is equivalent during each alternating interval process of the multi-channel electronic atomizer. The atomization interval state parameter is the hollow air guiding rate of the multi-channel electronic atomizer. Specifically, the hollow air guiding rate is the gas flow velocity in the hollow tube of the multi-channel electronic atomizer. The hollow air guiding rate is used to reflect the air flow situation during the atomization interval process of the multi-channel electronic atomizer, that is, the hollow air guiding rate is used to affect the temperature of the gas flowing through the heating wire in the multi-channel electronic atomizer, that is, the hollow air guiding rate is used to affect the activity of the e-liquid on the heating wire of the multi-channel electronic atomizer, which is convenient for determining the speed of the e-liquid flowing in the multi-channel electronic atomizer, so as to facilitate making corresponding compensation for the alternating interval time subsequently.

[0041] Further, the process of performing atomization interval difference processing on the atomization interval state parameter and the preset interval state parameter to obtain the atomization alternating interval difference amount includes: obtaining the difference between the hollow air guiding rate and the preset air guiding rate to obtain the atomization alternating hollow air guiding speed difference. In this embodiment, the atomization interval state parameter is the atomization interval state of the multi-channel electronic atomizer during dual atomization, that is, the atomization interval state parameter is one of the atomization intervals of the multi-channel electronic atomizer during alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating filaments of the multi-channel electronic atomizer during the working cycle. Among them, the working cycle of each heating filament includes the heating time, the oil absorption time of the oil absorption cotton on the heating filament, and the working interval time with another heating filament. After collecting the atomization interval state parameter, it is convenient to determine the pause interval amount of the heating filament during the alternating atomization process of the multi-channel electronic atomizer, so as to facilitate determining the usage interval of each heating filament of the multi-channel electronic atomizer, and further facilitate determining the oil absorption amount of the oil absorption cotton on each heating filament of the multi-channel electronic atomizer, which is also convenient for effectively judging the interval heating situation of the two heating filaments of the multi-channel electronic atomizer subsequently. The preset interval state parameter is the standard atomization interval state of the multi-channel electronic atomizer during dual atomization, that is, the atomization interval state parameter is one of the standard atomization intervals of the multi-channel electronic atomizer during alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating filaments of the multi-channel electronic atomizer at a specified time during the working cycle. The atomization interval difference processing of the atomization interval state parameter and the preset interval state parameter is to process the difference between the atomization interval state parameter and the preset interval state parameter, which is convenient for determining the difference in the oil absorption rate of the current oil absorption cotton of the multi-channel electronic atomizer, so as to facilitate determining the difference degree of the interval time required for the alternating atomization of the multi-channel electronic atomizer, and further facilitate adjusting the interval time required for the alternating atomization of the multi-channel electronic atomizer according to the atomization alternating interval difference amount subsequently, so that the oil absorption amount of the oil absorption cotton during each alternating interval process of the multi-channel electronic atomizer is equivalent. The atomization interval state parameter is the hollow air guiding rate of the multi-channel electronic atomizer. Specifically, the hollow air guiding rate is the gas flow velocity in the hollow tube of the multi-channel electronic atomizer. The hollow air guiding rate is used to reflect the air flow situation during the atomization interval process of the multi-channel electronic atomizer, that is, the hollow air guiding rate is used to affect the temperature of the gas flowing through the heating filament in the multi-channel electronic atomizer, that is, the hollow air guiding rate is used to affect the activity of the e-liquid on the heating filament of the multi-channel electronic atomizer, which is convenient for determining the flow rate of the e-liquid in the multi-channel electronic atomizer.The preset air guiding rate is used to reflect the standard air flow condition during the atomization interval of the multi-channel electronic atomizer, that is, the preset air guiding rate is used to affect the standard temperature of the heating wire flowing through the multi-channel electronic atomizer, that is, the preset air guiding rate is used to affect the standard activity of the e-liquid on the heating wire of the multi-channel electronic atomizer. By obtaining the atomization alternating air guiding speed difference, it is convenient to determine the current air flow rate and temperature of the heating wire of the multi-channel electronic atomizer, so as to facilitate determining the oil absorption speed of the oil absorption cotton on the heating wire of the multi-channel electronic atomizer, and further facilitating the subsequent precise control of the alternating interval time.

[0042] Further, sending an atomization interval compensation signal to the multi-channel electronic atomization monitoring system according to the atomization alternating difference amount to compensate the alternating interval time of the multiple heating wires of the multi-channel electronic atomizer includes: detecting whether the atomization alternating air guide speed difference is greater than a preset air guide speed difference; when the atomization alternating air guide speed difference is greater than the preset air guide speed difference, sending an atomization interval supplement signal to the multi-channel electronic atomization monitoring system to extend the alternating interval time of the multiple heating wires of the multi-channel electronic atomizer. In this embodiment, the atomization alternating difference amount is obtained based on the atomization interval state parameter and the preset interval state parameter. The atomization interval state parameter is the atomization interval state of the multi-channel electronic atomizer in dual-atomization, that is, the atomization interval state parameter is one of the atomization interval states of the multi-channel electronic atomizer for alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating wires of the multi-channel electronic atomizer within the working cycle. Among them, the working cycle of each heating wire includes a heating time, an oil absorption time of the oil-absorbing cotton on the heating wire, and a working interval time with another heating wire. After collecting the atomization interval state parameter, it is convenient to determine the pause interval amount of the heating wire during the alternating atomization process of the multi-channel electronic atomizer, so as to facilitate determining the usage interval situation of each heating wire of the multi-channel electronic atomizer, and further facilitate determining the oil absorption amount of the oil-absorbing cotton on each heating wire of the multi-channel electronic atomizer, and also facilitate the subsequent effective judgment of the interval heating situation of the two heating wires of the multi-channel electronic atomizer. The preset interval state parameter is the standard atomization interval state of the multi-channel electronic atomizer in dual-atomization, that is, the atomization interval state parameter is one of the standard atomization interval states of the multi-channel electronic atomizer for alternating atomization, that is, the atomization interval state parameter is the pause state of one of the heating wires of the multi-channel electronic atomizer at a specified time within the working cycle. The atomization difference processing of the atomization interval state parameter and the preset interval state parameter is to process the difference between the atomization interval state parameter and the preset interval state parameter, which is convenient to determine the difference in the oil absorption rate of the current oil-absorbing cotton of the multi-channel electronic atomizer, so as to facilitate determining the difference degree of the interval time required for the alternating atomization of the multi-channel electronic atomizer, and further facilitate the subsequent adjustment of the interval time required for the alternating atomization of the multi-channel electronic atomizer according to the atomization alternating difference amount, so that the oil absorption amount of the oil-absorbing cotton is equivalent during each alternating interval process of the multi-channel electronic atomizer.The atomization interval state parameter is the hollow air conduction rate of the multi-channel electronic atomizer. Specifically, the hollow air conduction rate is the gas flow velocity in the hollow tube of the multi-channel electronic atomizer. The hollow air conduction rate is used to reflect the air flow condition during the atomization interval of the multi-channel electronic atomizer, that is, the hollow air conduction rate is used to affect the temperature of the heating wire flowing through the multi-channel electronic atomizer. That is, the hollow air conduction rate is used to affect the activity of the e-liquid on the heating wire of the multi-channel electronic atomizer, which is convenient for determining the flow rate of the e-liquid in the multi-channel electronic atomizer. The preset air conduction rate is used to reflect the standard air flow condition during the atomization interval of the multi-channel electronic atomizer, that is, the preset air conduction rate is used to affect the standard temperature of the heating wire flowing through the multi-channel electronic atomizer. That is, the preset air conduction rate is used to affect the standard activity of the e-liquid on the heating wire of the multi-channel electronic atomizer. By obtaining the atomization alternating hollow air conduction rate difference, it is convenient to determine the current air flow velocity and temperature of the heating wire of the multi-channel electronic atomizer, so as to facilitate the determination of the oil absorption rate of the oil absorption cotton on the heating wire of the multi-channel electronic atomizer.

[0043] The atomization alternating hollow air conduction rate difference is greater than the preset hollow air conduction rate difference, indicating that the air flow velocity on the heating wire of the multi-channel electronic atomizer is greater than the standard flow velocity during the alternating atomization process, that is, it indicates that the temperature of the heating wire of the multi-channel electronic atomizer is too low during the alternating atomization process. That is, it indicates that the heat generation amount of the heating wire of the multi-channel electronic atomizer is too small during the alternating atomization process. At this time, an atomization interval supplement signal is sent to the multi-channel electronic atomization monitoring system to extend the alternating interval time of the multiple heating wires of the multi-channel electronic atomizer, so that the heating time of the heating wire of the multi-channel electronic atomizer is extended during the alternating atomization process. Thus, the oil absorption amount of the oil absorption cotton on the heating wire of the multi-channel electronic atomizer is increased during the alternating atomization process, and further, the oil absorption amount of the oil absorption cotton remains comparable to that before during the current alternating interval of atomization, ensuring that the oil absorption amount on the oil absorption cotton is always the same.

[0044] In another embodiment, when the atomization alternating hollow air conduction rate difference is less than or equal to the preset hollow air conduction rate difference, an atomization interval reduction supplement signal is sent to the multi-channel electronic atomization monitoring system to reduce the alternating interval time of the multiple heating wires of the multi-channel electronic atomizer.

[0045] During the actual alternating atomization process of the multi-channel electronic atomizer, the two heating wires of the multi-channel electronic atomizer heat alternately to continuously atomize the e-liquid in the multi-channel electronic atomizer, so as to continuously provide atomized gas and facilitate maintaining 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 oil-absorbing cotton on the heating wire, thus easily causing the heating wire to continuously dry-burn the oil-absorbing 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.

[0046] To ensure the stability of the active ingredients in the atomized gas atomized by the multi-channel electronic atomizer, a heating alternating on-off signal is sent to the dual-heating atomization control system according to the atomization alternating oil difference to adjust the heating state of the multiple heating wires of the multi-channel electronic atomizer. After that, the following steps are also included:

[0047] Obtain the side-view infrared image of the heating wire of the multi-channel electronic atomizer;

[0048] Obtain the radiation intensity at the side end of the heating wire according to the side-view infrared image of the heating wire;

[0049] Detect whether the radiation intensity at the side end of the heating wire is greater than the preset radiation intensity;

[0050] When the radiation intensity at the side end of the heating wire is greater than the preset radiation intensity, send a heating alarm signal to the multi-channel electronic atomizer monitoring system to interrupt the electric energy output from the battery rod to the multi-channel electronic atomizer.

[0051] In this embodiment, the lateral infrared image of the heating wire is a lateral sampling image of the multi-channel electronic atomizer. The lateral infrared image of the heating wire includes a combined image of the heating wire and the oil-absorbing cotton of the multi-channel electronic atomizer. The lateral infrared image of the heating wire is used to display the working state of the heating wire and the oil-absorbing cotton of the multi-channel electronic atomizer in the combined state. Specifically, the main body of the multi-channel electronic atomizer is transparent, which facilitates obtaining the lateral infrared image of the heating wire of the multi-channel electronic atomizer through an infrared sensor. The radiation intensity at the side end of the heating wire is obtained based on the lateral infrared image of the heating wire. For example, the radiation intensity at the side end of the heating wire corresponds to the upper end of the heating wire and the oil-absorbing cotton of the multi-channel electronic atomizer. When the radiation intensity at the side end of the heating wire is greater than the preset radiation intensity, it indicates that the radiation intensity at the upper end of the heating wire of the multi-channel electronic atomizer is too high, that is, it indicates that there is a relatively high-intensity infrared radiation at the upper end of the heating wire of the multi-channel electronic atomizer, 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 multi-channel electronic atomizer. At this time, if heating continues, the heating wire will continuously dry-burn the oil-absorbing cotton, which easily leads to partial carbonization of the oil-absorbing cotton. To avoid the above situation, a heating alarm signal is sent to the multi-channel electronic atomizer monitoring system to promptly issue 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 multi-channel electronic atomizer, effectively ensuring the stability of the effective components of the atomized gas generated by the multi-channel electronic atomizer.

[0052] Further, after detecting whether the radiation intensity at the side end of the heating wire is greater than the preset radiation intensity, the following steps are also included:

[0053] When the radiation intensity at the side end of the heating wire is less than or equal to the preset radiation intensity, obtain the single ventilation time of the multi-channel electronic atomizer;

[0054] Detect whether the single ventilation time matches the preset ventilation time;

[0055] When the single ventilation time matches the preset ventilation time, send a heating multi-on signal to the multi-channel electronic atomizer monitoring system to enable the multiple heating wires of the multi-channel electronic atomizer to be turned on simultaneously.

[0056] In this embodiment, the radiation intensity at the side end of the heating wire is less than or equal to the preset radiation intensity, indicating that the radiation intensity at the upper end of the heating wire of the multi-channel electronic 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 multi-channel electronic atomizer, which also means that the e-liquid on the upper end of the heating wire and the absorbent cotton of the multi-channel electronic atomizer is sufficient. At this time, if heating continues, the heating wire normally atomizes the e-liquid on the absorbent cotton. At this time, the multi-channel electronic atomizer is in the atomization state, that is, the hollow channels of the multi-channel electronic atomizer are still discharging atomized gas outwards, so that the multi-channel electronic atomizer continuously outputs atomized gas. However, the active ingredients in the continuously output atomized gas of the multi-channel electronic atomizer directly affect the use. In case of urgent use, the content of the active ingredients in the atomized gas is insufficient. The single ventilation time is the gas outlet time of the multi-channel electronic atomizer in the alternating atomization state, that is, the single ventilation time is the gas output duration generated by a single atomization of the multi-channel electronic atomizer in the alternating atomization state. The preset ventilation time is the maximum gas output duration generated by a single atomization of the multi-channel electronic 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 multi-channel electronic atomizer is relatively long, that is, it indicates that the single atomization output time of the multi-channel electronic atomizer exceeds the predetermined time. At this time, the content of the active ingredients in the atomized gas atomized by the multi-channel electronic atomizer is likely to be too low. To avoid the above situation, a multi-heating signal is sent to the multi-channel electronic atomizer monitoring system so that the multi-heating wires of the multi-channel electronic atomizer are turned on simultaneously to activate the multi-open mode of the multi-channel electronic atomizer, which is convenient for increasing the atomization amount of the multi-channel electronic atomizer, thereby increasing the content of the active ingredients in the atomized gas atomized by the multi-channel electronic atomizer.

[0057] In another embodiment, after sending the multi-heating signal to the multi-channel electronic atomizer monitoring system to turn on the multi-heating wires of the multi-channel electronic atomizer simultaneously, the following steps are further included:

[0058] Obtain the first atomization voltage and the second atomization voltage of the multi-heating wires of the multi-channel electronic atomizer;

[0059] Detect whether the first atomization voltage is equal to the second atomization voltage;

[0060] When the first atomization voltage is not equal to the second atomization voltage, send a multi-open voltage equalization signal to the multi-channel electronic atomizer monitoring system so that the first atomization voltage and the second atomization voltage of the multi-heating wires of the multi-channel electronic atomizer are both increased to the multi-open atomization voltage.

[0061] In this embodiment, the first atomization voltage is the operating voltage of one of the heating wires of the multi-channel electronic atomizer, and the second atomization voltage is the operating voltage of an adjacent heating wire of the multi-channel electronic atomizer. That is, the first atomization voltage and the second atomization voltage are the atomization voltages of two adjacent heating wires of the multi-channel electronic atomizer during atomization. The inequality between the first atomization voltage and the second atomization voltage indicates that the voltage drop of one of the heating wires of the multi-channel electronic atomizer in its respective voltage division circuit is different. At this time, a multi-open equalization signal is sent to the multi-channel electronic atomizer monitoring system, so that the first atomization voltage and the second atomization voltage of the multiple heating wires of the multi-channel electronic atomizer are both increased to the multi-open atomization voltage, thereby enabling any two adjacent heating wires of the multi-channel electronic atomizer to be at the same heating temperature, facilitating the simultaneous atomization of an equal amount of atomization gas by two adjacent heating wires of the multi-channel electronic atomizer. Among them, two adjacent heating wires of the multi-channel electronic atomizer are in two separate voltage division 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.

[0062] The above various preset variables are all set in the database for easy extraction in a timely manner, and different preset variables are placed in different storage units, that is, in different storage stacks. Moreover, the atomization interval state parameter, the radiation intensity at the side end of the heating wire, the first atomization voltage, and the second atomization voltage can be collected by corresponding detectors. For example, they can be collected by the atomization oil quantity collection module.

[0063] In one embodiment, the present application also provides an atomization interval regulation device for multi-channel use, which is implemented by using the atomization interval regulation method for multi-channel use described in any of the above embodiments. In one embodiment, the atomization interval regulation device for multi-channel use has function modules corresponding to each step of implementing the atomization interval regulation method for multi-channel use. The atomization interval regulation device for multi-channel use includes an atomization interval collection module, a fog separation processing module, and an interval compensation module; the atomization interval collection module is used to obtain the atomization interval state parameter of the multi-channel electronic atomizer; the fog separation processing module is used to perform fog separation difference processing on the atomization interval state parameter and the preset interval state parameter to obtain an atomization alternating difference amount; the interval compensation module is used to send an atomization interval compensation signal to the multi-channel electronic atomizer monitoring system according to the atomization alternating difference amount to compensate for the alternating interval time of the multiple heating wires of the multi-channel electronic atomizer.

[0064] In this embodiment, the atomization interval acquisition module collects the atomization interval state parameters to facilitate determining the atomization interval state of the multi-channel electronic atomizer during dual-coil atomization. Then, the atomization interval processing module compares the atomization interval state parameters with the preset interval state parameters to facilitate determining the difference between the two. Finally, the interval compensation module monitors the current alternating atomization interval of the multi-channel electronic atomizer according to the difference reflected by the above atomization alternating interval difference amount, so as to adjust the interval time of the multi-channel electronic atomizer during the alternating atomization process, making the oil absorption amount of the oil absorption cotton equivalent during each alternating interval of atomization, effectively improving the consistency of the oil absorption amount on the oil absorption cotton. Among them, for the circuit corresponding to the multi-channel electronic atomizer, see Figure 2 , Q1 and Q2 are MOS transistors for receiving the atomization interval compensation signal to alternately control the energizing heating current of the corresponding heating wire. In other embodiments, the number of MOS transistors corresponds one-to-one with the number of heating wires to facilitate controlling the alternating heating of multiple heating wires.

[0065] The above embodiments only represent several implementation manners of the present invention, and 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 method for regulating atomization intervals for multi-channel use, characterized in that, Including: Obtaining the atomization interval state parameter of an electronic atomizer for multi-channels; Performing atomization interval difference processing on the atomization interval state parameter and a preset interval state parameter to obtain an atomization alternating interval difference; Sending an atomization interval compensation signal to a multi-channel electronic atomization monitoring system according to the atomization alternating interval difference to compensate the alternating interval time of multiple heating wires of the multi-channel electronic atomizer; Among them, the obtaining the atomization interval state parameter of an electronic atomizer for multi-channels includes: Obtaining the hollow air guiding rate of the multi-channel electronic atomizer; The performing atomization interval difference processing on the atomization interval state parameter and a preset interval state parameter to obtain an atomization alternating interval difference includes: Calculating the difference between the hollow air guiding rate and a preset air guiding rate to obtain an atomization alternating hollow air guiding rate difference; The sending an atomization interval compensation signal to a multi-channel electronic atomization monitoring system according to the atomization alternating interval difference to compensate the alternating interval time of multiple heating wires of the multi-channel electronic atomizer includes: Detecting whether the atomization alternating hollow air guiding rate difference is greater than a preset hollow air guiding rate difference; When the atomization alternating hollow air guiding rate difference is greater than the preset hollow air guiding rate difference, sending an atomization interval supplement signal to the multi-channel electronic atomization monitoring system to extend the alternating interval time of multiple heating wires of the multi-channel electronic atomizer.

2. The method for regulating atomization intervals for multi-channel use according to claim 1, characterized in that, After the sending an atomization interval compensation signal to a multi-channel electronic atomization monitoring system according to the atomization alternating interval difference to compensate the alternating interval time of multiple heating wires of the multi-channel electronic atomizer, the following steps are further included: Obtaining a side-position infrared image of the heating wire of the multi-channel electronic atomizer; Obtaining the radiation intensity at the side end of the heating wire according to the side-position infrared image of the heating wire; Detecting whether the radiation intensity at the side end of the heating wire is greater than a preset radiation intensity; When the radiation intensity at the side end of the heating wire is greater than the preset radiation intensity, sending a heating alarm signal to the multi-channel electronic atomization monitoring system to interrupt the electric energy output from the battery rod to the multi-channel electronic atomizer.

3. The method for regulating atomization intervals for multi-channel use according to claim 2, characterized in that, After the detecting whether the radiation intensity at the side end of the heating wire is greater than a preset radiation intensity, the following steps are further included: When the radiation intensity at the side end of the heating wire is less than or equal to the preset radiation intensity, obtaining the single ventilation time of the multi-channel electronic atomizer; Detecting whether the single ventilation time matches a preset ventilation time; When the single ventilation time matches the preset ventilation time, sending a heating multi-turn-on signal to the multi-channel electronic atomization monitoring system to turn on multiple heating wires of the multi-channel electronic atomizer simultaneously.

4. The method for regulating atomization intervals for multi-channel use according to claim 3, characterized in that, After the sending a heating multi-turn-on signal to the multi-channel electronic atomization monitoring system to turn on multiple heating wires of the multi-channel electronic atomizer simultaneously, the following is further included: Obtaining the first atomization voltage and the second atomization voltage of multiple heating wires of the multi-channel electronic atomizer; Detect whether the first atomization voltage is equal to the second atomization voltage; when the first atomization voltage is not equal to the second atomization voltage, send a multi-open equalizing signal to the multi-channel electronic atomization monitoring system, so that the first atomization voltage and the second atomization voltage of the multi-heating wires of the multi-channel electronic atomizer are both increased to the multi-open atomization voltage.

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