WO2017075827A1

WO2017075827A1 - Method of controlling atomization of liquid nicotine in electronic cigarette

Info

Publication number: WO2017075827A1
Application number: PCT/CN2015/094053
Authority: WO
Inventors: 刘秋明; 向智勇; 韦志林; 牛建华
Original assignee: 惠州市吉瑞科技有限公司深圳分公司
Priority date: 2015-11-06
Filing date: 2015-11-06
Publication date: 2017-05-11
Also published as: CN107404937A

Abstract

A method of controlling atomization of liquid nicotine in an electronic cigarette comprises the following steps: S1) when a battery component (1) and an atomizer component (2) are connected, identifying a type of the atomizer component (2); and S2) determining, according to the type of the atomizer component (2), an atomization control mode of the electronic cigarette, and controlling a display module (11) to display an atomization control interface corresponding to the atomization control mode, to enable a user to control and adjust, in the atomization control mode, according to information shown on the atomization control interface, a liquid nicotine atomization power and/or an atomization temperature of the electronic cigarette. The method realizes identification of the type of the atomizer component (2), and configuration of the liquid nicotine atomization control mode according to the type of the atomizer component (2) and specifically for a user, so as to facilitate a user to adjust the liquid nicotine atomization power and/or the atomization temperature, increasing user experience.

Description

Description: The invention relates to an electronic cigarette smoke atomization control method

[0001] The present invention relates to the field of electronic product technologies, and in particular, to an electronic cigarette smoke atomization control method.

Background technique

[0002] Electronic cigarette is a relatively common artificial electronic cigarette product, mainly used for smoking cessation and replacement of cigarettes; the structure of electronic cigarette mainly includes battery components and atomizing components; when the smoker's smoking action is detected, the battery component is The atomizing component supplies power to make the atomizing component in the squirming state; when the atomizing component is turned on, the heating wire is heated, and the smoke oil is evaporated by heat to form an aerosol which simulates the smoke, so that the user has a kind of sucking Similar to the feeling of smoking.

[0003] The existing atomization assembly has two types, and one type of atomization assembly has the following features: When the battery assembly supplies power to the atomization assembly and the power supply is stable, the resistance of the heating wire remains substantially unchanged, and the heat is generated. The temperature of the wire varies with the power supply of the battery component. Specifically, the power supply of the battery component increases when the external factors such as the addition of new smoke oil, replacement of the smoke oil, or large changes in the flow rate of the air flow are not considered.吋, the temperature of the heating wire rises. When the power supply of the battery pack is reduced, the temperature of the heating wire is lowered. When it is necessary to maintain the temperature of the heating wire, it is only necessary to keep the power supply of the battery component unchanged; The type of atomizing component has the following features: When the battery component supplies power to the atomizing component and the power supply is stable

The temperature and resistance of the heating wire vary with the length of the power supply. Specifically, when the external factors such as adding new oil, replacing the oil or changing the flow velocity of the airflow are not considered, when the battery component When the power supply is constant, the temperature of the heating wire increases with the increase of the length of the power supply, and decreases with the decrease of the length of the power supply. When it is necessary to maintain the temperature of the heating wire, the power supply of the battery component needs to be constantly adjusted. . The temperature of the heating wire of the atomizing component directly reflects the atomization power of the electronic cigarette smoke oil (that is, the amount of smoke obtained by atomization of the smoke oil). For the electronic cigarettes with different types of atomizing components, the temperature of the heating wire is adjusted. The principle is different, and the principle of adjusting the atomization power of the smoke oil is also different.

[0004] In the actual use process, the smoker has the need to provide a large amount of smoke for the electronic cigarette, the need for the electronic cigarette to provide a small amount of smoke, and the need for the electronic cigarette to provide a suitable smoke temperature, in order to satisfy Different needs of the smoker for the amount of e-cigarette smoke (ie, the atomization power of the smoke oil) or the temperature of the smoke, The sub-smoke manufacturer sets the smoke atomization control function available to the user in the electronic cigarette, but for the user, the user cannot know the type of the electronic aerosolization component, and can only blindly increase or decrease the smoke of the electronic cigarette. The oil atomizes the power or/and the atomization temperature and determines whether the control is achieved by sensing the amount of smoke.

[0005] That is to say, in the prior art, the electronic cigarette cannot provide the user with the smoke atomization control function according to the type of the atomization component, which causes inconvenience to the user.

technical problem

[0006] The present invention is directed to the prior art, the electronic cigarette can not be targeted to provide the user with the smoke atomization control method according to the type of the atomization component, resulting in technical problems of inconvenience to the user, providing an electronic cigarette The smoke oil atomization control method realizes the connection between the atomization component and the battery component, identifies the type of the atomization component, and sets the smoke atomization control mode for the user according to the type of the atomization component, so as to facilitate The user adjusts the atomization power or/and the atomization temperature of the electronic cigarette oil to improve the user experience. Problem solution

Technical solution

[0007] The present invention provides an electronic cigarette smoke atomization control method, the electronic cigarette includes a display module, a battery assembly, and an atomization assembly, the battery assembly is detachably connected to the atomization assembly, and the control The method includes the following steps:

[0008] Sl, when the battery component and the atomization component are connected to each other, identifying the type of the atomization component; [0009] S2, determining the atomization of the electronic cigarette based on the type of the atomization component Controlling the mode, and controlling the display module to display an atomization control interface corresponding to the atomization control mode, so that the user controls the adjustment in the atomization control mode according to the display information of the atomization control interface. The smoke oil atomization power or/and the atomization temperature of the electronic cigarette.

Advantageous effects of the invention

Beneficial effect

[0010] One or more technical solutions provided by the present invention have at least the following technical effects or advantages:

[0011] The electronic cigarette in the solution of the present invention includes a display module, a battery assembly and an atomization assembly, the battery assembly is detachably connected to the atomization assembly, and the smoke oil atomization control method applied to the electronic cigarette includes: Determining the type of the atomizing component, and determining an atomization control mode of the electronic cigarette based on the type of the atomizing component, and controlling the display output of the display module An atomization control interface corresponding to the atomization control mode, so that the user controls to adjust the smoke atomization power of the electronic cigarette or the atomization control mode according to the display information of the atomization control interface / and atomization temperature. That is, by connecting the atomizing component to the battery component, the type of the atomizing component is identified, and the smoke atomization control mode and the atomization control interface are specifically set for the user according to the type of the atomizing component. In order to facilitate the user to adjust the atomization power or/and the atomization temperature of the smoke oil, the user experience is improved; thereby effectively solving the problem that the electronic cigarette cannot be targeted according to the type of the atomization component in the prior art. The smoke oil atomization control method causes technical problems of inconvenience to the user.

Brief description of the drawing

DRAWINGS

[0012] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings to be used in the embodiments or the prior art description will be briefly described below, and obviously, in the following description The drawings are merely examples of the invention, and those skilled in the art can also obtain other drawings based on the drawings provided without any inventive work.

1 is a flow chart of a first electronic cigarette smoke atomization control method according to an embodiment of the present invention;

2 is a flow chart of a second electronic cigarette smoke atomization control method according to an embodiment of the present invention;

3 is a flowchart of a third electronic cigarette smoke atomization control method according to an embodiment of the present invention;

4 is a flowchart of a fourth electronic cigarette smoke atomization control method according to an embodiment of the present invention;

5 is a schematic diagram of a circuit structure for detecting a temperature of a heating wire by a thermocouple sensor according to an embodiment of the present invention;

6 is a flowchart of a fifth electronic cigarette smoke atomization control method according to an embodiment of the present invention;

7 is a block diagram of an internal structure of an electronic cigarette for detecting a temperature change of a heating wire by detecting a voltage of an end portion of a heating wire according to an embodiment of the present invention;

8A is a block diagram showing the structure of an internal circuit of a first electronic cigarette according to an embodiment of the present invention;

8B is a block diagram showing the structure of an internal circuit of a second electronic cigarette according to an embodiment of the present invention;

9A is a first perspective view of a battery assembly of an electronic cigarette according to an embodiment of the present invention;

9B is a second perspective view of a battery assembly of an electronic cigarette according to an embodiment of the present invention;

9C is a schematic diagram of a connection structure of a battery assembly and an atomizing assembly of an electronic cigarette according to an embodiment of the present invention; 10A is a block diagram showing an internal circuit structure of an electronic cigarette for detecting a temperature change of a heating wire based on a temperature detecting sub-circuit according to an embodiment of the present invention;

10B is a block diagram showing an internal circuit structure of an electronic cigarette for detecting a temperature change of a heating wire based on a voltage detecting sub-circuit according to an embodiment of the present invention;

FIG. 11 is a schematic diagram of a microprocessor and its peripheral circuits according to an embodiment of the present invention; FIG.

12 is a circuit schematic diagram of detecting a voltage of an end portion of a heating wire by using a partial pressure according to an embodiment of the present invention; [0029] FIG. 13 is a schematic diagram of an internal circuit of an electronic cigarette according to an embodiment of the present invention; Schematic diagram of linear regulator circuit;

14 is a schematic diagram of a reset circuit used in an internal circuit of an electronic cigarette according to an embodiment of the present invention; [0031] FIG. 15 is a display diagram of an internal circuit of an electronic cigarette according to an embodiment of the present invention; Alarm circuit schematic diagram;

16 is a schematic diagram of a trigger circuit used in an internal circuit of an electronic cigarette according to an embodiment of the present invention;

17A is a schematic diagram of a charging management sub-circuit of a power supply circuit used in an internal circuit of an electronic cigarette according to an embodiment of the present invention;

17B is a schematic diagram of an external charging sub-circuit of a power supply circuit used in an internal circuit of an electronic cigarette according to an embodiment of the present invention;

18 is a schematic diagram of a battery voltage detecting circuit used in an internal circuit of an electronic cigarette according to an embodiment of the present invention;

FIG. 19 is a schematic diagram of a battery protection circuit used in an internal circuit of an electronic cigarette according to an embodiment of the present invention.

Embodiments of the invention

[0037] The embodiment of the present invention provides an electronic cigarette smoke atomization control method for solving the prior art that the electronic cigarette cannot be targeted, and the user is provided with a smoke oil atomization control method according to the type of the atomization component. The technical problem of inconvenience to the user is realized, the connection between the atomizing component and the battery component is realized, the type of the atomizing component is identified, and the smoke atomization control mode is set for the user according to the type of the atomizing component, It is convenient for users to adjust the atomization power or/and atomization temperature of the smoke oil, which improves the user experience. [0038] The technical solution of the embodiment of the present invention is to solve the above technical problem, and the general idea is as follows:

[0039] An embodiment of the present invention provides an electronic cigarette smoke atomization control method, the electronic cigarette includes a display module, a battery assembly, and an atomization assembly, and the battery assembly is detachably connected to the atomization assembly. The control method includes the following steps: Sl, identifying a type of the atomizing component when the battery component and the atomizing component are connected to each other; S2, determining a fog of the electronic cigarette based on a type of the atomizing component Controlling the mode, and controlling the display module to display an atomization control interface corresponding to the atomization control mode, so that the user controls the atomization control mode according to the display information of the atomization control interface. The smoke oil atomization power or/and the atomization temperature of the electronic cigarette are adjusted.

[0040] It can be seen that, in the embodiment of the present invention, the type of the atomizing component is identified by connecting the atomizing component to the battery component, and the smoke mist is set for the user according to the type of the atomizing component. The control mode and the atomization control interface are convenient for the user to adjust the atomization power or/and the atomization temperature of the smoke oil, thereby improving the user experience; thereby effectively solving the problem that the electronic cigarette cannot be targeted in the prior art. The type of atomizing component provides the user with a smoke atomization control method, which causes technical problems of inconvenience to the user.

[0041] In order to better understand the above technical solutions, the above technical solutions will be described in detail in conjunction with the drawings and specific embodiments. It should be understood that the specific features of the embodiments and embodiments of the present invention are the technical solutions of the present application. The detailed description, rather than the limitation of the technical solution of the present application, can be combined with each other in the embodiments of the present invention and the technical features in the embodiments without conflict.

[0042] Embodiment 1

[0043] Please refer to FIG. 1 , the embodiment provides an electronic cigarette smoke atomization control method, the electronic cigarette includes a display module, a battery assembly, and an atomization assembly, and the battery assembly and the atomization assembly are To remove the connection, such as a plug or a threaded connection, the control method comprises the following steps:

[0044] Sl, when the battery component and the atomization component are connected to each other, identifying the type of the atomization component; [0045] S2, determining the atomization of the electronic cigarette based on the type of the atomization component Controlling the mode, and controlling the display module to display an atomization control interface corresponding to the atomization control mode, so that the user controls the adjustment in the atomization control mode according to the display information of the atomization control interface. The smoke oil atomization power or/and the atomization temperature of the electronic cigarette. Wherein, according to actual use requirements, the atomization control interface may have a function of displaying information and a function of receiving a touch instruction for controlling adjustment of the smoke atomization power or/and the atomization temperature. [0046] Specifically, please refer to FIG. 2, the step S1 specifically includes the following sub-steps:

[0047] Sl, when the battery component and the atomizing component are connected to each other, determining whether the battery component and the atomizing component are in an effective connection state, and obtaining a first determination result;

[0048] S12. When the first determination result is yes, identify the type of the atomizing component.

[0049] In a specific implementation process, the electronic cigarette includes a microprocessor, and the microprocessor is provided with a connection determining pin for determining whether the battery component and the atomizing component are operatively connected; The battery assembly and the atomizing assembly are connected to each other, and the microprocessor determines whether an effective connection signal indicating that the battery component and the atomizing component are effectively connected is transmitted on the connection determining pin to determine the Whether the battery component and the atomizing component are operatively connected; wherein the effective connection signal is one of a high level signal, a low level signal, or an analog to digital conversion signal. For example, when the battery component and the atomization component are not operatively connected, the microprocessor detects that the connection determination pin is a low level signal, and when the connection determination pin is detected to be high Level signal 吋, determining that the battery component and the atomizing component are operatively connected; or, when the battery component and the atomizing component are not operatively connected, the microprocessor detects the connection determination a high level signal on the pin, when it is detected that the connection determining pin is a low level signal 吋, determining that the battery component and the atomizing component are operatively connected; or, when the battery component And the atomizing component is not operatively connected, the microprocessor detects that there is no analog-to-digital conversion signal on the connection determining pin, and when detecting that there is an analog-to-digital conversion signal on the connection determining pin, determining The battery assembly and the atomizing assembly are operatively connected.

[0050] In a specific implementation process, the type of the atomization assembly includes a temperature control type and a power control type. The temperature-controlled atomization component refers to: when the battery component supplies power to the atomization component and the power supply is stable, the temperature and resistance value of the heating wire for atomizing the smoke oil in the atomization component vary with the change of the power supply length. Specifically, without considering the external factors such as adding new oil and oil, when the power supply of the battery pack does not change, the temperature of the heating wire increases with the increase of the length of the power supply, and decreases with the length of the power supply. However, when it is necessary to maintain the temperature of the heating wire, it is necessary to constantly adjust the power supply of the battery component according to the current temperature of the heating wire. The power control type atomizing component refers to: When the battery component supplies power to the atomizing component and the power supply is stable, the resistance value of the heating wire remains substantially unchanged, and the temperature of the heating wire changes according to the power supply power of the battery component. Specifically, Under the premise of not considering the external factors such as adding new oil and oil, when the power supply of the battery pack increases, the temperature of the heating wire rises, when the power supply of the battery pack decreases, the temperature of the heating wire Reduce, when you need to maintain the temperature of the heating wire, you only need to keep the power supply of the battery pack unchanged. However, whether it is a temperature-controlled atomizing component or a power-controlled atomizing component, the temperature and resistance of the heating wire for atomizing the smoke oil therein may change during the initial stage of energization, and the resistance of the heating wire is blocked. The value varies with temperature; the "initial phase of energization" here refers to the stage in which the heating wire is never energized to the preset length of the energization (eg, 300 m _S ~ 400 ms), at which stage, for the temperature-controlled mist For the component, the rate of change or the variation of the resistance value of the heating wire for atomizing the smoke oil with the temperature change is greater than or equal to a first preset value, and for the power control type atomization component, the inside thereof The rate of change or the magnitude of change of the resistance of the heating wire for atomizing the smoke oil with temperature is less than the first predetermined value. When the initial stage of energization ends, and the battery assembly continues to energize the atomization assembly with the same power, the temperature and resistance of the heating wire of the temperature control type atomization assembly still change, and the power control type atomization assembly The resistance of the heating wire is basically no longer changed.

[0051] The step S1 is specifically: when the battery component and the atomization component are connected to each other, the battery component is controlled to continuously supply power to the atomization component for a predetermined length, and the atomization is acquired. Determining the rate of change or the magnitude of the change of the resistance of the heating wire for atomizing the smoke oil in the assembly. When the rate of change or the magnitude of the change is greater than or equal to the first predetermined value, determining that the atomizing component is the The temperature control type atomizing component determines that the atomizing component is the power control type atomizing component when the resistance change rate or the variation amplitude is less than the first preset value. Specifically, when the "change rate of the resistance of the heating wire with the temperature change" is used as a criterion, the first preset value is 6.25%, and the "resistance value of the heating wire varies with temperature" as a criterion.吋, the first preset value is 12.5 ηιΩ. For example, in general, the resistance of the heating wire is 0.2 Ω. When the resistance of the heating wire becomes 0.2125 Ω after the power is turned off for 350 ms, it is determined. The corresponding atomizing component is temperature controlled. If the resistance of the heating wire becomes 0.201 Ω, it is determined that the corresponding atomizing component is of a power control type. In addition, in the specific implementation process, after identifying the type of the atomizing component and obtaining the recognition result, the electronic cigarette will issue a prompt message, such as a light or a sound; of course, for different recognition results, the prompt message sent by the electronic cigarette can also be Different to facilitate user differentiation.

[0052] Further, the step S2 includes:

[0053] when the atomization component is the temperature control type atomization component, determining that the atomization control mode of the electronic cigarette is the first control mode, and controlling the display module display output and the first control a first control interface corresponding to the mode, so that the user displays the first control according to the display information of the first control interface In a mode, a temperature of a heating wire for atomizing the smoke oil in the atomizing assembly is obtained, and a smoke atomization temperature of the electronic cigarette is adjusted based on a temperature control of the heating wire. The display information of the first control interface includes a temperature of a heating wire for atomizing the smoke oil in the atomizing assembly, an output power of the battery component, and a voltage of the battery component;

[0054] when the atomization component is the power control type atomization component, determining that the atomization control mode of the electronic cigarette is a second control mode, and controlling the display module display output and the second control a second control interface corresponding to the mode, so that the user acquires the output power of the battery component in the second control mode according to the display information of the second control interface, and controls based on the output power of the battery component Adjusting the smoke atomizing power of the electronic cigarette. The display information of the second control interface includes a resistance of a heating wire for atomizing the smoke oil in the atomizing assembly, an output power of the battery assembly, and a voltage of the battery assembly.

[0055] Specifically, the first control mode of the electronic cigarette refers to: detecting the current temperature of the heating wire by the electronic cigarette, and adjusting the power supply of the battery component according to the current temperature and the user demand, so as to realize the heating wire mist The adjustment of the temperature. The second control mode of the electronic cigarette means: the electronic cigarette detects the current power supply of the battery component, and adjusts the power supply of the battery component according to the user's demand, so as to realize the adjustment of the heating power of the heating wire. Further, when the atomization control mode of the electronic cigarette is determined to be the first control mode, the display module is controlled to display a first control interface including a temperature of the heating wire, an output power of the battery component, and a voltage of the battery component, when the electronic The atomization control mode of the smoke is determined to be the second control mode, and the display module is controlled to display a second control interface including a resistance of the heating wire, an output power of the battery component, and a voltage of the battery component, so that the user is based on the first control The information on the interface or the second control interface is targeted to input an operational command for adjusting the aerosolizing power or/and the atomizing temperature to the electronic cigarette.

[0056] Based on the above description, the display module of the electronic cigarette outputs different control interfaces according to different types of the atomizing components, and displays different information. Specifically, when the atomization component is the temperature control type atomization component, the display module displays and outputs a first control interface; when the atomization component is the power control type atomization component, The display module displays an output second control interface; further, for the electronic cigarette provided with the control interface switching function, it is capable of receiving and controlling the display module to switch display output the first control interface and the first Second control interface. For example, the battery component is provided with a switching button, the first button operation is received by the switching button, and the first The button operation is converted into a first electrical signal, so that the electronic cigarette controls the display module to switch display the working parameter information of the electronic cigarette based on the first electrical signal, and the working parameter includes a resistance of the heating wire and a heating wire. The temperature, the output power of the battery pack, and the voltage of the battery pack. In order to prevent the user from switching the control interface of the electronic cigarette display module to the atomization control interface that does not correspond to the atomization control mode during use, the user is inconvenient to use, and when the atomization component is the temperature control The atomizing component, and the electronic cigarette receives an operation command for controlling the display module to display and output the second control interface, the electronic cigarette outputs an alarm signal; or, when the atomizing component is The power control type atomizing assembly, and the electronic cigarette receives an operation command for controlling the display module to display and output the first control interface, and the electronic cigarette outputs an alarm signal. The alarm information may be specifically used to remind the user that the atomization control interface is incorrectly switched, such as text information, light information, or sound information, and is not specifically limited herein.

[0057] In a specific implementation process, for the temperature-controlled atomization assembly, when the user smokes, the battery assembly supplies power to the atomization assembly, and the atomization temperature of the atomization assembly is a preset temperature (eg, 220). °C), For the power control type atomizing assembly, when the user smokes, the battery assembly supplies power to the atomizing assembly, and the atomizing power of the atomizing assembly is preset power (eg, 30 W). The electronic cigarette is further provided with an atomization control function for receiving and controlling the electronic cigarette to adjust the smoke atomization power or/and the atomization temperature based on a user's operation instruction. Specifically, the battery component is provided with an increase control button and a decrease control button. After the user smokes, the electronic cigarette receives the second button operation through the increase control button, and converts the second button operation into a second electrical signal. So that the electronic cigarette controls the electronic cigarette to increase the smoke atomization power or/and the atomization temperature based on the second electrical signal, and receives the third button operation by the reduction control button, and the The three-button operation is converted to a third electrical signal to cause the electronic cigarette to control the electronic cigarette to reduce the smoke atomization power or/and the atomization temperature based on the third electrical signal.

[0058] In the specific implementation process, the existing electronic cigarette still has technical problems that prevent the user from knowing whether the oil is about to be exhausted, and continues to smoke after the smoke oil is exhausted, thereby causing the problem of burning cotton, in the solution of the present application. The atomizing component is provided with a heating wire temperature real detecting module inside the temperature control type electronic cigarette. When the user needs to adjust the atomization temperature of the electronic cigarette oil, the heating wire for atomizing the smoke oil in the atomizing component is obtained. The temperature is such that the microprocessor in the electronic cigarette adjusts the power supply of the battery assembly based on the temperature value to achieve adjustment of the atomization temperature of the heating wire. Reasonable use of the heating wire temperature detection module can be solved The problem of burning cotton due to the exhaustion of the smoke oil is continued. Specifically, please refer to FIG. 3, the control method further includes:

[0059] S3, for the electronic cigarette with the atomization component being temperature-controlled, after detecting the smoking signal, supplying power to the heating wire for atomizing the smoke oil in the atomizing assembly to operate the heating wire;

[0060] S4. Acquire a temperature change speed of the heating wire, and determine that the smoke oil is exhausted in the electronic cigarette after the change speed is greater than a second preset value, and stop supplying power to the heating wire.

[0061] Specifically, the specific heat capacity of the heating wire is not A, and the specific heat capacity of the smoke oil is B (greater than A), and the specific heat capacity of the smoke oil adhered to the heating wire is C, wherein C It is greater than A and less than B. It is known from the physical definition of specific heat capacity: Unit mass object changes the internal energy of absorption or release per unit temperature, that is, the specific heat capacity of the substance can directly reflect the temperature change rate. In the present embodiment, by detecting the temperature change rate of the heating wire, the current specific heat capacity of the heating wire can be known by the temperature change rate, that is, whether the heating wire adheres to the smoke oil. In other words, by determining whether the temperature change rate of the heating wire is greater than a second preset value, it is determined whether the current specific heat capacity of the heating wire is similar to the specific heat capacity of the heating wire without adhering the smoke oil, and the temperature change rate of the heating wire is greater than the second preset. The value 吋 indicates that the current specific heat capacity of the heating wire is similar to the heat capacity (A) of the heating wire itself, and thus the amount of smoke oil adhered to the heating wire is not adhered or the amount of the smoked oil is small, so that the fuel consumption of the electronic cigarette can be determined. End, and stop supplying power to the heating wire.

[0062] Further, in a specific implementation process, the temperature values of the initial engraving and ending engraving of a certain preset inter-segment segment may be obtained, and the heating filaments may be calculated through the two temperature values and the preset inter-turn time. Referring to FIG. 4, the electronic cigarette is provided with an oil guiding member that is in contact with the heating wire and supplies oil to the heating wire, and the heating wire atomizes the oil on the oil guiding member to form Smoke, the step S4 specifically includes sub-steps

[0063] S41. Obtain a first temperature value of the heating wire in the first engraving;

[0064] S42, when the temperature of the heating wire rises to a preset second temperature value 吋, obtaining a time required for the heating wire temperature to rise from the first temperature value to the second temperature value, wherein The second temperature value is less than or equal to a temperature value of the oil enthalpy of the oil guiding member;

[0065] S43. Calculate a temperature change speed of the heating wire based on the first temperature value, the second temperature value, and the turn, and the change speed is greater than the second preset value. And determining that the smoke oil in the electronic cigarette is exhausted to stop supplying power to the heating wire. [0066] It should be noted here that, in the above step S42, the temperature of the oil guiding member cracking crucible is the maximum temperature that the oil guiding member can withstand, and in a specific application, the oil guiding member can be heated to the beginning of discoloration. The temperature of the crucible is set to an upper limit of the second temperature value, and the temperature of the initial discoloration crucible may be different depending on the material of the oil guiding member, and is not specifically limited herein.

[0067] In a specific implementation process, the temperature of the heating wire may be detected by a temperature sensor, the temperature sensor being a thermocouple temperature sensor, and the thermocouple temperature sensor is connected to an end of the heating wire. As shown in FIG. 5, the thermocouple temperature sensor includes: a first end line 52 and a second end line 53 connected to an end portion 511 of the heating wire 51; wherein the first end line 52 and the second end line 53 adopt two Different kinds of wire (including alloy wire and non-alloy wire), such as copper, iron or constantan. In Fig. 5, the other end portion 512 of the heating wire 51 opposite to the end portion 51 1 is connected to one end of the electron beam 54 (which is a general material wire); the other end of the electron beam 54 is connected to the positive electrode of the battery, and the second end line The other end of the 53 is connected to the ground for forming a power supply circuit of the heating wire 51; the end of the first end wire 52 and the second end wire 53 remote from the heating wire 51 is connected to the signal amplifier 55 for constituting the temperature detecting of the heating wire 51. Loop. On the one hand, after the smoking signal is obtained, the microprocessor 56 of the electronic cigarette controls the power supply circuit of the heating wire 51 to be turned on, and the heating wire 51 is energized and heated, at the first end line 52 (such as nickel-chromium material) and the second end line 53. (such as constantan material) The temperature difference is formed at both ends. According to the thermocouple temperature measurement principle, the electromotive force signal is output at the cold end of the high-impedance alloy wire and the low-resistance wire; on the other hand, the signal input end of the signal amplifier 55 is first The cold end of the end line 52 and the second end line 53 are connected to obtain the electromotive force signal, and is amplified, and further the amplified electromotive force signal is sent to the microprocessor 56 of the electronic cigarette for processing to obtain the heating wire. The current temperature value of 51.

[0068] In the specific implementation process, the temperature change rate of the heating wire can be obtained by detecting the magnitude of the resistance change of the heating wire, that is, the step S4 is specifically: obtaining the voltage value of the voltage detecting point in the circuit loop where the heating wire is located. Calculating, according to the voltage value, a magnitude of resistance change of the heating wire in a preset turn, and acquiring a temperature change speed of the heating wire based on the change amplitude, and the change speed is greater than a second preset value吋 determining that the smoke oil in the electronic cigarette is exhausted and stopping supplying power to the heating wire; wherein the resistance of the heating wire changes with temperature. The voltage detection point may be the end of the heating wire.

[0069] Specifically, in the present solution, by detecting the voltage value of the heating wire in the preset turn (ie, the unit turn), the resistance change amplitude of the heating wire is obtained, so that the temperature change speed of the heating wire can be known. Re-pass The temperature change rate can be used to know the current specific heat capacity of the heating wire; determine whether the heating wire resistance change speed is greater than the second preset value, that is, whether the current specific heat capacity of the heating wire is similar to the specific heat capacity of the heating wire without adhering the smoke oil ,, The resistance change speed is greater than the second preset value 吋, that is, the current specific heat capacity of the heating wire is close to the heat capacity of the heating wire itself, and thus the amount of the smoke oil adhered to the heating wire is not adhered, and the amount of the smoke oil adhered to the heating wire is small. The smoke oil in the electronic cigarette is exhausted and the power supply to the heating wire is stopped.

[0070] Please refer to FIG. 6, the step S4 includes the following sub-steps:

[0071] S44: acquiring a first voltage value of the end of the heating wire at a first engraving, and acquiring a second voltage value of the end of the heating wire at a second engraving, wherein the second engraving and The first engraving is different from the preset time;

[0072] S45. Calculate, according to the first voltage value and the second voltage value, a magnitude of resistance change of the resistance of the heating wire within the predetermined turn, and acquire the heating wire based on the variation range. The temperature change rate, and after the change speed is greater than the second preset value, determining that the smoke oil is exhausted in the electronic cigarette to stop supplying power to the heating wire.

[0073] Specifically, in the process of the heating wire working, the electric resistance of the heating wire is constantly changing with the accumulation of the heating enthalpy, and the power calculation formula P=U 2/R is known: the heating power of the heating wire (P)—The voltage (U) at the end of the heating wire rises as the heating wire resistance (R) rises or decreases as the heating wire resistance (R) decreases. That is to say, the change of the end voltage (U) of the heating wire can reflect the change of the heating wire resistance (R), and the initial engraving (ie, the first engraving) and the end 所述 between the preset turns are respectively obtained. The voltage value of the engraved (ie, the second engraving), and based on the two voltage values (ie, the first voltage value and the second voltage value), the resistance of the heating wire in the first engraving (Rtl) and the second engraving are determined. a resistance (Rt2), further determining a resistance change of the heating wire between the predetermined turns (0: IRtl-Rt2l/t, further, knowing a temperature change speed of the heating wire by IRtl-Rt2l/t, and The temperature change speed is greater than the second preset value 吋, indicating that the current specific heat capacity of the heating wire is close to the heat capacity of the heating wire itself, thereby indicating that the amount of smoke oil adhered to the heating wire is not adhered or the amount of smoke oil adhered is small, and the electron can be determined. The smoke oil in the smoke is exhausted, and the power supply to the heating wire is stopped. The second preset value is not specifically limited herein depending on the specific heat capacity characteristics of the heating wire.

[0074] In the specific implementation process, the voltage of the end of the heating wire obtained by the measurement may be relatively large, in order to obtain a smaller voltage value, and reflect the larger voltage at the end of the hot wire by the smaller voltage value. To reduce For the difficulty of measuring the small voltage, please refer to FIG. 7. A voltage dividing resistor 71 (for voltage division) may be connected in series in the power supply circuit of the heating wire 70 in the atomizing assembly, and the voltage at the end of the heating wire 70 is obtained in the step S4. The value is specifically: obtaining a voltage dividing value across the voltage dividing resistor 71, and obtaining a voltage value of the end portion of the heating wire 70 based on the power supply voltage of the power supply circuit and the divided voltage value. Specifically, still referring to FIG. 7, the electronic cigarette is provided with a microprocessor 72 and a first switch member 73 and a second switch member 74 electrically connected to the microprocessor 72 and the heating wire 70; The processor 72, the first shutoff member 73 and the heating wire 70 are connected to the two ends of the electronic cigarette battery to form a first loop, and the microprocessor 72, the second shutoff member 74, the voltage dividing resistor 71 and the heating wire 70 are connected to the electronic cigarette. A second loop is formed at both ends of the battery; when the microprocessor 72 controls the first shutter 73 to open, the second shutter 74 is controlled to be closed to operate the heating wire 70, and when the microprocessor 72 controls the second switch When the closing member 74 is turned on, the first closing member 73 is controlled to be closed to obtain the voltage value at the end of the heating wire 70.

[0075] In a specific implementation process, in order to remind the user that the electronic cigarette smoke is about to run out, after the step S4, the method further includes the steps of: outputting an alarm message to remind the user that the smoke oil is exhausted; The alarm information includes at least one of text information, voice information, vibration information, and light information. Correspondingly, a display module for displaying text information, an audio module for broadcasting voice information, a vibration module for emitting vibration information, or an LED lamp for emitting light information may be set in the electronic cigarette, wherein the light information may be Light information with different brightness or different light information.

[0076] It should be noted that the heating wire temperature detecting module disposed inside the electronic cigarette can be disposed in the battery assembly, and the battery assembly can be connected to the atomizing components of two types (temperature control type and power control type). When the atomizing component is a power control type, the heating wire temperature detecting module does not work, and when the atomizing component is a temperature control type, the heating wire temperature detecting module works.

[0077] In summary, by implementing the above technical solution of the present application, after the atomizing component is connected with the battery component, the type of the atomizing component is identified, and the smoke mist is set for the user according to the type of the atomizing component. The control mode and the atomization control interface are convenient for the user to adjust the atomization power or/and the atomization temperature of the smoke oil, thereby improving the user experience; thereby effectively solving the problem that the electronic cigarette cannot be targeted in the prior art. The type of atomizing component provides the user with a smoke atomization control method, which causes technical problems of inconvenience to the user. In addition, for the electronic cigarette with the atomization component being temperature-controlled, after the user smokes and the smoke oil is about to run out, the electronic cigarette can be controlled to stop working to avoid the phenomenon of burning, and the user can also remind the user that the smoke is exhausted. , thereby improving the user experience. [0078] Embodiment 2

[0079] Based on the same inventive concept, with reference to FIG. 8A - FIG. 8B, FIG. 9A - FIG. 9C, an embodiment of the present application further provides an electronic cigarette, including a battery assembly 1 and an atomizing assembly 2, wherein the electronic cigarette further includes The detection control circuit 10 is provided with a display module 11, a switching button 12, and a lock button ₁₃ connected to the detection control circuit 10. The detection control circuit 10 can be disposed in the battery assembly 10 (as shown in FIGS. 8A-8B), or can be disposed in the atomization assembly 2 (not shown), which is not specifically limited herein; And the lock button 13 is two buttons located at different positions and separated by a preset distance; the preset distance depends on the specific length of the battery assembly 1 and is smaller than the length of the battery assembly 1, for example: the battery assembly 1 has a length of 8 cm. The switch button 12 and the lock button 13 are spaced apart by 6 cm; of course, some other function buttons such as power or temperature control buttons may be disposed between the switch button 12 and the lock button 13.

[0080] The detection control circuit 10 is configured to identify the type of the atomization assembly 2 when the battery assembly 1 and the atomization assembly 2 are connected, and determine the atomization control mode of the electronic cigarette based on the type of the atomization assembly 2, and The control display module 11 displays an atomization control interface corresponding to the atomization control mode, so that the user controls the adjustment of the electronic cigarette in the atomization control mode according to the display information of the atomization control interface. Smoke oil atomization power or / and atomization temperature;

[0081] The switch button 12 is configured to receive a first button operation, and convert the first button operation into a first electrical signal, so that the detection control circuit 10 receives and controls the display module 11 to switch display based on the first electrical signal. The working parameter information of the electronic cigarette; wherein, the working parameter information of the electronic cigarette includes: a voltage of the battery component, an output power, and a temperature, a resistance, and the like of the heating wire of the atomizing component; specifically, the display module 11 currently displays the first Interface information, when the switch button 12 receives the M (eg, 3) key press trigger operation, the detection control circuit 10 controls the display module 11 to switch to display the second interface information, and the first interface information and the second interface information may be completely The second interface information includes: an output power of the battery component, a temperature of the heating wire, and resistance information, where the second interface information includes: The voltage of the battery pack, the output power, and the resistance information of the heating wire.

[0082] The lock button 13 is configured to receive a fourth button operation, and convert the fourth button operation into a fourth electrical signal, so that the detection control circuit 10 receives and controls the function of the electronic cigarette based on the fourth electrical signal. It is locked or unlocked. When the e-cigarette function is locked, other buttons on the e-cigarette other than the lock button 13 The key or the trigger module is invalid, and the electronic cigarette cannot atomize the smoke oil; only when the lock button 13 is effectively triggered and the function of the electronic cigarette is unlocked, the electronic cigarette can atomize the smoke oil, specifically, the lock button 13 Also used to control the electronic aerosolized smoke oil after the function of the electronic cigarette is in an unlocked state. During the specific use, when the lock button 13 receives N (such as 5) key presses, the function of the control control circuit 10 to control the electronic cigarette changes from locked to unlocked or unlocked to unlocked state. The lock button 13 can also be used as an atomization control of the electronic cigarette. When the function of the electronic cigarette is in the unlocked state, the lock button 13 receives the P (less than N, such as 1) button to trigger the operation, and the detection control circuit 10 controlling the heating wire atomizing the smoke oil in the atomizing component 2 or stopping the atomizing smoke oil; in addition, when the function of the electronic cigarette is in the unlocked state, and within the preset time (such as lmin), the lock button 13 is not received. After the button trigger operation, the detection control circuit 10 automatically controls the electronic cigarette to be in a locked state.

[0083] In a specific implementation process, the battery assembly 1 and the atomizing assembly 2 are detachably connected. As shown in FIG. 9B, the end surface of the one end portion 10-1 of the battery assembly 1 is provided with a connection for inserting the atomizing assembly 2. The slot 14 and the lock button 13 are respectively located at the two ends of the outer peripheral side wall of the battery assembly 1, and the distance between the lock button 13 and the connection slot 14 is smaller than the switch button 12 and the connection plug. The distance between the slots 14 can be understood as: When the battery assembly 1 and the atomizing assembly 2 are assembled together, the lock button 13 is disposed at one end of the battery assembly 1 near the atomizing assembly 2, and the switching button 12 is disposed at the battery assembly 1. Keep away from one end of the atomizing assembly 2. In combination with the specific structure of the electronic cigarette, the nozzle of the electronic cigarette is usually disposed at one end of the atomizing assembly 2 away from the battery assembly 1, and the user smokes, and the finger is usually clamped at the portion where the battery assembly 1 and the atomizing assembly 2 are connected. The 吋 can conveniently control the lock button 13 to control the electronic cigarette to atomize the smoke oil or stop the atomization of the smoke oil, and also avoid false triggering of other function buttons. In addition, referring to FIG. 9A to FIG. 9C, an information exchange USB interface 15 for the electronic cigarette and the external electronic device is disposed on the end surface of the other end portion 10-2 of the battery assembly 1 opposite to the end portion 10-1. And a charging interface 16 for charging the battery pack 1.

[0084] Further, still referring to FIG. 9A and FIG. 9C, the electronic cigarette further includes: an increase control button 17 and a decrease control button 18 connected to the detection control circuit 10. Wherein, the add control button 17 is configured to receive the second button operation, and convert the second button operation into a second electrical signal, so that the detection control circuit 10 receives and controls the electronic cigarette to increase based on the second electrical signal. a smoke oil atomization power or/and an atomization temperature; a decrease control button 18 for receiving a third button operation, and converting the third button operation to a third electrical signal for causing the detection control circuit 10 to receive and based on the The third electrical signal controls the electronic cigarette to reduce smoke and oil mist Power or / and atomization temperature.

[0085] Further, still referring to FIG. 9A and FIG. 9C, in order to add two control function buttons 电池 on the battery assembly 1, the erroneous operation of each function button can be alleviated or avoided, and the display module 11 and the control button 17 are added. The reduction control buttons 18 are located on the same side of the battery pack 1 and are located between the switch button 12 and the lock button 13; the display module 11 and the decrease control button 18 are respectively located on both sides of the add control button 17. In the specific implementation process, the size and spacing of the various function buttons on the battery assembly 1 are set according to the specific length of the battery assembly 1 and the button requirements of the user's finger, and are not specifically limited herein.

[0086] In a specific implementation process, referring to FIG. 10A and FIG. 10B, the detection control circuit 10 includes a microprocessor 101, and the microprocessor 101 is provided with a connection determination tube for determining whether the battery assembly 1 and the atomization assembly 2 are effectively connected. When the battery pack 1 and the atomizing component 2 are connected to each other, the microprocessor 101 determines the battery component by judging whether the connection determining pin transmits an effective connection signal indicating that the battery component 1 and the atomizing component 2 are effectively connected. 1 and whether the atomization component 2 is operatively connected; wherein the effective connection signal is a high level signal, a low level signal or an analog to digital conversion signal. The following is a description of the specific circuit diagram. Referring to FIG. 11 and FIG. 12, the microprocessor 101 is a single-chip microcomputer STM32F030K6, which is disposed in the battery component 1, and the 8-pin PI2 of the single-chip microcomputer STM3 2F030K6 is used for the atomization component 2 One end of the heating wire L of the atomized smoke oil is connected to 0-, and when the battery assembly 1 and the atomizing assembly 2 are operatively connected, the single chip STM32F030K6 determines the battery component by detecting whether the effective connection signal is transmitted on the No. 8 pin PA2. 1 Whether the atomizing component 2 is effectively connected; for example, when the battery component 1 and the atomizing component 2 are not effectively connected, the single chip STM32F030K6 detects a low level signal on the No. 8 pin PA2, and when the No. 8 pin PA2 is detected When the signal is high, it is determined that the battery component 1 and the atomizing component 2 are connected effectively; or, when the battery component 1 and the atomizing component 2 are not effectively connected, the single chip STM32F030K6 detects that the pin 8 is high on the No. 8 pin. Level signal, when it is detected that the No. 8 pin PA2 is a low level signal 吋, it is determined that the battery component 1 and the atomization component 2 are effectively connected; The pool component 1 and the atomization component 2 are not effectively connected, and the single chip microcomputer STM32F030K6 detects that there is no analog-to-digital conversion signal on the pin No. 8 of the No. 8 pin. When it is detected that there is an analog-to-digital conversion signal on the connection judging pin, the battery component is determined. 1 and the atomizing assembly 2 are operatively connected.

[0087] In a specific implementation process, the type of the atomization assembly 2 includes a temperature control type and a power control type; the temperature of the heating wire for atomizing the smoke oil in the atomization assembly 2 changes during the initial stage of energization, The resistance value of the heating wire changes with temperature; wherein: the temperature-controlled atomizing component is used for atomizing the smoke oil The rate of change of the resistance value of the heating wire with temperature is greater than or equal to a first preset value; the rate of change of the resistance value of the heating wire for atomizing the smoked oil in the power control type atomizing assembly changes with temperature is less than The first preset value is described. Further, the detecting control circuit 10 identifies the type of the atomizing component 2, specifically: the detecting control circuit 10 is configured to control the battery component 1 to continuously supply power to the atomizing component 2 when the battery component 1 and the atomizing component 2 are connected to each other. And obtaining a resistance change rate of the heating wire for atomizing the smoke oil in the atomizing component 1. When the resistance change rate is greater than or equal to the first preset value, determining that the atomizing component 2 is the temperature The control type atomizing component determines that the atomizing component 2 is the power control type atomizing component when the resistance change rate is less than the first preset value. For this point, with the related introduction in the first embodiment, it will not be described here.

[0088] Further, when the atomization component 2 is the temperature control type atomization component, the atomization control mode of the electronic cigarette is the first control mode, and the display module 11 displays the output first control interface, the first The display information of the control interface includes the temperature of the heating wire for atomizing the smoke oil in the atomizing assembly 2, the output power of the battery assembly 1 and the voltage of the battery assembly 1; when the atomizing assembly 2 is the power control type atomizing assembly The atomization control mode of the electronic cigarette is a second control mode, and the display module 11 displays an output second control interface, where the display information of the second control interface includes the heat generated by the atomization component 2 for atomizing the smoke oil. The resistance of the wire, the output power of the battery pack 1, and the voltage of the battery pack 1.

[0089] In the specific implementation process, in order to prevent the user from switching the display interface of the electronic cigarette display module 11 to the atomization control interface that does not correspond to the atomization control mode during use, the user is inconvenient to use. The atomization component 2 is the temperature control type atomization component, and the switch button 12 receives an operation command for controlling the display module 11 to display and output the second control interface, the electronic cigarette outputs an alarm signal; or, when The atomizing component 2 is the power control type atomizing component, and the switching button 12 receives an operation command for controlling the display module 11 to display and output the first control interface, and the electronic cigarette outputs an alarm signal. The alarm information may be specifically used to remind the user that the interface is incorrectly switched, such as text information, lighting information, or audio information, and is not specifically limited herein. Further, the user can operate the increase control button 17 or the decrease control button 18 according to the atomization control interface information corresponding to the atomization control mode determined by the electronic cigarette to achieve the purpose of adjusting the electronic aerosolization power or/and the atomization temperature. .

[0090] In the specific implementation process, the existing electronic cigarette still has technical problems that prevent the user from knowing whether the smoke oil is about to be exhausted, and continues to smoke after the smoke oil is exhausted, thereby causing burnt cotton, in the solution of the present application. Atomization group The temperature control type of electronic cigarette is provided with a heating wire temperature real detecting module. When the user needs to adjust the electronic cigarette atomizing temperature, the temperature of the heating wire for atomizing the smoked oil in the atomizing assembly is obtained. So that the microprocessor in the electronic cigarette adjusts the power supply of the battery component based on the temperature value to achieve adjustment of the atomization temperature of the heating wire. The reasonable use of the heating wire temperature detection module can solve the problem that the above-mentioned tobacco burning phenomenon occurs due to the exhaustion of the smoke oil. Specifically, please refer to FIG. 8B, the battery assembly 1 is provided with the detection control circuit 10 The power supply circuit 19 is powered by the heating wire 21; when the atomizing component 2 is the temperature-controlled atomizing component, the detecting control circuit 10 is further configured to: when the function of the electronic cigarette is in an unlocked state, and a smoking signal is detected吋The control power supply circuit 19 supplies power to the heating wire 21 to operate the heating wire 21, and simultaneously acquires the temperature change speed of the heating wire 21, and determines the smoke in the electronic cigarette after the changing speed is greater than the second preset value. The oil is exhausted, thereby stopping the supply of power to the heating wire 21, and controlling the display module 11 to output an alarm message alerting the user that the smoke is exhausted.

[0091] In a specific implementation, referring to FIG. 10A, the detection control circuit 10 includes: a temperature detecting sub-circuit 102 connected to the microprocessor 101; the microprocessor 101 is configured to enable the function of the electronic cigarette to be in an unlocked state, And detecting the smoking signal 吋, the control power supply circuit 19 supplies power to the heating wire 21 to operate the heating wire 21; the temperature detecting sub-circuit 102 is used to obtain the temperature of the heating wire 21 after the heating wire 21 is operated; the microprocessor 101 also uses Calculating a temperature change speed of the heating wire 21 based on the temperature, and determining that the smoke oil is exhausted in the electronic cigarette after the change speed is greater than a second preset value, and controlling the power supply circuit 19 to stop supplying power to the heating wire 2 1 And the control display module 11 outputs an alarm message for reminding the user that the smoke oil is exhausted. The temperature detecting sub-circuit 102 can detect the temperature of the heating wire 21 by using a temperature sensor, the temperature sensor is a thermocouple temperature sensor, and the thermocouple temperature sensor is connected to the end of the heating wire, as shown in FIG. I will not repeat them here. It should be noted that the temperature detecting sub-circuit 102 is a specific implementation manner of the above-mentioned heating wire temperature detecting module. When the identification and determination of the atomizing component 2 is a power control type, the temperature detecting sub-circuit 102 does not jobs.

[0092] In a specific implementation, please refer to FIG. 10B, the detection control circuit 10 includes: a voltage detection sub-circuit 103 connected to the microprocessor 101;

[0093] The microprocessor 101 is configured to control the power supply circuit 19 to supply power to the heating wire 21 when the function of the electronic cigarette is in an unlocked state and the smoking signal is detected, so that the heating wire 21 operates;

[0094] The voltage detecting sub-circuit 103 is used to generate electricity in the circuit loop where the heating wire 21 is operated and the heating wire 21 is located. The voltage value of the pressure detection point (such as the end of the heating wire);

[0095] The microprocessor 101 is further configured to calculate a resistance change amplitude of the heating wire 21 in the preset turn based on the voltage value, and acquire a temperature change speed of the heating wire 21 based on the change amplitude, and in the change The speed is greater than the second preset value 吋, determining that the smoke oil in the electronic cigarette is exhausted, and controlling the power supply circuit 19 to stop supplying power to the heating wire 21, and controlling the display module 11 to output an alarm message for reminding the user that the smoke oil is exhausted; wherein, the heating wire The resistance of 21 varies with temperature. It should be noted that the voltage detecting sub-circuit 103 is another specific implementation manner of the above-mentioned heating wire temperature real detecting module. When the identification and determination of the atomizing component 2 is a power control type, after the user smokes, the voltage detecting sub-circuit 103 Not working.

[0096] Further, still referring to FIG. 10B, at the voltage detection point being the end of the heating wire, the voltage detecting sub-circuit 103 includes:

[0097] a voltage dividing module 1031 connected to the end of the microprocessor 101 and the heating wire 21 for converting the voltage value into a readable voltage, so that the microprocessor 101 calculates the heating wire 21 based on the readable voltage. Determining the magnitude of the resistance change in the predetermined turn, and obtaining the temperature change speed of the heating wire 21 based on the change amplitude, and determining that the smoke is exhausted in the electronic cigarette after the change speed is greater than the second preset value The power supply for the heating wire 2 1 is stopped, and the control display module 11 outputs an alarm message for reminding the user that the smoke oil is exhausted; wherein the readable voltage is a voltage that the microprocessor 101 can recognize.

[0098] Further, still referring to FIG. 10B, the detection control circuit 10 further includes: a first switching member 104 connected to the microprocessor 101; the microprocessor 101 is configured to control the first switching member 104 to be turned on or off. , to control the power supply circuit 19 to supply power to the heating wire 21 or to stop power supply;

[0099] The voltage detecting sub-circuit 103 further includes: a second switching member 1032 connected to the microprocessor 101; the microprocessor 101 is configured to control the second switching member 1032 to be turned on or off to control the voltage detecting sub-circuit 103 detects that the voltage value is acquired or stops detecting the voltage value.

[0100] In the specific implementation process, the first splicing member 104 and the second splicing member 1032 are all MOSFETs; the drain of the first soffing member 104 is connected to the heating wire 21, and the first splicing member 104 is The source is grounded, and the microprocessor 101 is connected to the gate of the first switching element 104 for controlling the first switching element 104 to be turned on or off to control the power supply circuit 19 to supply power to the heating wire 21 or to stop supplying power; The pressing module 1031 includes a first resistor, a second resistor and a first capacitor, one end of the first resistor is connected to the heating wire 21, the other end of the first resistor is opposite to the second resistor, the first capacitor, and The microprocessor is connected, the second resistor and the first The other end of the capacitor is connected and grounded; the drain of the second switch 1032 is connected to the heating wire 21 and the first resistor, the source of the second switch 1032 is grounded, the microprocessor 101 and the second switch A gate connection of 1032 is configured to control the second gate member 1032 to be turned on or off to control the voltage dividing module 1031 to acquire and convert the voltage value into a readable voltage or to stop acquiring the voltage value.

[0101] Taking a specific internal circuit of an electronic cigarette as an example, please refer to FIG. 11 and FIG. 12. The microprocessor 101 in FIG. 10B corresponds to the single chip STM32F030K6 in FIG. 11, the heating wire 21 in FIG. 10B, and the first switching element. 104 and the second closing member 1032 correspond to the heating wire L and the field effect transistors Q1 and Q2 in Fig. 12, respectively; the letters on the terminals in Fig. 11 and Fig. 12 indicate that the transmitted signal is marked and marked with the same signal identification. The terminals are in a connection relationship. In addition, other specific circuit diagrams in this embodiment also follow this rule. Referring to Fig. 11 and Fig. 12, the heating wire L (generally about 0.3 ohms) of 0+ is connected to the battery positive electrode B+, and the 0-terminal of the heating wire L is connected to the drain of the field effect transistor Q1, and the source of the field effect transistor Q1. Grounding, the No. 14 pin P B0 of the STM32F030K6 is connected to the gate of the FET Q1, and is used to transmit the PWM wave signal identified as DRIV to control the Q1 to be turned on or off, thereby controlling the power supply loop of the heating wire L. Pass or break.

[0102] Further, the first resistor, the second resistor, and the first capacitor of the voltage dividing module 1031 in FIG. 10B correspond to the resistor R38, the resistor R39, and the capacitor C22 in FIG. 12, respectively. One end of the resistor R38 is connected to the 0-end of the heating wire L, and the other end of the resistor R38 is connected to the resistor R39, the capacitor C22, and the pin 8 of the STM32F030K6 pin P A2 , and the other end of the resistor R39 and the capacitor C22 are connected and grounded. The drain of the field effect transistor Q2 is connected to the 0-end of the heating wire L and the resistor R38, the source of the field effect transistor Q2 is grounded, and the PB1 end of the 15th pin of the single chip STM32F030K6 is connected to the gate of the field effect transistor Q2 for The control field effect transistor Q2 is turned on or off, to control the voltage dividing module composed of the resistors R38, R39 and the capacitor C22 to obtain the voltage value of the 0-end of the heating wire, and convert the voltage value into the readable voltage of the single chip STM32F030K6 or stop. Obtain the voltage value. This is because the voltage value that can be recognized according to the type of the microprocessor may be limited. For example, in the specific implementation circuit shown in FIG. 11 and FIG. 12, the single chip STM32F030K6 can read a voltage value lower than 3V, however, the electronic The supply voltage of the cigarette battery to the heating wire L is usually about 4.2V, that is, in the case of normal battery power, the 0-terminal voltage value of the heating wire L is 3V or more. In this solution, the voltage dividing module is set to The microprocessor can read a voltage value lower than 3V through the voltage dividing module, and indirectly read the voltage value of the 0-end of the heating wire through the lower voltage value.

[0103] It should be noted that the drain of the field effect transistor Q1 is directly connected to the 0-end of the heating wire L, and the field effect transistor Q2 The drain is connected to the 0-end of the heating wire L through a resistor R41 having a certain resistance value (for example, 3 ohms). When Q1 and Q2 are simultaneously turned on, the current output from the 0- terminal of the heating wire L is directly Flowing from Q1 to ground, this 吋Q 2 branch does not work. Therefore, in this scheme, the control logic for Q1 and Q2 is: When the single-chip microcomputer ST M32F030K6 controls the FET Q1幵, the control FET Q2 is turned off to make the heating wire L work; when the single chip STM32F030K6 controls the field effect When the tube Q2 is turned on, the control field effect transistor Q1 is turned off to obtain the voltage value of the end portion of the heating wire L.

[0104] In the specific implementation, still referring to FIG. 10B, the electronic cigarette further includes: a linear regulator circuit 3 connected to the power supply circuit 19 and the microprocessor 101, for adjusting the power supply circuit 19 to the microprocessor 101. The operating voltage is provided to stabilize the regulated operating voltage at the nominal operating voltage of the microprocessor 101. Specifically, as shown in FIG. 13, it is a schematic diagram of a linear voltage regulator circuit used in an internal circuit of an electronic cigarette. Referring to FIG. 11 and FIG. 13, the rated operating voltage of the single chip STM32F030K6 in FIG. 11 is 3V, in FIG. The positive voltage of the battery is input to the voltage regulator TLV70430 through the voltage regulator D5 to adjust the voltage of the electronic cigarette battery output greater than 3V, and output a stable 3V VDD voltage to the microprocessor (ie, the single chip S shown in FIG. 11) The No. 1 pin of the TM32F030K6 is VDD) to provide the microprocessor with an operating voltage that allows it to operate normally.

[0105] In a specific implementation, still referring to FIG. 10B, the electronic cigarette further includes: a reset circuit 4 connected to the microprocessor 101, configured to detect an internal working voltage of the microprocessor 101, and in the internal The operating voltage is lower than the first predetermined voltage 吋, and a reset signal is output to the microprocessor 101. Specifically, as shown in FIG. 14 , it is a reset circuit schematic diagram used in an internal circuit of the electronic cigarette. Referring to FIG. 11 and FIG. 14 , the input terminal Vin of the reset circuit is connected to the VDD terminal of the No. 1 pin of the single chip STM32F030K6. The output terminal Vout is connected to the NRST terminal of the No. 4 pin of the single chip STM32F030K6. The reset circuit detects the VDD voltage of the STM32 F030K6 of the single chip microcomputer, and sends a reset to the NRST terminal of the No. 4 pin of the STM32F030K6 when the VDD voltage is lower than 2.2V. A signal (such as a low level signal) resets the microprocessor to prevent the microprocessor from getting out of control.

[0106] In the specific implementation process, still referring to FIG. 10B, the electronic cigarette further includes: an alarm circuit 5 connected to the microprocessor 101; and the microprocessor 101 is configured to determine that the smoke is exhausted in the electronic cigarette. And outputting alarm data to the alarm circuit 5; the alarm circuit 5 is configured to output alarm information based on the alarm data to remind the user that the smoke oil is exhausted; wherein the alarm information includes text information, voice information, vibration information, and a light letter. At least one of the four. Correspondingly, a display module for displaying text information, an audio module for broadcasting voice information, a vibration module for emitting vibration information, or an LED lamp for emitting light information may be set in the electronic cigarette, wherein the light information may be Light information with different brightness or different light information. In an embodiment, the alarm circuit 5 is specifically configured to display the output alarm information, that is, the alarm circuit 5 in FIG. 10B is specifically the display module 11 in FIG. 8A, and the alarm circuit 5 includes: a display screen connected to the microprocessor 101. a wake-up sub-circuit connected to the microprocessor 101 and the display screen; the microprocessor 101 is configured to output a wake-up trigger signal to the wake-up sub-circuit after determining that the smoke is exhausted in the electronic cigarette, The display screen outputs alarm data for displaying the output; the wake-up sub-circuit is configured to wake up the display screen after receiving the wake-up trigger signal; and the display screen displays an output for reminding based on the alarm data after waking up User text message exhausted by smoke. Specifically, as shown in FIG. 15 , it is a schematic diagram of a display alarm circuit used in an internal circuit of an electronic cigarette. Referring to FIG. 11 and FIG. 15 , the alarm circuit includes a 96×16 dot matrix organic electro-laser display OLED and is connected thereto. The wake-up sub-circuit includes a PN P-type transistor Q3, an NPN-type transistor Q4, and a P-channel field effect transistor Q5. The base of the transistor Q3 is connected to the 21st pin PA11 of the single-chip microcomputer STM32F030K6, and the emitter and the input VDD are connected. The voltage and collector are connected to the 8th pin of the display. The base of the transistor Q4 is connected to the collector of the tertiary tube Q3, the emitter is grounded, the collector is connected to the positive voltage terminal B+, and the gate of the FET Q5. It is connected to the battery positive voltage terminal B+ through the resistor R51, the source is directly connected to the battery positive voltage terminal B+, and the drain is connected to the 5th pin VBAT (operating voltage input terminal) of the display screen.

The working principle of the display alarm circuit is as follows: In the case that the electronic cigarette smoke is sufficient, the single chip STM32F0 30K6 outputs a high level signal to the base of the third stage tube Q3 through the PA11 end of the 21st pin, so that the triodes Q3, Q4 and The FET Q5 is in the off state, and the display is powered off. When the microprocessor determines that the electronic cigarette smoke is about to run out, the wake-up trigger signal is output to the base of the tertiary tube Q3 through the PA11 end of the 21st pin (eg The low level signal), the 吋 transistor Q3 is turned on, and then the transistor Q4 and the FET Q5 are turned on in turn, and the display screen is energized. That is, when there is a need to power on the display, there is no need to power off the display to achieve power saving. In addition, please refer to Figure 11 and Figure 15, the SCL end of the 10th pin and the SDA end of the 11th pin of the display are respectively connected with the PA9 end of the 19th pin of the STM32F030K6 and the PA10 end of the 20th pin, that is, , SCM32F030K6 single chip through the 19th pin PA9 end and 20th pin PA10 end The display screen writes alarm data for displaying the output, so that after the wake-up, the display screen displays a text message for reminding the user that the smoke is exhausted based on the alarm data.

In the specific implementation process, still referring to FIG. 10B, the electronic cigarette further includes a trigger trigger circuit 6 connected to the microprocessor 101, including: a switch button 12, a lock button 13, an increase control button 17, and a decrease control button. 18. Specifically, please refer to FIG. 16 , which is a schematic diagram of a trigger circuit used in an internal circuit of an electronic cigarette. The switch button 12 , the lock button 13 , the add control button 17 , and the decrease control button 18 in FIG. 10B respectively correspond to each other. In Figure 16, the switch (S1-S4), Figure 16 (S1-S4) are connected in parallel with each other, and respectively with the STM32F030K6 30th pin PB7 end, 27th pin PB4 end, 28th pin PB5 The terminal is connected to the PB3 end of the 26th pin, and the switching signals KEY, KE Y+, KEY- and KEY_0 are respectively transmitted to the single chip microcomputer STM32F030K6. Wherein, when the switch SI receives the Μ (eg, 3) key press trigger operation, outputs a level signal (such as a high level signal) indicating that the display information is switched to the single chip STM32F030K6, so that the single chip STM32F030K6 is controlled based on the high level signal. The display OLED switches display interface information. When the switch S1 does not receive the effective trigger action, the high-level signal is not detected at the 7th pin of the microprocessor, and the display screen OLED continuously displays the original interface information; When the switch S2 receives the trigger action, output a level signal (such as a high level signal) indicating that the temperature of the heating wire is increased to the single chip STM32F030K6, so that the single chip STM32F030K6 is adjusted based on the high level signal for controlling the field effect transistor Q1. The duty ratio of the turned-on PWM wave is increased to increase the output power to the heating wire L. When the triggering action is not received by the switch S2, the high-level signal is not detected at the terminal end of the microprocessor No. 27 pin, and The duty ratio of the PWM wave for controlling the conduction of the FET Q1 is kept unchanged; when the triggering action is received by the S3, the output of the STM 32F030K6 is reduced to indicate that the temperature of the heating wire is reduced. a flat signal (such as a low level signal), so that the single chip S TM32F030K6 adjusts the duty ratio of the PWM wave for controlling the conduction of the field effect transistor Q1 based on the low level signal to reduce the output power to the heating wire L, When the S3 does not receive the trigger action, the low-level signal is not detected at the 5th pin of the STM 32F030K6, and the duty cycle of the PWM wave used to control the FET Q1 is kept unchanged; When the switch S4 receives the Ν (such as 5) key press trigger operation, the output of the control chip to the STM32F030K6 indicates that the electronic cigarette function is changed from locked to unlocked or unlocked to a locked level signal (such as a high level signal). So that the STM32F030K6 can control the electronic cigarette to unlock or lock based on the high level signal. Similarly, the S4 can also be used as the atomization control of the electronic cigarette. When the electronic cigarette function is unlocked, the S4 is closed. Each receive Ρ (less than Ν, such as 1) button trigger operation Outputting a level signal (such as a low level signal) indicating that the heating wire 21 is atomized with smoke or stopping the atomized smoke oil to the single chip STM32F030K6, so that the single chip STM32F030K6 controls the heating wire 21 to atomize the smoke oil based on the low level signal. Or stop atomizing the smoke oil; In addition, when the electronic cigarette function is unlocked, and within the preset time (such as lmin), if the button S4 does not receive the button trigger operation, the STM32F030K 6 automatically controls the electronic cigarette to be locked. Live state.

[0110] In a specific implementation process, still referring to FIG. 10B, the power supply circuit 19 includes: an internal charging interface 191, a charging management sub-circuit 192, a battery 193, and an external charging sub-circuit 194 connected in sequence; the internal charging interface 191 is used for connecting with an external power source, and acquiring electric energy; the charging management sub-circuit 192 is also connected to the microprocessor 101 for charging and managing the battery 193 based on the battery charging management signal of the microprocessor 101; external charging sub-circuit The 194 is also coupled to the microprocessor 101 for charging the external device based on the external charging control signal of the microprocessor 101. Further, the external charging sub-circuit 194 includes: a third switching member connected to the microprocessor 101, and a fourth switching member connected to the third switching member and the battery 193, through the fourth switching member a boosting module connected to the battery 193, and an external charging interface connected to the boosting module and configured to be connected to an external device; the third switching component is configured to be conductive when the external charging control signal is obtained, so that The fourth shutoff member is turned on to further connect the boosting module to the battery; the boosting module boosts a battery voltage, and the boosted voltage is transmitted to the external charging interface external device.

Specifically, please refer to FIG. 17A and FIG. 17B, which is a schematic diagram of a power supply circuit used in an internal circuit of an electronic cigarette. The circuit in FIG. 17A and the circuit in FIG. 17B are connected through a terminal Um. The P1 interface in FIG. 17A (corresponding to the internal charging interface 191 in FIG. 10B) is a USB interface for charging the electronic cigarette from the outside, and the pin 1 of the P1 is connected to the battery charging management chip AP5056, and the pins 6 and 7 of the AP5056 are connected. It is respectively connected with the PF1 terminal of the No. 3 pin and the PF0 terminal of the No. 2 pin of the MCU in FIG. 12, and is used for receiving the battery charging management signal sent by the single-chip microcomputer, and charging and managing the battery. Specifically, when the battery needs to be charged, the MCU outputs a low-level signal to the No. 7 pin of the AP5056 through the PF0 terminal of the No. 2 pin, and outputs a high-level signal to the No. 6 pin of the AP5056 through the PF1 end of the No. 3 pin. Flat signal, so that the electronic cigarette battery is in the state of charging; oppositely, when the battery is charged, the MCU outputs a high level signal to the No. 7 pin of the AP5056 through the PF0 end of the No. 2 pin, and passes through the No. 3 pin. The PF1 terminal outputs a low level signal to the No. 6 pin of the AP5056, so that the electronic cigarette battery is in a state of being completed. Figure 17B shows the original of an external charging sub-circuit of an electronic cigarette The picture, the voltage signal of the battery positive voltage output terminal B+ output, after filtering by the capacitors C19 and C20, is input to the boosting module based on the current mode boost converter MT3608 for boosting processing, and the electronic cigarette is used. The battery voltage (such as 4V) is boosted to the 5V voltage required for charging by a typical electronic device (such as a mobile phone) and output through a P2 interface (specifically, a USB interface). Further, in order to realize the management of the external charging function of the electronic cigarette, as shown in FIG. 17B, the external charging sub-circuit includes: a field effect transistor Q6 connected in series with the power supply loop of the boost converter MT3 608, and a base connected to the single chip STM32F030K6 and A collector Q7 whose collector is connected to the gate of Q 6 . Referring to FIG. 11 and FIG. 17B, when receiving the external power supply indication signal, the single chip outputs a high level signal to the base of the transistor Q7 through the PA7 end of the 13th pin, so that the transistor Q7 and the field effect transistor Q6 are both turned on. Power on the boost module and supply power to the outside through the P2 interface. Correspondingly, in order to realize the process of charging the electronic cigarette battery, the electronic cigarette battery is prohibited from supplying power to the external device. After charging the battery, the single chip STM32F030K6 outputs a low voltage to the base of the transistor Q7 through the PA7 end of the 13th pin. The signal is flat so that the transistor Q7 and the FET Q6 are both off, so that the MT3608 is inoperable.

[0112] In addition, please refer to FIG. 11 and FIG. 17A. The pin 2-4 of the PI interface is connected to the pins 4, 24, and 23 of the STM32F030K6 of the single chip microcomputer, and can be used to program the STM32F030K6.

[0113] In the specific implementation process, still referring to FIG. 10B, the electronic cigarette further includes: a battery voltage detecting circuit 7 connected to the power supply circuit 19, configured to detect the voltage of the battery in the power supply circuit 19, and the battery voltage is low. At the second predetermined voltage 吋, the control power supply circuit 19 stops supplying power to the heating wire 21. Specifically, please refer to Figure 18. The battery voltage detection circuit consisting of resistors R44, R45 and capacitor C25. When the voltage of the battery is less than 3.3 V吋, the control battery cannot supply power to the heating wire.

[0114] In the specific implementation, still referring to FIG. 10B, the electronic cigarette further includes: a battery protection circuit 8 connected to the two ends of the battery in the power supply circuit 19 for overcharging, over-discharging, or Short circuit protection. Specifically, please refer to FIG. 19, the battery protection circuit includes a battery protection integrated chip MM3280 and a FET Q8, the MM end of the MM3280 pin VDD is connected to the battery positive voltage output terminal B+, the sixth pin VSS terminal and the battery negative voltage. The output terminal B-connection is used to detect whether the battery is abnormal (such as overcharge, overdischarge or short circuit); the DO end of the MM3280 pin 1 is connected to the gate of the FET Q8, which is used to detect abnormality in the battery. The control field effect transistor Q8 is turned on to protect the battery.

[0115] In summary, the electronic cigarette in the embodiment has at least the following technical effects: 1) After the atomizing component is connected with the battery component, the type of the atomizing component is identified, and the smoke atomization control mode and the atomization control interface are specifically set for the user according to the type of the atomizing component, so as to facilitate The user adjusts the atomization power or/and the atomization temperature of the smoke oil to improve the user experience;

[0117] 2) When the user smokes and the smoke oil is about to run out, the electronic cigarette can be controlled to stop working to avoid the phenomenon of burning cotton, and the user can also remind the user that the smoke oil is exhausted, thereby improving the user experience.

[0118] 3) Effectively solving the existing electronic cigarette passing by setting a function button for controlling display information switching and a function button for controlling the function of locking/unlocking the electronic cigarette on the battery component of the electronic cigarette The same function button receives different button times to realize the display information switching or locking/unlocking function, which is prone to misoperation, and the technical problem of poor user experience reduces or avoids the misoperation of the button function selection, and improves the User experience.

[0119] 4) The electronic cigarette further has functions of charging an external electronic device, managing and protecting the battery, and has various functions and stable performance, and has good practicability.

[0120] According to the above description, the electronic cigarette in the second embodiment is used to implement the electronic cigarette smoke atomization control method in the first embodiment, so that one or more embodiments of the electronic cigarette and one or more of the above methods are used. The embodiments are the same and will not be described again here.

[0121] While the preferred embodiment of the invention has been described, it will be apparent that those skilled in the art can make further changes and modifications to the embodiments once the basic inventive concept is known. Therefore, the appended claims are intended to be interpreted as including the preferred embodiments and the modifications and

[0122] It will be apparent to those skilled in the art that various modifications and changes can be made in the present invention without departing from the spirit and scope of the invention. Thus, it is intended that the present invention cover the modifications and the modifications of the invention

Claims

Claim

[Claim 1] An electronic cigarette smoke atomization control method, the electronic cigarette includes a display module, a battery assembly, and an atomization assembly, and the battery assembly is detachably coupled to the atomization assembly, and is characterized in that The control method includes the following steps:

51. When the battery component and the atomization component are connected to each other, identify a type of the atomization component;

Determining, according to the type of the atomizing component, an atomization control mode of the electronic cigarette, and controlling the display module to display an atomization control interface corresponding to the atomization control mode, so that the user according to the The display information of the atomization control interface controls, in the atomization control mode, the smoke atomization power or/and the atomization temperature of the electronic cigarette.

The method of controlling the atomization of the electronic cigarette smoke as claimed in claim 1, wherein the step S1 specifically comprises the following sub-steps:

511. When the battery component and the atomization component are connected to each other, determine whether the battery component and the atomization component are in an effective connection state, and obtain a first determination result;

512. When the first determination result is yes, identify the type of the atomizing component.

3. The electronic cigarette smoke atomization control method according to claim 2, wherein the electronic cigarette includes a microprocessor, and the microprocessor is provided with a battery unit and a device for determining a connection determining pin for describing whether the atomizing component is operatively connected;

When the battery component and the atomizing component are connected to each other, the microprocessor determines whether an effective connection signal indicating that the battery component and the atomizing component are effectively connected is transmitted on the connection determining pin. Determining whether the battery component and the atomizing component are operatively connected;

Wherein, the effective connection signal is a high level signal, a low level signal or an analog to digital conversion signal

[Claim 4] The electronic cigarette smoke atomization control method according to claim 1, wherein the atomization component type includes a temperature control type and a power control type; and the atomization assembly is used for fogging The temperature of the heating wire of the smoky oil changes during the initial stage of energization, and the resistance value of the heating wire changes with temperature; The rate of change or the change rate of the resistance value of the heating wire for atomizing the smoke oil in the temperature control type atomizing assembly with the temperature change is greater than or equal to the first preset value;

The rate of change or the magnitude of change of the resistance value of the heating wire for atomizing the smoke oil in the power control type atomizing assembly with the temperature change is smaller than the first preset value.

The method of controlling the atomization of the electronic cigarette as described in claim 4, wherein the step S1 is specifically:

When the battery component and the atomization component are connected to each other, the battery component is controlled to continuously supply the atomization component with a predetermined length, and the heating wire for atomizing the smoke oil in the atomization component is obtained. a resistance change rate or a magnitude of change, when the resistance change rate or the change amplitude is greater than or equal to the first preset value 吋, determining that the atomization component is the temperature control type atomization component, when the resistance value The rate of change or the magnitude of the change is less than the first predetermined value 吋, and the atomization component is determined to be the power control type atomization component.

The method of controlling the atomization of the electronic cigarette as described in claim 5, wherein the step S2 comprises:

When the atomization component is the temperature control type atomization component, determining that the atomization control mode of the electronic cigarette is the first control mode, and controlling the display module display output to correspond to the first control mode a first control interface, so that the user acquires, according to the display information of the first control interface, the temperature of the heating wire for atomizing the smoke oil in the atomizing component in the first control mode, and is based on The temperature control of the heating wire adjusts the temperature of the smoke atomization of the electronic cigarette.

[Claim 7] The electronic cigarette smoke atomization control method according to claim 6, wherein the display information of the first control interface includes a heating wire for atomizing smoke oil in the atomization assembly The temperature, the output power of the battery assembly, and the voltage of the battery assembly.

When the atomization component is the power control type atomization component, determining that the atomization control mode of the electronic cigarette is the second control mode, and controlling the display module display output to correspond to the second control mode a second control interface, such that the user is in accordance with the second control interface Displaying information, in the second control mode, acquiring an output power of the battery component, and adjusting a smoke atomization power of the electronic cigarette based on an output power of the battery component

The method of controlling the atomization of the electronic cigarette as claimed in claim 8 , wherein the display information of the second control interface comprises a heating wire for atomizing the smoke oil in the atomization assembly The resistance, the output power of the battery assembly, and the voltage of the battery assembly.

The method of controlling the atomization of an electronic cigarette as claimed in claim 5, wherein when the atomizing component is the temperature-controlled atomizing component, the display module displays the output first a control interface; when the atomization component is the power control type atomization component, the display module displays and outputs a second control interface;

The electronic cigarette has a display interface switching function for receiving and controlling, according to an operation instruction of the user, the display module to switch display output of the first control interface and the second control interface;

When the atomizing component is the temperature-controlled atomizing component, and the electronic cigarette receives an operation command for controlling the display module to display and output the second control interface, the electronic cigarette outputs an alarm signal Or when the atomization component is the power control type atomization component, and the electronic cigarette receives an operation instruction for controlling the display module to display and output the first control interface, the electronic cigarette Output an alarm signal.

The method of claim 10, wherein the battery component is provided with a switch button, an increase control button, and a decrease control button, and the control method further includes:

Receiving, by the switching button, a first button operation, and converting the first button operation into a first electrical signal, so that the electronic cigarette controls the display module to switch display the electronic cigarette based on the first electrical signal Working parameter information;

Receiving a second button operation by the adding control button, and converting the second button operation into a second electrical signal, so that the electronic cigarette controls the electronic cigarette to increase smoke atomization based on the second electrical signal Power or / and atomization temperature;

Receiving a third button operation by the reduction control button, and rotating the third button operation And replacing with the third electrical signal, so that the electronic cigarette controls the electronic cigarette to reduce the smoke atomization power or/and the atomization temperature based on the third electrical signal.

The method of controlling the atomization of the electronic cigarette as described in claim 5, wherein when the atomizing component is the temperature-controlled atomizing component, the control method further comprises:

53. After detecting the smoking signal, supplying power to the heating wire for atomizing the smoke oil in the atomizing assembly to operate the heating wire;

54. Obtain a temperature change speed of the heating wire, and after the change speed is greater than a second preset value, determine that the smoke oil is exhausted in the electronic cigarette, and stop supplying power to the heating wire.

[Claim 13] The electronic cigarette smoke atomization control method according to claim 12, wherein the electronic cigarette is provided with an oil guiding member that is in contact with the heating wire and supplies oil to the heating wire, The heating wire atomizes the oil on the oil guiding member to form a smoke, and the step S4 specifically includes the following substeps:

541. Obtain a first temperature value of the heating wire in a first engraving;

542. After the temperature of the heating wire rises to a preset second temperature value 获取, obtain a time required for the temperature of the heating wire to rise from the first temperature value to the second temperature value, where The second temperature value is less than or equal to a temperature value of the oil enthalpy of the oil guiding member;

543. Calculate a temperature change speed of the heating wire based on the first temperature value, the second temperature value, and the turn, and determine that the change speed is greater than the second preset value. The smoke oil is exhausted in the electronic cigarette to stop supplying power to the heating wire.

The method of controlling the atomization of the electronic cigarette as described in claim 12, wherein the step S4 is specifically: detecting a temperature of the heating wire by a temperature sensor to obtain the heating wire The temperature change speed, and when the change speed is greater than the second preset value, determining that the smoke oil is exhausted in the electronic cigarette, and stopping supplying power to the heating wire.

[Claim 15] The electronic cigarette smoke atomization control method according to claim 14, wherein the temperature sensor is a thermocouple temperature sensor, and the thermocouple temperature sensor is connected to an end of the heating wire. .

[Claim 16] The electronic cigarette smoke atomization control method according to claim 12, wherein

After S4, the method further includes the steps of: S5. Output alarm information to remind the user that the smoke oil is exhausted; wherein the alarm information includes at least one of text information, voice information, vibration information, and light information.

The method of controlling the atomization of the electronic cigarette as described in claim 12, wherein the step S4 is specifically:

Obtaining a voltage value of a voltage detection point in a circuit loop where the heating wire is located, calculating a resistance variation range of the heating wire in a preset turn based on the voltage value, and acquiring the heating wire based on the variation range The temperature changes speed, and after the change speed is greater than the second preset value, determining that the smoke oil is exhausted in the electronic cigarette, and stopping power supply to the heating wire.

The method of controlling atomization of an electronic cigarette as claimed in claim 17, wherein the voltage detecting point is a heating wire end.

The method of controlling the atomization of the electronic cigarette as described in claim 18, wherein a voltage dividing resistor is connected in series in the power supply circuit of the heating wire, and the heating wire end is obtained in the step S4. The voltage value of the part is specifically as follows:

Obtaining a voltage dividing value at both ends of the voltage dividing resistor, and acquiring a voltage value of the end of the heating wire based on a power supply voltage of the power supply circuit and the voltage dividing value.

The method of controlling the atomization control of the electronic cigarette as claimed in claim 18, wherein the step S4 specifically comprises the substeps:

_S 44, in a first moment inch obtaining a first voltage value of the heating wire end portion, a second voltage value of the time acquisition heating wire at the second end portion inch, wherein said second and said engraved inch The first engraving differs from the preset time;

S45. Calculate, according to the first voltage value and the second voltage value, a magnitude of resistance change of the resistance of the heating wire within the predetermined turn, and obtain a temperature change of the heating wire based on the change amplitude. The speed, and after the change speed is greater than the second preset value, determining that the smoke oil is exhausted in the electronic cigarette to stop supplying power to the heating wire.