A driving circuit and driving method for a PMOS power transistor used in electronic cigarettes.

Abstract

This invention provides a driving circuit and driving method for PMOS power transistors used in electronic cigarettes, comprising: an airflow detection signal trigger module, which detects the airflow direction of the mouthpiece through an airflow sensor, turns the mouthpiece switch on or off, and obtains an airflow trigger signal; a drive control level output module, which obtains multiple PMOS power transistor control low-level signals through a multi-channel control microcontroller, sets up a multi-element independent atomizing liquid component control unit, and intelligently controls the atomization amount of the multi-element independent atomizing liquid components; a PMOS power transistor multi-element drive module, which obtains multi-element PMOS power transistor drive control status signals through a PMOS power transistor multi-element drive circuit; and a discrete atomizing heating wire heating module, which heats the multi-element independent atomizing liquid e-liquid by switching multiple heating wires on and off according to the multi-element PMOS power transistor drive control status signals, thereby obtaining atomized smoke with a healthy standard multi-component content.

Description

Technical Field

[0001] This invention relates to the field of semiconductor precision intelligent drive control technology, and more specifically, to a drive circuit and drive method for a PMOS power transistor used in electronic cigarettes. Background Technology

[0002] Currently, it is difficult to control the content of nicotine and other added ingredients in e-cigarette e-liquid to a level that does not affect health standards. The health standardization of e-liquid components is insufficient. E-cigarette switch drivers are mostly single-drive, which is difficult to adapt to the diverse needs of drive control technology. The level of intelligence of drive control needs to be improved. How to accurately obtain the airflow of the mouthpiece to turn the mouthpiece switch on or off and protect the respiratory tract and sensitive components of the e-cigarette is still a problem to be solved. How to accurately obtain the drive control state of the PMOS power transistor and perform precise drive of heating wire on and off is also a problem to be solved. Therefore, it is necessary to propose a drive circuit and drive method for PMOS power transistors for e-cigarettes to at least partially solve the problems existing in the prior art. Summary of the Invention

[0003] The summary of this invention introduces a series of simplified concepts, which will be further explained in detail in the detailed description section. The summary of this invention does not mean that it attempts to limit the key features and essential technical features of the claimed technical solution, nor does it mean that it attempts to determine the scope of protection of the claimed technical solution.

[0004] To at least partially solve the above problems, the present invention provides a driving circuit for a PMOS power transistor used in electronic cigarettes, comprising:

[0005] The airflow detection signal trigger module detects the airflow direction of the mouthpiece through the airflow sensor, turns the mouthpiece switch on or off, and obtains the mouthpiece airflow trigger signal.

[0006] The drive control level output module, based on the airflow trigger signal from the mouthpiece, obtains multiple PMOS power transistor control low-level signals through a multi-channel control microcontroller, sets up a multi-element independent atomizing liquid component control unit, intelligently controls the atomization amount of the multi-element independent atomizing liquid components, and obtains the intelligent control mode of the atomizing liquid components.

[0007] The PMOS power transistor multi-stage drive module obtains multi-stage PMOS power transistor drive control status signals through the PMOS power transistor multi-stage drive circuit according to the intelligent control mode of the atomizing liquid composition.

[0008] The discrete atomizing heating wire heating module heats the multi-component e-liquid by switching multiple heating wires on and off according to the multi-component PMOS power transistor drive control status signal, thereby obtaining atomized vapor with a healthy standard of multi-component content.

[0009] Preferably, the airflow detection signal triggering module includes:

[0010] The cigarette holder airflow sensing and detection submodule is equipped with a cigarette holder airflow sensing and detection circuit. It detects the airflow direction of the cigarette holder through an airflow sensor and obtains the airflow direction detection signal.

[0011] The airflow direction on / off determination submodule determines the airflow direction of the mouthpiece based on the mouthpiece airflow direction detection signal, triggering the mouthpiece switch to turn on or off. When the mouthpiece airflow is in the inhalation direction, the airflow sensor detects the inhalation direction airflow and triggers the inhalation forward conduction drive signal, which in turn triggers the mouthpiece switch to turn on. When the mouthpiece airflow is in the exhalation direction, the mouthpiece switch is turned off during reverse exhalation via the exhalation reverse cutoff switch.

[0012] The mouthpiece airflow trigger signal submodule obtains the mouthpiece airflow trigger signal by sending an electrical signal after the mouthpiece switch is turned on.

[0013] Preferably, the drive control level output module includes:

[0014] The multi-channel control level signal submodule, based on the airflow trigger signal from the mouthpiece, obtains multiple PMOS power transistor control low-level signals through the multi-channel control microcontroller, and sets up a multi-element independent atomizing liquid component control unit; the multi-element independent atomizing liquid component control unit includes: an independent atomizing liquid control unit containing nicotine and harmful ingredients, and an atomizing liquid control unit without nicotine and harmful flavoring ingredients.

[0015] The level signal connection transmission submodule transmits the low-level control signals of multiple PMOS power transistors to the corresponding pins of PMOS turn-on control; the signal line is connected through the corresponding pins of PMOS turn-on control to transmit the low-level control signals of multiple PMOS power transistors to the PMOS power transistor multi-driver module.

[0016] The PMOS multi-element drive intelligent control submodule controls the atomization amount of multiple independent atomizing liquid components by controlling the PMOS power transistor multi-element drive module, thereby obtaining the intelligent control mode of atomizing liquid components.

[0017] Preferably, the PMOS power transistor multi-element drive module includes:

[0018] The PMOS driver setting submodule sets up the PMOS power transistor multi-drive circuit according to the intelligent control mode of the atomizing liquid composition. The intelligent control mode of the atomizing liquid composition includes: the control mode containing nicotine and harmful ingredients and the control mode containing nicotine and harmless flavoring ingredients.

[0019] The multi-stage drive PMOS on / off submodule enables the multi-stage PMOS power transistors to be turned on or off via a multi-stage drive circuit for PMOS power transistors. The multi-stage drive circuit for PMOS power transistors includes: a driver element containing nicotine and a driver element containing nicotine and fragrance.

[0020] The drive control status signal submodule obtains the drive control status signal of the multi-element PMOS power transistor based on whether the multi-element PMOS power transistor is turned on or off.

[0021] Preferably, the discrete atomizing heating wire heating module includes:

[0022] The multi-channel heating element submodule controls the on / off heating of multiple heating elements based on the drive control status signal of the multi-element PMOS power transistor; the multi-channel heating element includes: a first heating element and a second heating element.

[0023] The multi-electrode independent atomization submodule heats the multi-electrode independent atomizing liquid and e-liquid through the switching on and off of multiple heating wires; the multi-electrode independent atomizing liquid and e-liquid includes: e-liquid components containing nicotine and harmful ingredients and e-liquid components without nicotine and harmful flavors.

[0024] The e-liquid component content submodule heats the e-liquid components containing nicotine (a harmful ingredient) using a first heating wire, and controls the atomization amount of the nicotine-containing harmful ingredient to be lower than the healthy standard nicotine content according to the heating control drive; it heats the nicotine-free and flavorless e-liquid components using a second heating wire, resulting in a fresh mouthfeel without nicotine flavor; and after being combined through multiple micro vapor channels, the atomized vapor is delivered into the mouth to obtain a healthy standard multi-flavored atomized vapor.

[0025] This invention provides a driving method for a PMOS power transistor used in electronic cigarettes, comprising:

[0026] S100 detects the airflow direction of the mouthpiece through an airflow sensor, turns the mouthpiece switch on or off, and obtains the mouthpiece airflow trigger signal.

[0027] S200, based on the airflow trigger signal from the mouthpiece, obtains multiple PMOS power transistor control low-level signals through a multi-channel control microcontroller, sets up multi-element independent atomizing liquid component control units, intelligently controls the atomization amount of multi-element independent atomizing liquid components, and obtains the intelligent control mode of atomizing liquid components.

[0028] S300, a multi-stage PMOS power transistor drive module, obtains multi-stage PMOS power transistor drive control status signals through a multi-stage PMOS power transistor drive circuit based on the intelligent control mode of the atomizing liquid composition.

[0029] The S400 heats the independent e-liquids and atomizers using multiple heating wires by switching on and off based on the drive control status signals of the multi-electrode PMOS power transistors, thereby obtaining atomized vapor with a healthy standard of multi-component content.

[0030] Preferably, S100 includes:

[0031] S101, A cigarette holder airflow sensing and detection circuit is set up to detect the airflow direction of the cigarette holder through an airflow sensor and obtain the airflow direction detection signal of the cigarette holder;

[0032] S102, based on the airflow direction detection signal of the mouthpiece, the airflow direction of the mouthpiece is determined, and the mouthpiece switch is triggered to turn on or off; when the airflow of the mouthpiece is in the direction of inhalation, when the airflow sensor detects the airflow in the direction of inhalation, the forward inhalation conduction drive signal is triggered, and the forward inhalation conduction drive triggers the mouthpiece switch to turn on; when the airflow of the mouthpiece is in the direction of exhalation, the mouthpiece switch is turned off during reverse exhalation through the reverse exhalation cut-off switch;

[0033] S103, after the mouthpiece switch is turned on, an electrical signal is emitted to obtain the mouthpiece airflow trigger signal.

[0034] Preferably, S200 includes:

[0035] S201, based on the airflow trigger signal from the mouthpiece, obtains multiple PMOS power transistor control low-level signals through a multi-channel control microcontroller, and sets up a multi-element independent atomizing liquid component control unit; the multi-element independent atomizing liquid component control unit includes: an independent atomizing liquid control unit containing nicotine and harmful components and an atomizing liquid control unit without nicotine and harmful flavor components.

[0036] S202 transmits multiple PMOS power transistor control low-level signals to the corresponding pins of PMOS turn-on control; and transmits multiple PMOS power transistor control low-level signals to the PMOS power transistor multi-driver module through the signal line connected to the corresponding pins of PMOS turn-on control.

[0037] S203 intelligently controls the atomization amount of multiple independent atomizing liquid components by controlling the PMOS power transistor multi-element drive module, thereby obtaining the intelligent control mode of atomizing liquid components.

[0038] Preferably, S300 includes:

[0039] S301, based on the intelligent control mode of the atomizing liquid composition, sets up a multi-stage drive circuit for the PMOS power transistor; the intelligent control mode of the atomizing liquid composition includes: a control mode for nicotine-containing and pollution-prone components and a control mode for nicotine-free and pollution-free flavoring components.

[0040] S302 enables the PMOS power transistors to be turned on or off via a multi-element driving circuit. The multi-element driving circuit includes a driver element containing nicotine (a polluting ingredient) and a driver element containing nicotine (a non-polluting flavoring ingredient).

[0041] S303 obtains the drive control status signal of the multi-element PMOS power transistor based on whether the multi-element PMOS power transistor is turned on or off.

[0042] Preferably, S400 includes:

[0043] S401, according to the drive control status signal of the multi-element PMOS power transistor, turns the heating wires on and off; the multi-element heating wires include: a first heating wire and a second heating wire;

[0044] S402 heats the multi-element independent atomizing liquid e-liquid by switching on and off the heating wires of multiple heating elements; the multi-element independent atomizing liquid e-liquid includes: e-liquid components containing nicotine and harmful ingredients and e-liquid components without nicotine and harmful flavorings.

[0045] S403, the e-liquid component content submodule, heats the e-liquid components containing nicotine (a harmful ingredient) using a first heating wire, and controls the atomization amount of the nicotine-containing harmful ingredient to be lower than the healthy standard nicotine content according to the heating control drive; it heats the nicotine-free and flavorless e-liquid components using a second heating wire, resulting in a fresh mouthfeel without nicotine or flavor; and after being combined through multiple micro vapor channels, the atomized vapor is delivered into the mouth to obtain a healthy standard multi-flavored atomized vapor.

[0046] Compared with the prior art, the present invention has at least the following beneficial effects:

[0047] This invention provides a driving circuit and method for PMOS power transistors used in electronic cigarettes. An airflow detection signal trigger module detects the airflow direction of the mouthpiece via an airflow sensor, causing the mouthpiece switch to turn on or off, thus acquiring an airflow trigger signal. A drive control level output module, based on the mouthpiece airflow trigger signal, acquires multiple low-level control signals from multiple PMOS power transistors via a multi-channel control microcontroller, setting up multi-element independent atomizing liquid component control units to intelligently control the atomization amount of each component, thus acquiring an intelligent control mode for the atomizing liquid components. A multi-element PMOS power transistor drive module, based on the intelligent control mode for the atomizing liquid components, acquires the multi-element PMOS power transistor drive control status signals through a multi-element PMOS power transistor drive circuit. A discrete atomizing heating wire heating module, based on the multi-element PMOS power transistor drive control status signals, heats the multi-element independent atomizing liquid by switching multiple heating wires on and off, achieving a healthy standard of multi-component atomization. Smoke generation; When the mouthpiece is inhaled, the JP1 switch group is turned on. Based on the JP1 switch group's on signal, the signal input pin of the microcontroller U3 obtains the JP1 switch group's on signal, acquiring the mouthpiece's inhalation signal. Based on the mouthpiece's inhalation signal, the microcontroller U3's level output pin outputs a low level, turning on the DS-Ps of the Q4 PMOS transistor NP1216. Power is supplied to the positive terminal of the heating wire S1 through VBAT, and the negative terminal of S1 is grounded. At this time, the heating wire is in a heating state, evaporating the e-liquid to achieve the smoking effect. It can accurately acquire the mouthpiece airflow to turn the mouthpiece switch on or off and protect the respiratory tract and the electronic cigarette's sensitive components. It can precisely control the content of nicotine and other added ingredients in the e-liquid of the electronic cigarette to achieve a level that does not affect health standards, improving the health standardization of e-liquid components. The multi-drive electronic cigarette switch can adapt to diverse drive control technology needs, improving the level of drive control intelligence. It can accurately acquire the drive control status of the PMOS power transistor and perform precise drive of the heating wire's on / off heating.

[0048] The present invention provides a driving circuit and driving method for a PMOS power transistor used in electronic cigarettes. Other advantages, objectives and features of the present invention will be partly apparent from the following description, and partly understood by those skilled in the art through study and practice of the present invention. Attached Figure Description

[0049] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used in conjunction with embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0050] Figure 1 This is a diagram of an embodiment of the driving circuit for a PMOS power transistor used in electronic cigarettes according to the present invention.

[0051] Figure 2 This is a schematic diagram of an embodiment of the driving circuit module framework for a PMOS power transistor used in electronic cigarettes according to the present invention.

[0052] Figure 3 This is a schematic diagram of an embodiment of a driving heating circuit for a PMOS power transistor used in electronic cigarettes according to the present invention. Detailed Implementation

[0053] The present invention will now be described in further detail with reference to the accompanying drawings and embodiments, so that those skilled in the art can implement it based on the specification; for example Figures 1-3 As shown, the present invention provides a driving circuit for a PMOS power transistor used in electronic cigarettes, comprising:

[0054] The airflow detection signal trigger module detects the airflow direction of the mouthpiece through the airflow sensor, turns the mouthpiece switch on or off, and obtains the mouthpiece airflow trigger signal.

[0055] The drive control level output module, based on the airflow trigger signal from the mouthpiece, obtains multiple PMOS power transistor control low-level signals through a multi-channel control microcontroller, sets up a multi-element independent atomizing liquid component control unit, intelligently controls the atomization amount of the multi-element independent atomizing liquid components, and obtains the intelligent control mode of the atomizing liquid components.

[0056] The PMOS power transistor multi-stage drive module obtains multi-stage PMOS power transistor drive control status signals through the PMOS power transistor multi-stage drive circuit according to the intelligent control mode of the atomizing liquid composition.

[0057] The discrete atomizing heating wire heating module heats the multi-component e-liquid by switching multiple heating wires on and off according to the multi-component PMOS power transistor drive control status signal, thereby obtaining atomized vapor with a healthy standard of multi-component content.

[0058] The principle and effect of the above technical solution are as follows: This invention provides a driving circuit for a PMOS power transistor used in electronic cigarettes, comprising:

[0059] The airflow detection signal trigger module detects the airflow direction of the mouthpiece through the airflow sensor, turns the mouthpiece switch on or off, and obtains the mouthpiece airflow trigger signal.

[0060] The drive control level output module, based on the airflow trigger signal from the mouthpiece, obtains multiple PMOS power transistor control low-level signals through a multi-channel control microcontroller, sets up a multi-element independent atomizing liquid component control unit, intelligently controls the atomization amount of the multi-element independent atomizing liquid components, and obtains the intelligent control mode of the atomizing liquid components.

[0061] The PMOS power transistor multi-stage drive module obtains multi-stage PMOS power transistor drive control status signals through the PMOS power transistor multi-stage drive circuit according to the intelligent control mode of the atomizing liquid composition.

[0062] The discrete atomizing heating wire module, based on the multi-element PMOS power transistor drive control status signal, heats the independent atomizing liquid and e-liquid through the on / off switching of multiple heating wires to obtain atomized smoke with a healthy standard of multi-component content. When the mouthpiece is inhaled, the JP1 switch group is turned on. Based on the JP1 switch group's on signal, the signal input pin of the microcontroller U3 obtains the JP1 switch group's on signal, acquiring the mouthpiece inhalation signal. Based on the mouthpiece inhalation signal, the level output pin of the microcontroller U3 outputs a low level, causing Q4 to... The PMOS transistor NP1216 is turned on at its drain and source terminals; power is supplied to the positive terminal of the heating coil S1 via VBAT, and the negative terminal of S1 is grounded. At this time, the heating coil is in the heating state, evaporating the e-liquid to achieve the smoking effect; it can accurately obtain the airflow of the mouthpiece to turn the mouthpiece switch on or off and protect the respiratory tract and the sensitive components of the e-cigarette; it can accurately control the content of nicotine and other added ingredients in the e-liquid of the e-cigarette to a level that does not affect health standards, improving the health standardization of e-liquid components; the multi-drive of the e-cigarette switch can adapt to diverse drive control technology needs, improving the level of intelligence of drive control; it can accurately obtain the drive control status of the PMOS power transistor and perform precise drive of heating coil on and off.

[0063] In one embodiment, the airflow detection signal triggering module includes:

[0064] The cigarette holder airflow sensing and detection submodule is equipped with a cigarette holder airflow sensing and detection circuit. It detects the airflow direction of the cigarette holder through an airflow sensor and obtains the airflow direction detection signal.

[0065] The airflow direction on / off determination submodule determines the airflow direction of the mouthpiece based on the mouthpiece airflow direction detection signal, triggering the mouthpiece switch to turn on or off. When the mouthpiece airflow is in the inhalation direction, the airflow sensor detects the inhalation direction airflow and triggers the inhalation forward conduction drive signal, which in turn triggers the mouthpiece switch to turn on. When the mouthpiece airflow is in the exhalation direction, the mouthpiece switch is turned off during reverse exhalation via the exhalation reverse cutoff switch.

[0066] The mouthpiece airflow trigger signal submodule obtains the mouthpiece airflow trigger signal by sending an electrical signal after the mouthpiece switch is turned on.

[0067] The principle and effect of the above technical solution are as follows: The airflow detection signal triggering module includes:

[0068] The cigarette holder airflow sensing and detection submodule is equipped with a cigarette holder airflow sensing and detection circuit. It detects the airflow direction of the cigarette holder through an airflow sensor and obtains the airflow direction detection signal.

[0069] The airflow direction determination submodule determines the airflow direction of the mouthpiece based on the mouthpiece airflow direction detection signal, triggering the mouthpiece switch to turn on or off. When the mouthpiece airflow is in the inhalation direction, the airflow sensor detects the inhalation direction airflow and triggers the inhalation forward conduction drive signal, which in turn triggers the mouthpiece switch to turn on. When the mouthpiece airflow is in the exhalation direction, the exhalation reverse cutoff switch turns off the mouthpiece switch during reverse exhalation. The mouthpiece airflow trigger signal submodule obtains the mouthpiece airflow trigger signal based on the electrical signal emitted after the mouthpiece switch is turned on.

[0070] The exhalation reverse cutoff switch includes: a thin elastic conductor sheet, a conductor sheet fulcrum, a reverse cutoff support, and a forward conduction pressure control assembly. One end of the elastic conductor sheet is fixed to the conductor sheet fulcrum, which is a conductor and electrically connected to a signal transmission wire. The other end of the elastic conductor sheet faces the mouthpiece opening at an initial tilt angle and closes the mouthpiece opening. The reverse cutoff support is an insulator; one end of the reverse cutoff support is fixed to the mouthpiece opening wall, and the other end contacts the elastic conductor sheet at the initial tilt angle, causing the elastic conductor sheet to reverse cut off when exhalation airflow occurs in the mouthpiece, and providing reverse support to prevent the elastic conductor sheet from being bent or damaged by excessive reverse airflow when exhalation airflow is too strong. The forward conduction pressure control assembly has multi-stage conduction pressure control contacts. The multi-stage conduction pressure control contacts include: a first-stage conduction pressure control contact and a second-stage conduction pressure control contact. When inhalation airflow occurs and is not greater than the intensity of the first pressure control stage airflow, the elastic conductor sheet contacts the first-stage conduction pressure control contact, triggering the first-stage inhalation signal. When the airflow in the inhalation direction is greater than the first pressure-controlled jump airflow intensity but not greater than the second pressure-controlled jump airflow intensity, the elastic conductor sheet contacts the second-stage conduction pressure control contact; the second-stage conduction pressure control contact triggers the second-stage inhalation signal, the intensity of which is greater than the intensity of the first-stage inhalation signal; when the airflow in the inhalation direction is greater than the intensity of the second pressure-controlled jump airflow, the elastic conductor sheet contacts the protection-stage conduction pressure control contact, triggering the reverse solenoid valve to close the mouthpiece air outlet; this prevents excessive airflow in the inhalation direction from damaging the mouthpiece and prevents excessive airflow from impacting the respiratory tract, thus protecting the respiratory tract; the first-stage inhalation signal corresponds to the first-stage heating wire temperature, and the second-stage inhalation signal corresponds to the second-stage heating wire temperature; the second-stage heating wire temperature is greater than the first-stage heating wire temperature, making the second-stage heating wire atomization speed greater than the first-stage heating wire atomization speed; this allows for precise acquisition of the mouthpiece airflow to turn the mouthpiece switch on or off, protecting the respiratory tract and the electronic cigarette's sensitive components.

[0071] In one embodiment, the drive control level output module includes:

[0072] The multi-channel control level signal submodule, based on the airflow trigger signal from the mouthpiece, obtains multiple PMOS power transistor control low-level signals through the multi-channel control microcontroller, and sets up a multi-element independent atomizing liquid component control unit; the multi-element independent atomizing liquid component control unit includes: an independent atomizing liquid control unit containing nicotine and harmful ingredients, and an atomizing liquid control unit without nicotine and harmful flavoring ingredients.

[0073] The level signal connection transmission submodule transmits the low-level control signals of multiple PMOS power transistors to the corresponding pins of PMOS turn-on control; the signal line is connected through the corresponding pins of PMOS turn-on control to transmit the low-level control signals of multiple PMOS power transistors to the PMOS power transistor multi-driver module.

[0074] The PMOS multi-element drive intelligent control submodule controls the atomization amount of multiple independent atomizing liquid components by controlling the PMOS power transistor multi-element drive module, thereby obtaining the intelligent control mode of atomizing liquid components.

[0075] The principle and effect of the above technical solution are as follows: The drive control level output module includes:

[0076] The multi-channel control level signal submodule, based on the airflow trigger signal from the mouthpiece, obtains multiple PMOS power transistor control low-level signals through the multi-channel control microcontroller, and sets up a multi-element independent atomizing liquid component control unit; the multi-element independent atomizing liquid component control unit includes: an independent atomizing liquid control unit containing nicotine and harmful ingredients, and an atomizing liquid control unit without nicotine and harmful flavoring ingredients.

[0077] The level signal connection transmission submodule transmits the low-level control signals of multiple PMOS power transistors to the corresponding pins of PMOS turn-on control; the signal line is connected through the corresponding pins of PMOS turn-on control to transmit the low-level control signals of multiple PMOS power transistors to the PMOS power transistor multi-driver module.

[0078] The PMOS multi-drive intelligent control submodule controls the atomization amount of multiple independent atomizing liquid components by controlling the PMOS power transistor multi-drive module, and obtains the intelligent control mode of atomizing liquid components; it can accurately control the content of nicotine and other added ingredients in e-cigarette e-liquid to a level that does not affect health standards, and improve the health standardization of e-liquid components.

[0079] In one embodiment, the PMOS power transistor multi-element drive module includes:

[0080] The PMOS driver setting submodule sets up the PMOS power transistor multi-drive circuit according to the intelligent control mode of the atomizing liquid composition. The intelligent control mode of the atomizing liquid composition includes: the control mode containing nicotine and harmful ingredients and the control mode containing nicotine and harmless flavoring ingredients.

[0081] The multi-stage drive PMOS on / off submodule enables the multi-stage PMOS power transistors to be turned on or off via a multi-stage drive circuit for PMOS power transistors. The multi-stage drive circuit for PMOS power transistors includes: a driver element containing nicotine and a driver element containing nicotine and fragrance.

[0082] The drive control status signal submodule obtains the drive control status signal of the multi-element PMOS power transistor based on whether the multi-element PMOS power transistor is turned on or off.

[0083] The principle and effect of the above technical solution are as follows: The PMOS power transistor multi-element drive module includes: a PMOS drive setting submodule, which sets the PMOS power transistor multi-element drive circuit according to the intelligent control mode of the atomizing liquid composition; the intelligent control mode of the atomizing liquid composition includes: a control mode containing nicotine and harmful components and a control mode for nicotine-free and harmless flavoring components; a multi-element drive PMOS on / off submodule, which turns the multi-element PMOS power transistor on or off through the PMOS power transistor multi-element drive circuit; the PMOS power transistor multi-element drive circuit includes: a driver element containing nicotine and harmful components and a driver element for nicotine-free and harmless flavoring components; and a drive control status signal submodule, which obtains the multi-element PMOS power transistor drive control status signal according to the on or off state of the multi-element PMOS power transistor; Based on the on / off state of the multi-electrode PMOS power transistors, the acquisition of the multi-electrode PMOS power transistor drive control status signal includes: when the intelligent control mode for the atomizer component is the nicotine-containing harmful component control mode, the driver element for the nicotine-containing harmful component controls the on / off rate of the PMOS power transistor containing the nicotine-containing harmful component, outputs an accurate duty cycle, and controls the atomization amount of the nicotine-containing harmful component; when the intelligent control mode for the atomizer component is the nicotine-containing harmful component control mode, the driver element for the nicotine-free and flavor-free component only controls the on / off state of the PMOS power transistor containing the nicotine-free and flavor-free component; the acquisition of the multi-electrode PMOS power transistor drive control status signal; the multi-electrode driver for electronic cigarette switches can adapt to diverse drive control technology requirements, and the level of intelligent drive control is improved.

[0084] In one embodiment, the discrete atomizing heating wire heating module includes:

[0085] The multi-channel heating element submodule controls the on / off heating of multiple heating elements based on the drive control status signal of the multi-element PMOS power transistor; the multi-channel heating element includes: a first heating element and a second heating element.

[0086] The multi-electrode independent atomization submodule heats the multi-electrode independent atomizing liquid and e-liquid through the switching on and off of multiple heating wires; the multi-electrode independent atomizing liquid and e-liquid includes: e-liquid components containing nicotine and harmful ingredients and e-liquid components without nicotine and harmful flavors.

[0087] The e-liquid component content submodule heats the e-liquid components containing nicotine (a harmful ingredient) using a first heating wire, and controls the atomization amount of the nicotine-containing harmful ingredient to be lower than the healthy standard nicotine content according to the heating control drive; it heats the nicotine-free and flavorless e-liquid components using a second heating wire, resulting in a fresh mouthfeel without nicotine flavor; and after being combined through multiple micro vapor channels, the atomized vapor is delivered into the mouth to obtain a healthy standard multi-flavored atomized vapor.

[0088] The principle and effect of the above technical solution are as follows: The discrete atomizing heating wire heating module includes:

[0089] The multi-channel heating element submodule controls the on / off heating of multiple heating elements based on the drive control status signal of the multi-element PMOS power transistor; the multi-channel heating element includes: a first heating element and a second heating element.

[0090] The multi-electrode independent atomization submodule heats the multi-electrode liquids / liquids through the on / off switching of multiple heating wires. These multi-electrode liquids / liquids include: e-liquid components containing nicotine and harmful ingredients, and e-liquid components without nicotine or harmful flavors. The e-liquid component content submodule heats the nicotine-containing e-liquid component through a first heating wire, controlling the atomization amount to be below the healthy standard nicotine content based on heating control. It then heats the nicotine-free e-liquid component through a second heating wire, providing a fresh, nicotine-free flavor in the mouth. The atomized vapor is then delivered to the mouth through multiple converging micro-vapor channels, resulting in a healthy, multi-flavored atomized vapor. The submodule can precisely acquire the PMOS power transistor drive control status and precisely drive the heating wires on and off.

[0091] Calculate the power loss value of the multi-element PMOS power transistor drive:

[0092]

[0093] Wherein, POWQS represents the driving power loss value of the multi-element PMOS power transistor, TZ represents the on-off cycle time value of the multi-element PMOS power transistor, ton represents the on-time value of the multi-element PMOS power transistor, UOW represents the off-off voltage value of the multi-element PMOS power transistor, IQS represents the leakage current of the multi-element PMOS power transistor, t represents the time integral variable, tom represents the off-time value of the multi-element PMOS power transistor, UOQ represents the on-off voltage value of the multi-element PMOS power transistor, and IQR represents the on-current of the multi-element PMOS power transistor. By calculating the driving power loss value of the multi-element PMOS power transistor, the dynamic characteristics of the driving power loss of the multi-element PMOS power transistor can be analyzed. Furthermore, by reducing the delay time that affects the switching speed and the leakage current that affects the switching loss, the driving power loss of the multi-element PMOS power transistor can be significantly reduced.

[0094] This invention provides a driving method for a PMOS power transistor used in electronic cigarettes, comprising:

[0095] S100 detects the airflow direction of the mouthpiece through an airflow sensor, turns the mouthpiece switch on or off, and obtains the mouthpiece airflow trigger signal.

[0096] S200, based on the airflow trigger signal from the mouthpiece, obtains multiple PMOS power transistor control low-level signals through a multi-channel control microcontroller, sets up multi-element independent atomizing liquid component control units, intelligently controls the atomization amount of multi-element independent atomizing liquid components, and obtains the intelligent control mode of atomizing liquid components.

[0097] S300, a multi-stage PMOS power transistor drive module, obtains multi-stage PMOS power transistor drive control status signals through a multi-stage PMOS power transistor drive circuit based on the intelligent control mode of the atomizing liquid composition.

[0098] The S400 heats the independent e-liquids and atomizers using multiple heating wires by switching on and off based on the drive control status signals of the multi-electrode PMOS power transistors, thereby obtaining atomized vapor with a healthy standard of multi-component content.

[0099] The principle and effect of the above technical solution are as follows: This invention provides a driving method for PMOS power transistors used in electronic cigarettes, including: detecting the airflow direction of the mouthpiece through an airflow sensor, turning the mouthpiece switch on or off, and obtaining a mouthpiece airflow trigger signal; based on the mouthpiece airflow trigger signal, obtaining multiple PMOS power transistor control low-level signals through a multi-channel control microcontroller, setting up a multi-element independent atomizing liquid component control unit, intelligently controlling the atomization amount of the multi-element independent atomizing liquid components, and obtaining an intelligent control mode for the atomizing liquid components; and a PMOS power transistor multi-element driving module, based on the intelligent control mode of the atomizing liquid components. The system obtains the drive control status signal of the multi-electrode PMOS power transistors through a multi-electrode power transistor drive circuit. Based on the multi-electrode power transistor drive control status signal, the system heats the independent e-liquids and e-liquids through the switching of multiple heating wires to obtain atomized smoke with a healthy standard multi-component content. When the mouthpiece is inhaled, the JP1 switch group is turned on. Based on the JP1 switch group on signal, the signal input pin of the microcontroller U3 obtains the JP1 switch group on signal and acquires the mouthpiece inhalation signal. Based on the mouthpiece inhalation signal, the level output pin of the microcontroller U3 outputs a low level, causing Q4 to... The PMOS transistor NP1216 is turned on at its drain and source terminals; power is supplied to the positive terminal of the heating coil S1 via VBAT, and the negative terminal of S1 is grounded. At this time, the heating coil is in the heating state, evaporating the e-liquid to achieve the smoking effect; it can accurately obtain the airflow of the mouthpiece to turn the mouthpiece switch on or off and protect the respiratory tract and the sensitive components of the e-cigarette; it can accurately control the content of nicotine and other added ingredients in the e-liquid of the e-cigarette to a level that does not affect health standards, improving the health standardization of e-liquid components; the multi-drive of the e-cigarette switch can adapt to diverse drive control technology needs, improving the level of intelligence of drive control; it can accurately obtain the drive control status of the PMOS power transistor and perform precise drive of heating coil on and off.

[0100] In one embodiment, S100 includes:

[0101] S101, A cigarette holder airflow sensing and detection circuit is set up to detect the airflow direction of the cigarette holder through an airflow sensor and obtain the airflow direction detection signal of the cigarette holder;

[0102] S102, based on the airflow direction detection signal of the mouthpiece, the airflow direction of the mouthpiece is determined, and the mouthpiece switch is triggered to turn on or off; when the airflow of the mouthpiece is in the direction of inhalation, when the airflow sensor detects the airflow in the direction of inhalation, the forward inhalation conduction drive signal is triggered, and the forward inhalation conduction drive triggers the mouthpiece switch to turn on; when the airflow of the mouthpiece is in the direction of exhalation, the mouthpiece switch is turned off during reverse exhalation through the reverse exhalation cut-off switch;

[0103] S103, after the mouthpiece switch is turned on, an electrical signal is emitted to obtain the mouthpiece airflow trigger signal.

[0104] The principle and effect of the above technical solution are as follows: An airflow sensing and detection circuit is set up to detect the airflow direction of the cigarette holder through an airflow sensor, obtaining an airflow direction detection signal; based on the airflow direction detection signal, the airflow direction is determined, triggering the cigarette holder switch to turn on or off; when the airflow is in the inhalation direction, the airflow sensor detects the inhalation direction airflow and triggers an inhalation forward conduction drive signal, which in turn triggers the cigarette holder switch to turn on; when the airflow is in the exhalation direction, the exhalation reverse cutoff switch turns off the cigarette holder switch during reverse exhalation; based on the electrical signal emitted after the cigarette holder switch is turned on, the cigarette holder airflow trigger signal is obtained.

[0105] The exhalation reverse cutoff switch includes: a thin elastic conductor sheet, a conductor sheet fulcrum, a reverse cutoff support, and a forward conduction pressure control assembly. One end of the elastic conductor sheet is fixed to the conductor sheet fulcrum, which is a conductor and electrically connected to a signal transmission wire. The other end of the elastic conductor sheet faces the mouthpiece opening at an initial tilt angle and closes the mouthpiece opening. The reverse cutoff support is an insulator; one end of the reverse cutoff support is fixed to the mouthpiece opening wall, and the other end contacts the elastic conductor sheet at the initial tilt angle, causing the elastic conductor sheet to reverse cut off when exhalation airflow occurs in the mouthpiece, and providing reverse support to prevent the elastic conductor sheet from being bent or damaged by excessive reverse airflow when exhalation airflow is too strong. The forward conduction pressure control assembly has multi-stage conduction pressure control contacts. The multi-stage conduction pressure control contacts include: a first-stage conduction pressure control contact and a second-stage conduction pressure control contact. When inhalation airflow occurs and is not greater than the intensity of the first pressure control stage airflow, the elastic conductor sheet contacts the first-stage conduction pressure control contact, triggering the first-stage inhalation signal. When the airflow in the inhalation direction is greater than the first pressure-controlled jump airflow intensity but not greater than the second pressure-controlled jump airflow intensity, the elastic conductor sheet contacts the second-stage conduction pressure control contact; the second-stage conduction pressure control contact triggers the second-stage inhalation signal, the intensity of which is greater than the intensity of the first-stage inhalation signal; when the airflow in the inhalation direction is greater than the intensity of the second pressure-controlled jump airflow, the elastic conductor sheet contacts the protection-stage conduction pressure control contact, triggering the reverse solenoid valve to close the mouthpiece air outlet; this prevents excessive airflow in the inhalation direction from damaging the mouthpiece and prevents excessive airflow from impacting the respiratory tract, thus protecting the respiratory tract; the first-stage inhalation signal corresponds to the first-stage heating wire temperature, and the second-stage inhalation signal corresponds to the second-stage heating wire temperature; the second-stage heating wire temperature is greater than the first-stage heating wire temperature, making the second-stage heating wire atomization speed greater than the first-stage heating wire atomization speed; this allows for precise acquisition of the mouthpiece airflow to turn the mouthpiece switch on or off, protecting the respiratory tract and the electronic cigarette's sensitive components.

[0106] In one embodiment, S200 includes:

[0107] S201, based on the airflow trigger signal from the mouthpiece, obtains multiple PMOS power transistor control low-level signals through a multi-channel control microcontroller, and sets up a multi-element independent atomizing liquid component control unit; the multi-element independent atomizing liquid component control unit includes: an independent atomizing liquid control unit containing nicotine and harmful components and an atomizing liquid control unit without nicotine and harmful flavor components.

[0108] S202 transmits multiple PMOS power transistor control low-level signals to the corresponding pins of PMOS turn-on control; and transmits multiple PMOS power transistor control low-level signals to the PMOS power transistor multi-driver module through the signal line connected to the corresponding pins of PMOS turn-on control.

[0109] S203 intelligently controls the atomization amount of multiple independent atomizing liquid components by controlling the PMOS power transistor multi-element drive module, thereby obtaining the intelligent control mode of atomizing liquid components.

[0110] The principle and effect of the above technical solution are as follows: Based on the airflow trigger signal of the mouthpiece, a multi-channel control microcontroller obtains multiple PMOS power transistor control low-level signals to set up a multi-element independent atomizing liquid component control unit; the multi-element independent atomizing liquid component control unit includes: an independent atomizing liquid control unit containing nicotine and harmful ingredients, and an atomizing liquid control unit without nicotine and harmful flavoring ingredients; the multiple PMOS power transistor control low-level signals are transmitted to the corresponding pins of the PMOS conduction control; the signal lines are connected through the corresponding pins of the PMOS conduction control to transmit the multiple PMOS power transistor control low-level signals to the PMOS power transistor multi-element drive module; by controlling the PMOS power transistor multi-element drive module, the atomization amount of the multi-element independent atomizing liquid components is intelligently controlled to obtain the intelligent control mode of the atomizing liquid components; it can accurately control the content of nicotine and other added ingredients in the e-liquid of electronic cigarettes to achieve a level that does not affect health standards, thereby improving the health standardization of e-liquid components.

[0111] In one embodiment, S300 includes:

[0112] S301, based on the intelligent control mode of the atomizing liquid composition, sets up a multi-stage drive circuit for the PMOS power transistor; the intelligent control mode of the atomizing liquid composition includes: a control mode for nicotine-containing and pollution-prone components and a control mode for nicotine-free and pollution-free flavoring components.

[0113] S302 enables the PMOS power transistors to be turned on or off via a multi-element driving circuit. The multi-element driving circuit includes a driver element containing nicotine (a polluting ingredient) and a driver element containing nicotine (a non-polluting flavoring ingredient).

[0114] S303 obtains the drive control status signal of the multi-element PMOS power transistor based on whether the multi-element PMOS power transistor is turned on or off.

[0115] The principle and effect of the above technical solution are as follows: Based on the intelligent control mode of the atomizing liquid composition, a multi-stage driving circuit of PMOS power transistor is set up; the intelligent control mode of the atomizing liquid composition includes: a control mode containing nicotine and harmful ingredients and a control mode containing nicotine and harmless flavoring ingredients.

[0116] The PMOS power transistor multi-element driving circuit enables the multi-element PMOS power transistors to be turned on or off. The multi-element driving circuit includes: a driver element containing nicotine and a driver element without nicotine and without fragrance.

[0117] Based on the on / off state of the multi-element PMOS power transistor, obtain the drive control status signal of the multi-element PMOS power transistor;

[0118] Based on the on / off state of the multi-element PMOS power transistors, the drive control status signal of the multi-element PMOS power transistors is obtained as follows: When the intelligent control mode of the atomizing liquid is the nicotine-containing harmful component control mode, the driver element for the nicotine-containing harmful component controls the on / off rate of the PMOS power transistors containing nicotine harmful components, outputs an accurate duty cycle, and controls the atomization amount of the nicotine-containing harmful components; when the intelligent control mode of the atomizing liquid is the nicotine-containing harmful component control mode, the driver element for the nicotine-free and flavor-free component only controls the on / off state of the PMOS power transistors containing nicotine and flavor-free components; the multi-element PMOS power transistor drive control status signal is obtained; the multi-element drive of the electronic cigarette switch can adapt to diverse drive control technology requirements, and the level of intelligence of drive control is improved.

[0119] In one embodiment, S400 includes:

[0120] S401, according to the drive control status signal of the multi-element PMOS power transistor, turns the heating wires on and off; the multi-element heating wires include: a first heating wire and a second heating wire;

[0121] S402 heats the multi-element independent atomizing liquid e-liquid by switching on and off the heating wires of multiple heating elements; the multi-element independent atomizing liquid e-liquid includes: e-liquid components containing nicotine and harmful ingredients and e-liquid components without nicotine and harmful flavorings.

[0122] S403, the e-liquid component content submodule, heats the e-liquid components containing nicotine (a harmful ingredient) using a first heating wire, and controls the atomization amount of the nicotine-containing harmful ingredient to be lower than the healthy standard nicotine content according to the heating control drive; it heats the nicotine-free and flavorless e-liquid components using a second heating wire, resulting in a fresh mouthfeel without nicotine or flavor; and after being combined through multiple micro vapor channels, the atomized vapor is delivered into the mouth to obtain a healthy standard multi-flavored atomized vapor.

[0123] The principle and effect of the above technical solution are as follows: the heating wires of multiple heating elements are switched on and off according to the driving control state signal of the multi-element PMOS power transistor; the heating wires of multiple heating elements include: a first heating wire and a second heating wire;

[0124] Heating is achieved by switching multiple heating wires on and off to heat the multi-element independent atomizing liquid e-liquid; the multi-element independent atomizing liquid e-liquid includes:

[0125] E-liquid components containing nicotine and harmful ingredients, and e-liquid components without nicotine and harmful flavorings;

[0126] The e-liquid component content submodule heats the nicotine-containing e-liquid components using a first heating wire, controlling the atomization amount of these components to be below the healthy standard nicotine content. It then heats the nicotine-free, flavor-free e-liquid components using a second heating wire, resulting in a fresh, flavor-free mouthfeel. Multiple micro-vapor channels converge to deliver the atomized vapor into the mouth, providing a healthy, multi-flavored vapor. The module can precisely acquire the PMOS power transistor drive control status and precisely drive the heating wire on / off.

[0127] Calculate the power loss value of the multi-element PMOS power transistor drive:

[0128]

[0129] Wherein, POWQS represents the driving power loss value of the multi-element PMOS power transistor, TZ represents the on-off cycle time value of the multi-element PMOS power transistor, ton represents the on-time value of the multi-element PMOS power transistor, UOW represents the off-off voltage value of the multi-element PMOS power transistor, IQS represents the leakage current of the multi-element PMOS power transistor, t represents the time integral variable, tom represents the off-time value of the multi-element PMOS power transistor, UOQ represents the on-off voltage value of the multi-element PMOS power transistor, and IQR represents the on-current of the multi-element PMOS power transistor. By calculating the driving power loss value of the multi-element PMOS power transistor, the dynamic characteristics of the driving power loss of the multi-element PMOS power transistor can be analyzed. Furthermore, by reducing the delay time that affects the switching speed and the leakage current that affects the switching loss, the driving power loss of the multi-element PMOS power transistor can be significantly reduced.

[0130] Although embodiments of the present invention have been disclosed above, they are not limited to the applications listed in the specification and embodiments. They can be applied to various fields suitable for the present invention. Other modifications can be easily made by those skilled in the art. Therefore, without departing from the general concept defined by the claims and their equivalents, the present invention is not limited to the specific details and illustrations shown and described herein.

Claims

1. A driving circuit of a PMOS power transistor for an electronic cigarette, characterized in that, The application relates to a health standard multi-element component content atomized smoke device, which comprises the following parts: an air flow detection signal triggering module which detects the air flow direction of a cigarette holder through an air flow sensor, turns on or turns off a cigarette holder switch, and obtains a cigarette holder air flow triggering signal; a drive control level output module which obtains a multi-path PMOS power tube control low level signal through a multi-path control single-chip microcomputer according to the cigarette holder air flow triggering signal, sets a multi-element independent atomized liquid component control unit, intelligently controls the atomized amount of the multi-element independent atomized liquid component, and obtains an atomized liquid component intelligent control mode; a PMOS power tube multi-element drive module which obtains a multi-element PMOS power tube drive control state signal through a PMOS power tube multi-element drive circuit according to the atomized liquid component intelligent control mode; a discrete atomized heating wire heating module which heats the multi-element independent atomized liquid tobacco through multi-path heating electric heating wire on-off heating according to the multi-element PMOS power tube drive control state signal, and obtains health standard multi-element component content atomized smoke; when the cigarette holder air flow appears in an exhalation direction air flow, a reverse exhalation cut-off switch is used to turn off the cigarette holder switch when reverse exhalation occurs; the reverse exhalation cut-off switch comprises an elastic conductor sheet, a conductor sheet fulcrum, a reverse cut-off support and a forward conduction pressure control group, one end of the elastic conductor sheet is fixed on the conductor sheet fulcrum, the conductor sheet fulcrum is a conductor and is electrically connected with a signal transmission lead, the other end of the elastic conductor sheet is arranged at an initial inclination angle towards a cigarette holder air port and closes the cigarette holder air port, the reverse cut-off support is an insulator, one end of the reverse cut-off support is fixed on the wall of the cigarette holder air port and the other end contacts and stops the elastic conductor sheet at the initial inclination angle, so that the elastic conductor sheet is reversely cut off when the cigarette holder air flow appears in the exhalation direction and reverse support is provided to prevent the elastic conductor sheet from being turned over or damaged by excessive reverse air flow when the exhalation direction air flow is too large, and the forward conduction pressure control group has multi-stage conduction pressure control contacts; the multi-stage conduction pressure control contacts comprise a first-stage conduction pressure control contact and a second-stage conduction pressure control contact; when the inhalation direction air flow appears and is not greater than the first pressure control jump stage air flow intensity, the elastic conductor sheet contacts the first-stage conduction pressure control contact and triggers a first-stage inhalation signal; when the inhalation direction air flow appears and is greater than the first pressure control jump stage air flow intensity and is not greater than the second pressure control jump stage air flow intensity, the elastic conductor sheet contacts the second-stage conduction pressure control contact; the second-stage conduction pressure control contact triggers a second-stage inhalation signal, and the second-stage inhalation signal intensity is greater than the first-stage inhalation signal intensity; when the inhalation direction air flow appears and is greater than the second pressure control jump stage air flow intensity, the elastic conductor sheet contacts a protection-stage conduction pressure control contact and triggers a reverse electromagnetic valve to close the cigarette holder air port; the first-stage inhalation signal corresponds to a first-stage electric heating wire heating temperature, and the second-stage inhalation signal corresponds to a second-stage electric heating wire heating temperature; the second-stage electric heating wire heating temperature is greater than the first-stage electric heating wire heating temperature, so that the second-stage electric heating wire heating atomization speed is greater than the first-stage electric heating wire heating atomization speed.

2. The driving circuit of a PMOS power transistor for an electronic cigarette according to claim 1, characterized in that, The air flow detection signal triggering module comprises: a cigarette holder air flow sensing detection sub-module which sets a cigarette holder air flow sensing detection circuit, detects the air flow direction of the cigarette holder through an air flow sensor, and obtains a cigarette holder air flow direction detection signal; The airflow direction on-off determination sub-module determines the airflow direction of the cigarette holder according to the cigarette holder airflow direction detection signal, triggers the cigarette holder switch to be turned on or turned off, and triggers the cigarette holder switch to be turned on when the cigarette holder airflow is in the inhaling direction airflow and the inhaling direction airflow is detected by the airflow sensor; the cigarette holder switch is turned off when the cigarette holder airflow is in the exhaling direction airflow, and the cigarette holder switch is turned off by the exhaling reverse direction cut-off switch in the reverse exhaling direction; The cigarette holder airflow trigger signal sub-module obtains the cigarette holder airflow trigger signal according to the electric signal sent after the cigarette holder switch is turned on.

3. The driving circuit of a PMOS power transistor for an electronic cigarette according to claim 1, characterized in that, The drive control level output module comprises: The multi-path control level signal sub-module obtains the multi-path PMOS power tube control low-level signal according to the cigarette holder airflow trigger signal, sets the multi-element independent atomization liquid component control unit, and comprises the nicotine-containing harmful component independent atomization liquid control element and the nicotine-free harmless flavor component atomization liquid control element. The level signal connection transmission sub-module transmits the multi-path PMOS power tube control low-level signal to the PMOS conduction control corresponding pin, connects the signal line through the PMOS conduction control corresponding pin, and transmits the multi-path PMOS power tube control low-level signal to the PMOS power tube multi-element drive module. The PMOS multi-element drive intelligent control sub-module intelligently controls the atomization amount of the multi-element independent atomization liquid component through the PMOS power tube multi-element drive module, and obtains the atomization liquid component intelligent control mode.

4. The driving circuit of a PMOS power transistor for an electronic cigarette according to claim 1, characterized in that, The PMOS power tube multi-element drive module comprises: The PMOS drive setting sub-module sets the PMOS power tube multi-element drive circuit according to the atomization liquid component intelligent control mode, and the atomization liquid component intelligent control mode comprises the nicotine-containing harmful component control mode and the nicotine-free harmless flavor component control mode. The multi-element drive PMOS on-off sub-module makes the multi-element PMOS power tube be turned on or turned off through the PMOS power tube multi-element drive circuit, and the PMOS power tube multi-element drive circuit comprises the nicotine-containing harmful component drive element and the nicotine-free harmless flavor component drive element. The drive control state signal sub-module obtains the multi-element PMOS power tube drive control state signal according to the multi-element PMOS power tube being turned on or turned off.

5. The driving circuit of a PMOS power transistor for an electronic cigarette according to claim 1, characterized in that, The discrete atomization heating wire heating module comprises: The multi-path heating electric heating wire sub-module heats the multi-path heating electric heating wire according to the multi-element PMOS power tube drive control state signal, and the multi-path heating electric heating wire comprises the first heating electric heating wire and the second heating electric heating wire. The multi-element independent atomization sub-module heats the multi-element independent atomization liquid tobacco oil through the multi-path heating electric heating wire on-off heating, and the multi-element independent atomization liquid tobacco oil comprises the nicotine-containing harmful component tobacco oil element and the nicotine-free harmless flavor tobacco oil element. The smoke oil component content sub-module heats the smoke oil component containing nicotine harmful components through the first heating wire, and controls the nicotine content of the atomized amount of the smoke oil component containing nicotine harmful components to be lower than the health standard nicotine content according to the heating control driving; the second heating wire heats the smoke oil component without nicotine and harmless essence, and the oral cavity is freshened without nicotine essence; the atomized smoke is input into the oral cavity through a plurality of micro smoke pipelines after being converged, and the health standard multi-element taste atomized smoke is obtained.

6. A driving method of a PMOS power transistor for an electronic cigarette, characterized by, Comprise: S100, detecting the airflow direction of the cigarette holder through an airflow sensor, turning on or turning off the cigarette holder switch to obtain a cigarette holder airflow trigger signal; S200, obtaining a multi-path PMOS power tube control low-level signal through a multi-path control single-chip according to the cigarette holder airflow trigger signal, setting a multi-element independent atomized liquid component control unit, intelligently controlling the atomized amount of the multi-element independent atomized liquid component, and obtaining an atomized liquid component intelligent control mode; S300, a PMOS power tube multi-element driving module, obtaining a multi-element PMOS power tube driving control state signal through a PMOS power tube multi-element driving circuit according to the atomized liquid component intelligent control mode; S400, heating the multi-element independent atomized liquid smoke oil through multi-path heating wire on-off heating according to the multi-element PMOS power tube driving control state signal, and obtaining health standard multi-element component content atomized smoke; When the exhalation direction airflow appears in the cigarette holder airflow, the exhalation reverse cut-off switch is turned off, and the cigarette holder switch is turned off when the reverse exhalation. The expiration reverse cutoff switch comprises: an elastic conductor sheet, a conductor sheet support point, a reverse cutoff support, and a forward conduction voltage control group; one end of the elastic conductor sheet is fixed on the conductor sheet support point, the conductor sheet support point is a conductor, and is electrically connected with a signal transmission wire; the other end of the elastic conductor sheet is at an initial inclination angle towards a cigarette mouthpiece air port, and the cigarette mouthpiece air port is closed; the reverse cutoff support is an insulator, one end of the reverse cutoff support is fixed on the wall of the cigarette mouthpiece air port, and the other end of the reverse cutoff support contacts and stops the elastic conductor sheet at the initial inclination angle, so that the elastic conductor sheet is reversely cut off when the expiration direction airflow appears in the cigarette mouthpiece, and a reverse support is provided to prevent the elastic conductor sheet from being folded or damaged by the reverse airflow when the expiration direction airflow is too large; the forward conduction voltage control group has multiple levels of conduction voltage control contacts; the multiple levels of conduction voltage control contacts comprise: a first level of conduction voltage control contact and a second level of conduction voltage control contact; when the inhalation direction airflow appears and is not greater than the first pressure control jump level airflow intensity, the elastic conductor sheet contacts the first level of conduction voltage control contact to trigger a first level of inhalation signal; when the inhalation direction airflow appears and is greater than the first pressure control jump level airflow intensity and is not greater than the second pressure control jump level airflow intensity, the elastic conductor sheet contacts the second level of conduction voltage control contact; the second level of conduction voltage control contact triggers a second level of inhalation signal, and the second level of inhalation signal intensity is greater than the first level of inhalation signal intensity; when the inhalation direction airflow appears and is greater than the second pressure control jump level airflow intensity, the elastic conductor sheet contacts a protection level of conduction voltage control contact to trigger a reverse electromagnetic valve to close the cigarette mouthpiece air port; the first level of inhalation signal corresponds to a first level of heating temperature of an electric heating wire, and the second level of inhalation signal corresponds to a second level of heating temperature of the electric heating wire; the second level of heating temperature of the electric heating wire is greater than the first level of heating temperature of the electric heating wire, so that the second level of heating atomization speed of the electric heating wire is greater than the first level of heating atomization speed of the electric heating wire.

7. The driving method of the PMOS power transistor for the electronic cigarette according to claim 6, characterized in that, S100, comprising: S101, setting a cigarette mouthpiece airflow sensing detection circuit, detecting the direction of the cigarette mouthpiece airflow through an airflow sensor, and obtaining a cigarette mouthpiece airflow direction detection signal; S102, judging the cigarette mouthpiece airflow direction according to the cigarette mouthpiece airflow direction detection signal, triggering the cigarette mouthpiece switch to be turned on or turned off; when the cigarette mouthpiece airflow is in the inhaling direction airflow, S102, obtaining a cigarette mouthpiece switch conduction signal through a signal line connected with the cigarette mouthpiece switch; When the airflow sensor detects the inhaling direction airflow, the inhaling positive direction conduction driving signal is triggered, the inhaling positive direction conduction driving triggers the cigarette mouthpiece switch to be turned on, so that the cigarette mouthpiece switch is turned on; when the cigarette mouthpiece airflow is in the exhaling direction airflow, the exhaling reverse direction cut-off switch is used to turn off the cigarette mouthpiece switch in the reverse exhaling direction. S103, obtaining a cigarette mouthpiece airflow trigger signal according to the cigarette mouthpiece switch conduction signal.

8. The driving method of the PMOS power transistor for the electronic cigarette according to claim 6, characterized in that, S200, comprising: S201, obtaining a multiple PMOS power tube control low level signal through a multiple control single chip according to the cigarette mouthpiece airflow trigger signal, and setting a multiple independent atomization liquid component control unit; the multiple independent atomization liquid component control unit comprises: a nicotine containing harmful component independent atomization liquid control unit and a nicotine free harmless essence component atomization liquid control unit; S202, transmitting the multiple PMOS power tube control low level signal to a PMOS conduction control corresponding pin; transmitting the multiple PMOS power tube control low level signal to a PMOS power tube multiple driving module through a signal line connected with the PMOS conduction control corresponding pin; S203, intelligently controlling the atomization amount of the multiple independent atomization liquid component through the control of the PMOS power tube multiple driving module, and obtaining an atomization liquid component intelligent control mode.

9. The driving method of the PMOS power transistor for the electronic cigarette according to claim 6, characterized in that, S300, comprising: S301, according to the atomized liquid component intelligent control mode, set the PMOS power tube multi-element drive circuit; The atomized liquid component intelligent control mode includes: the harmful component control mode containing nicotine and the harmless essence component control mode without nicotine; S302, through the PMOS power tube multi-element drive circuit, the multi-element PMOS power tube is turned on or turned off; The PMOS power tube multi-element drive circuit includes: nicotine containing harmful component drive element and nicotine free harmless essence component drive element; S303, according to the multi-element PMOS power tube on or off, obtain the multi-element PMOS power tube drive control state signal.

10. The driving method of the PMOS power transistor for the electronic cigarette according to claim 6, characterized in that, S400, including: S401, according to the multi-element PMOS power tube drive control state signal, multi-path heating electric heating wire on-off heating; Multi-path heating electric heating wire includes: first heating electric heating wire and second heating electric heating wire; S402, through the multi-path heating electric heating wire on-off heating, the multi-element independent atomized liquid tobacco oil is heated; The multi-element independent atomized liquid tobacco oil includes: nicotine containing harmful component oil component and nicotine free harmless essence oil component; S403, the oil component content sub-module, the nicotine containing harmful component oil component is heated by the first heating electric heating wire, and the atomization amount of the nicotine containing harmful component is controlled according to the heating control drive control to be lower than the health standard nicotine content; The nicotine free harmless essence oil component is heated by the second heating electric heating wire, and the nicotine free essence oral odor is freshened; After the convergence of the multiple micro smoke pipelines, the atomized smoke is input into the oral cavity, and the health standard multi-element taste atomized smoke is obtained.

Images