WO2016155003A1 - 一种电子烟控制电路以及电子烟雾化控制方法 - Google Patents

一种电子烟控制电路以及电子烟雾化控制方法 Download PDF

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Publication number
WO2016155003A1
WO2016155003A1 PCT/CN2015/075857 CN2015075857W WO2016155003A1 WO 2016155003 A1 WO2016155003 A1 WO 2016155003A1 CN 2015075857 W CN2015075857 W CN 2015075857W WO 2016155003 A1 WO2016155003 A1 WO 2016155003A1
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WO
WIPO (PCT)
Prior art keywords
microprocessor
control signal
unit
atomization
preset
Prior art date
Application number
PCT/CN2015/075857
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English (en)
French (fr)
Inventor
向智勇
Original Assignee
惠州市吉瑞科技有限公司
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Publication date
Application filed by 惠州市吉瑞科技有限公司 filed Critical 惠州市吉瑞科技有限公司
Priority to PCT/CN2015/075857 priority Critical patent/WO2016155003A1/zh
Priority to CN201580073364.5A priority patent/CN107427066A/zh
Publication of WO2016155003A1 publication Critical patent/WO2016155003A1/zh

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    • A—HUMAN NECESSITIES
    • A24—TOBACCO; CIGARS; CIGARETTES; SIMULATED SMOKING DEVICES; SMOKERS' REQUISITES
    • A24F—SMOKERS' REQUISITES; MATCH BOXES; SIMULATED SMOKING DEVICES
    • A24F40/00—Electrically operated smoking devices; Component parts thereof; Manufacture thereof; Maintenance or testing thereof; Charging means specially adapted therefor
    • A24F40/50—Control or monitoring
    • A—HUMAN NECESSITIES
    • A24—TOBACCO; CIGARS; CIGARETTES; SIMULATED SMOKING DEVICES; SMOKERS' REQUISITES
    • A24F—SMOKERS' REQUISITES; MATCH BOXES; SIMULATED SMOKING DEVICES
    • A24F40/00—Electrically operated smoking devices; Component parts thereof; Manufacture thereof; Maintenance or testing thereof; Charging means specially adapted therefor
    • A24F40/40—Constructional details, e.g. connection of cartridges and battery parts
    • A—HUMAN NECESSITIES
    • A24—TOBACCO; CIGARS; CIGARETTES; SIMULATED SMOKING DEVICES; SMOKERS' REQUISITES
    • A24F—SMOKERS' REQUISITES; MATCH BOXES; SIMULATED SMOKING DEVICES
    • A24F40/00—Electrically operated smoking devices; Component parts thereof; Manufacture thereof; Maintenance or testing thereof; Charging means specially adapted therefor
    • A24F40/10—Devices using liquid inhalable precursors
    • A—HUMAN NECESSITIES
    • A24—TOBACCO; CIGARS; CIGARETTES; SIMULATED SMOKING DEVICES; SMOKERS' REQUISITES
    • A24F—SMOKERS' REQUISITES; MATCH BOXES; SIMULATED SMOKING DEVICES
    • A24F40/00—Electrically operated smoking devices; Component parts thereof; Manufacture thereof; Maintenance or testing thereof; Charging means specially adapted therefor
    • A24F40/60—Devices with integrated user interfaces

Definitions

  • the invention relates to the field of electronic cigarettes, in particular to an electronic cigarette control circuit and an electronic aerosolization control method.
  • the electronic cigarette of the prior art adjusts the atomization power of the electronic cigarette through a sliding varistor, such as the electronic cigarette disclosed in CN201220422812, which has partial power consumption on the sliding varistor, and thus the electronic cigarette has a short service life.
  • a sliding varistor such as the electronic cigarette disclosed in CN201220422812
  • Another type of electronic cigarette provided by the prior art is to continuously control the atomization power of the electronic cigarette by pressing a button.
  • the high frequency pressing button can easily cause the button to fatigue, thereby causing poor contact between the button and the controller. Therefore, the electronic cigarette has a short service life, and the electronic cigarette is inconvenient to adjust, and thus is inconvenient to use.
  • the invention provides an electronic cigarette control circuit and an electronic aerosolization control method
  • An electronic cigarette control circuit comprising: a battery, a smoking trigger unit, a microprocessor, a switch unit, a signal detecting unit and an atomizing unit;
  • the smoking triggering unit is electrically connected to the battery and the microprocessor, respectively, and the smoking triggering unit is configured to receive a first triggering operation input by a user;
  • the switch unit is electrically connected to the microprocessor and the atomization unit, respectively, and the microprocessor is configured to generate, if the smoke triggering unit receives the first triggering operation, the microprocessor generates a first control signal, and the microprocessor outputs the first control signal to the switch unit, the switch unit is configured to turn on the atomization unit and the battery according to the first control signal Inter-circuitway to enable the atomizing unit to atomize the soot to form smoke;
  • the signal detecting unit is electrically connected to the battery and the microprocessor, respectively, the signal detecting unit is configured to receive a second triggering operation input by a user, and the microprocessor is further configured to meet the first preset condition Generating a second control signal, and outputting the second control signal to the switch unit, so that the switch unit turns on a circuit between the atomization unit and the battery according to the second control signal a path, the microprocessor is configured to change an atomization power of the atomization unit in an increasing or decreasing manner by the second control signal, the first preset condition is that the microprocessor determines the smoking trigger The unit receives the first triggering operation again.
  • the smoking triggering unit is an airflow sensor
  • the first triggering operation is an operation of a user suction
  • the airflow sensor is configured to generate a trigger signal when the first triggering operation is received, so that the airflow sensor will
  • the generated trigger signal is sent to the microprocessor, and the microprocessor is configured to generate the first control signal or the second control signal according to the trigger signal;
  • the smoking triggering unit is a first button switch, the first triggering operation is a pressing operation, and the first button switch is configured to turn on the microprocessor and the battery when the first triggering operation is received A circuit path between the microprocessors to cause the microprocessor to generate the first control signal or the second control signal.
  • the switch unit includes a first resistor and a first triode, one end of the first resistor is electrically connected to the microprocessor, and the other end of the first resistor is opposite to the first triode One end of the first transistor is electrically connected, and the other end of the first transistor is electrically connected to the atomizing unit.
  • the signal detecting unit is a second button switch and a second resistor, one end of the second resistor is electrically connected to the microprocessor, and the other end of the second resistor is electrically connected to the battery.
  • One end of the second button switch is electrically connected to the microprocessor, and the other end of the second button switch is electrically connected to the battery;
  • the microprocessor is further configured to determine a preset increment, so that when the signal detecting unit has received the second triggering operation input by the user and meets the first preset condition, the microprocessor is configured to determine a target control signal, the first target control signal being a control signal sent by the microprocessor to the switch unit last time, wherein a control signal sent by the microprocessor to the switch unit last time is The first control signal or the second control signal, the microprocessor is further configured to determine whether a duty ratio of the first target control signal is greater than or equal to a first preset value, when the first target control When the duty ratio of the signal is greater than or equal to the first preset value, the atomization unit atomizes the smoke oil by greater than or equal to the first preset power, when the duty ratio of the first target control signal is less than When the first preset value is described, the atomization unit atomizes the smoke oil by less than the first preset power, wherein the first preset power is the maximum atomization power of the atomization unit;
  • the signal detecting unit is a second button switch and a second resistor, one end of the second resistor is electrically connected to the microprocessor, and the other end of the second resistor is electrically connected to the battery.
  • One end of the second button switch is electrically connected to the microprocessor, and the other end of the second button switch is electrically connected to the battery;
  • the microprocessor is further configured to determine a preset decrement such that when the signal detecting unit has received the second triggering operation input by the user and meets the first preset condition, the microprocessor is configured to determine a second target control signal, wherein the second target control signal is a control signal sent by the microprocessor to the switch unit last time, wherein a control signal sent by the microprocessor to the switch unit is Determining a first control signal or the second control signal; the microprocessor is further configured to determine whether a duty ratio of the second target control signal is greater than a second preset value, when the second target control signal is When the duty ratio is greater than the second preset value, the atomization unit atomizes the smoke oil by greater than the second preset power, and when the duty ratio of the second target control signal is less than or equal to the second pre- When the value is set, the atomization unit atomizes the smoke oil with less than or equal to the second preset power, wherein the second preset power is the minimum atomization power of the atom
  • the signal detecting unit includes a first detecting subunit and a second detecting subunit arranged in parallel, the first detecting subunit includes a third button switch and a third resistor, and the second detecting subunit includes a Four button switch and fourth resistor;
  • One end of the third resistor is electrically connected to the microprocessor, the other end of the third resistor is electrically connected to the battery, and one end of the third button switch is electrically connected to the microprocessor, The other end of the third button switch is electrically connected to the battery, the third button switch is configured to receive a pressing operation input by a user, and the microprocessor is configured to determine that if the third button switch receives the pressing operation, Then the microprocessor determines that the signal detecting unit receives the second triggering operation input by the user, and the microprocessor is further configured to determine that if the third button switch does not receive the pressing operation, Determining that the signal detecting unit does not receive the second triggering operation of the user input;
  • the microprocessor is configured to determine that when the fourth switch receives the pressing operation, determine that the second preset condition is met, and the microprocessor is further configured to determine the second predetermined condition a third target control signal, the third target control signal being a second control signal sent by the microprocessor to the switch unit last time; if the microprocessor determines that the first preset condition is met, then The microprocessor outputs the third target control signal to the switch unit, so that the switch unit turns on a circuit path between the atomization unit and the battery according to the third target control signal.
  • the atomization unit includes a plurality of heating wires arranged in parallel, and the number of the switching units is equal to the number of the heating wires, so that each of the heating wires corresponds to each of the switching units;
  • One end of each of the heating wires is electrically connected to the microprocessor, and the other end of each of the heating wires is electrically connected to the microprocessor through the switch unit;
  • the microprocessor is further configured to determine a first preset correspondence, where the first preset correspondence includes a correspondence between each control signal generated by the microprocessor and each switch unit, and the microprocessor
  • the generated control signal is the first control signal or the second control signal, so that the microprocessor determines a target switch unit corresponding to the generated control signal according to the first preset correspondence relationship,
  • the microprocessor is caused to conduct a circuit path between the heating wire corresponding to the target switching unit and the battery.
  • the electronic cigarette control circuit further includes a prompting module, the prompting module is electrically connected to the microprocessor, and the prompting module is configured to generate a prompting state according to the prompting signal sent by the microprocessor, and Different prompt signals correspond to different prompt states;
  • the microprocessor is further configured to generate a second preset correspondence, where the second preset correspondence includes a correspondence between each control signal generated by the microprocessor and each prompt signal, and the microprocessor Generating a control signal as the first control signal or the second control signal, so that the microprocessor determines a target prompt signal corresponding to the generated control signal according to the generated control signal, such that The prompting module generates a prompt state corresponding to the target prompt signal to prompt the user.
  • the prompting module is a light module and/or a voice module.
  • An electronic aerosolization control method comprising:
  • the microprocessor Determining, by the microprocessor, whether the smoking trigger unit receives a first triggering operation of the user input, the smoking trigger unit being electrically connected to the battery and the microprocessor, respectively;
  • the microprocessor determines whether the signal detecting unit receives a second triggering operation input by the user, and the signal detecting unit is electrically connected to the battery and the microprocessor, respectively;
  • the microprocessor If not, the microprocessor generates a first control signal
  • the microprocessor outputs the first control signal to a switch unit, the switch unit is electrically connected to the microprocessor and the atomization unit, respectively, such that the switch unit is turned on according to the first control signal a circuit path between the atomization unit and the battery to enable the atomization unit to atomize the smoke oil to form smoke;
  • the microprocessor If yes, the microprocessor generates a second control signal when the first preset condition is met, where the first preset condition is that the microprocessor determines that the smoking trigger unit receives the first triggering operation again. ;
  • the microprocessor outputs the second control signal to the switch unit, so that the switch unit turns on a circuit path between the atomization unit and the battery according to the second control signal, to The microprocessor is caused to change the atomization power of the atomization unit in an increasing or decreasing manner by the second control signal.
  • the method before the generating the second control signal by the microprocessor under the first preset condition, the method includes:
  • the microprocessor determines a preset increment when the microprocessor determines to incrementally change the atomization power of the atomization unit;
  • the generating, by the microprocessor, the second control signal after satisfying the first preset condition includes:
  • the microprocessor determines a first target control signal, where the first target control signal is a control signal that the microprocessor last sent to the switch unit, where The control signal sent by the microprocessor to the switch unit last time is the first control signal or the second control signal;
  • the microprocessor Determining, by the microprocessor, whether a duty ratio of the first target control signal is greater than or equal to a first preset value, when a duty ratio of the first target control signal is greater than or equal to the first preset value And causing the atomization unit to atomize the smoke oil at a greater than or equal to the first preset power, and when the duty ratio of the first target control signal is less than the first preset value, the atomization is caused
  • the unit atomizes the smoke oil by less than the first preset power, wherein the first preset power is a maximum atomization power of the atomization unit;
  • the microprocessor increases the preset increment on the duty ratio of the first target control signal to generate the second control signal
  • the microprocessor If yes, the microprocessor generates a second control signal for causing the atomization unit to atomize at a second preset power, the second preset power being a minimum atomization power of the atomization unit .
  • the method before the generating the second control signal by the microprocessor under the first preset condition, the method includes:
  • the microprocessor determines a preset decrement when the microprocessor determines to change the atomization power of the atomization unit in a decreasing manner
  • the generating, by the microprocessor, the second control signal after satisfying the first preset condition includes:
  • the microprocessor determines a second target control signal, where the second target control signal is a control signal that the microprocessor last sent to the switch unit, where The control signal sent by the microprocessor to the switch unit last time is the first control signal or the second control signal;
  • the atomizing unit atomizes the smoke oil at a greater than the second preset power, and when the duty ratio of the second target control signal is less than or equal to the second preset value, the atomization unit is caused to be less than or Is equal to the second preset power atomized smoke oil, wherein the second preset power is a minimum atomization power of the atomization unit;
  • the microprocessor reduces the preset decrement on the duty ratio of the second target control signal to generate the second control signal
  • the microprocessor If not, the microprocessor generates a second control signal for causing the atomization unit to atomize at a first preset power, the first preset power being a maximum atomization of the atomization unit power.
  • the smoking triggering unit is an airflow sensor, and the smoking triggering unit is electrically connected to the battery and the microprocessor, respectively, and the microprocessor determines whether the smoking triggering unit receives the first triggering operation of the user input.
  • the microprocessor determines that the smoking trigger unit receives the first triggering operation input by a user
  • the microprocessor determines that the smoking triggering unit does not receive the first triggering operation of the user input
  • the smoking trigger unit is a first button switch, and the smoking trigger unit is respectively connected to the battery And electrically connecting to the microprocessor, the first triggering operation by the microprocessor to determine whether the smoking trigger unit receives the user input comprises:
  • the microprocessor Determining, by the microprocessor, whether a circuit between the microprocessor and the battery is turned on, the first triggering operation is a pressing operation, and the first button switch is configured to receive the first triggering operation Turning on a circuit path between the microprocessor and the battery;
  • the microprocessor determines that the smoking trigger unit receives the first triggering operation of the user input
  • the microprocessor determines that the smoking trigger unit has not received a first triggering operation of the user input.
  • the method further includes:
  • the microprocessor determines a third target control signal when the second preset condition is met, the second preset condition is that the microprocessor determines that the signal detecting unit receives the second triggering operation again,
  • the third target control signal is a second control signal that the microprocessor last sent to the switch unit;
  • the microprocessor determines that the first preset condition is met, the microprocessor outputs the third target control signal to the switch unit, so that the switch unit controls according to the third target A signal conducts a circuit path between the atomizing unit and the battery.
  • the signal detecting unit includes a first detecting subunit and a second detecting subunit arranged in parallel;
  • the second triggering operation of the microprocessor determining whether the signal detecting unit receives the user input comprises:
  • the microprocessor determines that the first detecting subunit receives a pressing operation input by a user, the microprocessor determines that the signal detecting unit receives a second triggering operation input by a user;
  • the microprocessor determines that the first detecting subunit does not receive a pressing operation input by a user, the microprocessor determines that the signal detecting unit does not receive a second triggering operation of the user input;
  • the method further includes:
  • the microprocessor determines a third target control signal under the second preset condition, the second pre- The condition is that the microprocessor determines that the second detecting subunit receives a pressing operation input by a user, and the third target control signal is a second control signal that the microprocessor last sent to the switching unit. ;
  • the microprocessor determines that the first preset condition is met, the microprocessor outputs the third target control signal to the switch unit, so that the switch unit controls according to the third target A signal conducts a circuit path between the atomizing unit and the battery.
  • the atomization unit comprises a plurality of heating wires arranged in parallel, and the number of the switching units is equal to the number of the heating wires, so that each of the heating wires corresponds to each of the switching units, and each of the One end of the heating wire is electrically connected to the microprocessor, and the other end of each heating wire is electrically connected to the microprocessor through the switch unit;
  • the method further includes:
  • the microprocessor determines a first preset correspondence, where the first preset correspondence includes a correspondence between each control signal generated by the microprocessor and each switch unit;
  • the outputting the first control signal by the microprocessor to the switch unit includes:
  • the microprocessor outputs the first control signal to the first target switch unit, so that the first target switch unit turns on a corresponding to the first target switch unit according to the first control signal.
  • the outputting the second control signal by the microprocessor to the switch unit includes:
  • the method further includes:
  • the microprocessor generates a second preset correspondence, where the second preset correspondence includes a correspondence between each control signal generated by the microprocessor and each prompt signal, and the control generated by the microprocessor
  • the signal is the first control signal or the second control signal
  • the microprocessor determines a target prompt signal corresponding to the generated control signal according to the generated control signal
  • the microprocessor sends the target prompt signal to a prompting module, the prompting module and the The prompting module is configured to generate a prompt state according to the prompt signal sent by the microprocessor, and the different prompt signals correspond to different prompt states, so that the prompting module is prompted according to the target
  • the signal corresponds to generate a prompt state to prompt the user.
  • the invention provides an electronic cigarette control circuit and an electronic cigarette control method, the electronic cigarette control circuit comprising a battery, a smoking trigger unit, a microprocessor, a switch unit, a signal detecting unit and an atomizing unit; If it is determined that the smoking trigger unit receives the first triggering operation, the microprocessor generates a first control signal, and the microprocessor outputs the first control signal to the switching unit, the switching unit Used to turn on a circuit path between the atomization unit and the battery according to the first control signal to enable the atomization unit to atomize smoke oil to form smoke; the microprocessor is also used to Generating a second control signal under the first preset condition, and outputting the second control signal to the switch unit, so that the switch unit turns on the atomization unit according to the second control signal a circuit path between the batteries, the microprocessor being configured to change an atomization power of the atomization unit in an increasing or decreasing manner by the second control signal.
  • the microprocessor may generate a second according to the second triggering operation input by the user. Controlling the signal, and each time the first predetermined condition is met, the microprocessor can control the atomizing power of the atomizing unit to be incremented or decremented by an equal amplitude each time by the second control signal, without the user
  • the signal detecting unit is operated a plurality of times, thereby effectively avoiding poor contact between the signal detecting unit and the microprocessor due to the signal detecting unit being triggered multiple times, thereby effectively ensuring the service life of the electronic cigarette control circuit.
  • FIG. 1 is a schematic diagram of a circuit connection structure of an electronic cigarette control circuit provided by the present invention
  • FIG. 2 is a schematic diagram of another circuit connection structure of an electronic cigarette control circuit provided by the present invention.
  • FIG. 3 is a schematic diagram of another circuit connection structure of the electronic cigarette control circuit provided by the present invention.
  • FIG. 4 is a schematic diagram of another circuit connection structure of the electronic cigarette control circuit provided by the present invention.
  • FIG. 5 is a schematic diagram of another circuit connection structure of the electronic cigarette control circuit provided by the present invention.
  • FIG. 6 is a schematic diagram of another circuit connection structure of an electronic cigarette control circuit provided by the present invention.
  • FIG. 7 is a schematic diagram of another circuit connection structure of the electronic cigarette control circuit provided by the present invention.
  • FIG. 8 is a flow chart of a preferred embodiment of an electronic aerosolization control method provided by the present invention Figure
  • FIG. 9 is a flow chart showing the steps of another preferred embodiment of the electronic aerosolization control method provided by the present invention.
  • FIG. 10 is a flow chart showing steps of another preferred embodiment of the electronic aerosolization control method provided by the present invention.
  • FIG. 11 is a flow chart showing the steps of another preferred embodiment of the electronic aerosolization control method provided by the present invention.
  • FIG. 12 is a flow chart showing the steps of another preferred embodiment of the electronic aerosolization control method provided by the present invention.
  • FIG. 13 is a flow chart showing the steps of another preferred embodiment of the electronic aerosolization control method provided by the present invention.
  • Embodiment 1 provides an electronic cigarette control circuit, so that the electronic cigarette control circuit provided by the embodiment can change the atomization power of the electronic cigarette without the high frequency pressing button, thereby effectively improving the electronic The service life of the smoke;
  • the electronic cigarette control circuit includes: a battery 102, a smoking trigger unit 103, a microprocessor 101, a switch unit 105, a signal detecting unit 104, and an atomizing unit 106;
  • the smoking triggering unit 103 is electrically connected to the battery 102 and the microprocessor 101, respectively, and the smoking triggering unit 103 is configured to receive a first triggering operation input by a user;
  • the specific structure of the smoking trigger unit 103 is not limited in this embodiment.
  • the first triggering operation is input through the smoking trigger unit 103 to suck the smoke, for example,
  • the first triggering operation may be an action of sucking the smoking triggering unit 103, and for example, the first triggering operation may be an action of pressing the smoking triggering unit 103;
  • the switch unit 105 is electrically connected to the microprocessor 101 and the atomizing unit 106, respectively, and the microprocessor 101 is configured to: if it is determined that the smoking triggering unit 103 receives the first triggering operation, The microprocessor 101 generates a first control signal, and the microprocessor 101 outputs the first control signal to the switch unit 105, and the switch unit 105 is configured to be turned on according to the first control signal.
  • the specific structure of the atomization unit 106 is not limited in this embodiment, as long as the atomization unit 106 can atomize when the circuit between the atomization unit 106 and the battery 102 is turned on.
  • Smoke oil can be used to form smoke.
  • the specific structure of the switch unit 105 is not limited in this embodiment, as long as the switch unit 105 can turn on the circuit path between the atomization unit 106 and the battery 102 according to the first control signal. .
  • the signal detection unit 104 is electrically connected to the battery 102 and the microprocessor 101, respectively. ;
  • the signal detecting unit 104 is configured to receive a second triggering operation input by a user
  • the second triggering operation is not limited in this embodiment, for example, the second triggering operation is a pressing operation;
  • the microprocessor 101 is further configured to generate a second control signal when the first preset condition is met;
  • the first preset condition is that the microprocessor 101 determines that the smoking trigger unit 103 receives the first triggering operation again;
  • the second triggering operation is input by the signal detecting unit 104, and the user wishes to suction the atomization unit 106 again.
  • the user inputs the first triggering operation through the smoking triggering unit 103 again, thereby allowing the user to smoke the smoke whose amount of smoke is increased or decreased relative to the last suction. ;
  • the microprocessor 101 outputs a second control signal generated under the first preset condition to the switch unit 105, so that the switch unit 105 is in accordance with the second control. Signaling a circuit path between the atomization unit 106 and the battery 102, and the microprocessor 101 is configured to change the fog of the atomization unit 106 in an increasing or decreasing manner by the second control signal.
  • the microprocessor 101 passes the generated second time each time the user inputs the first triggering operation through the smoking triggering unit 103.
  • the control signal controls the atomization power of the atomization unit 106 to be incremented by equal or unequal amplitudes each time;
  • the microprocessor 101 controls the second control signal generated by the microprocessor 101.
  • the atomizing power of the atomizing unit 106 is incremented by equal amplitude each time, so that the user can suck up the amount of smoke and increase with respect to the last suction after each input of the first triggering operation. For example, the amount of smoke that has a constant increase in the amount of smoke;
  • the microprocessor 101 when the user inputs the second triggering operation by the signal detecting unit 104, the microprocessor 101 generates the first time each time the user inputs the first triggering operation by the smoking triggering unit 103.
  • the second control signal controls the atomization power of the atomization unit 106 to be decremented by equal or unequal amplitudes each time;
  • the microprocessor 101 controls the atomization power of the atomization unit 106 to be decremented by an equal amplitude each time through the generated second control signal, so that the user inputs the input every time.
  • the amount of smoke that has been reduced in the amount of smoke and is constant with respect to the amount of smoke that was last sucked can be sucked as an example.
  • the microprocessor 101 controls whether the atomization power of the atomization unit 106 is increased in an increased manner or decreased in a decreasing manner by using the generated second control signal;
  • the microprocessor 101 when the user wants to smoke the changed amount of smoke, only the second triggering operation needs to be input once, then the microprocessor 101
  • the second control signal may be generated according to the second triggering operation input by the user, and the microprocessor 101 can control the atomization by the second control signal every time the first preset condition is satisfied.
  • the atomizing power of the unit 106 is incremented or decremented by equal amplitude each time, without the user having to operate the signal detecting unit 104 multiple times, thereby effectively preventing the signal detecting unit 104 from being triggered by the signal detecting unit 104 being triggered multiple times.
  • the poor contact between the microprocessors 101 effectively protects the service life of the electronic cigarette control circuit.
  • Embodiment 2 This embodiment describes in detail the specific circuit connection structure of the electronic cigarette control circuit:
  • the smoking trigger unit is an air flow sensor 201;
  • the first triggering operation is an operation of the user to suction the airflow sensor 201
  • the airflow sensor 201 is configured to generate a trigger signal when the first triggering operation is received, so that the airflow sensor is
  • the trigger signal is sent to the microprocessor 101, and the microprocessor 101 is configured to generate the first control signal or the second control signal according to the trigger signal;
  • the smoking trigger unit is a first button switch
  • the first triggering operation is a pressing operation
  • the first button switch is configured to turn on the micro when the first triggering operation is received.
  • the microprocessor 101 uses Generating the first control signal according to the trigger signal;
  • the microprocessor 101 is configured to be used according to the trigger. Generating the second control signal;
  • the model of the microprocessor 101 is SN8P2711B. It should be clarified that the specific model of the microprocessor 101 is not limited in this embodiment, as long as the microprocessor is used. 101 can implement the functions shown in this embodiment.
  • the switch unit 105 includes a first resistor R1 and a first transistor Q1;
  • One end of the first resistor R1 is electrically connected to the microprocessor 101, and the other end of the first resistor R1 is electrically connected to one end of the first transistor Q1, and the first transistor Q1 is The other end is electrically connected to the atomizing unit 106.
  • the first transistor Q1 when the first control signal or the second control signal generated by the microprocessor 101 flows through the first transistor Q1, the first transistor Q1 is according to the first The control signal or the second control signal is closed to turn on the circuit between the atomizing unit 106 and the battery 102, that is, whether the first control signal or the second control signal The first transistor Q1 is caused to conduct a circuit path between the atomization unit 106 and the battery 102.
  • the microprocessor 101 specifically changes the atomization power of the atomization unit 106 by the signal detecting unit 104 in an incremental manner
  • the signal detecting unit 104 is a second button switch K2 and a second resistor R2;
  • one end of the second resistor R2 is electrically connected to the microprocessor 101, the other end of the second resistor R2 is electrically connected to the battery 102, and one end of the second button switch K2 is The microprocessor 101 is electrically connected, and the other end of the second button switch K2 is electrically connected to the battery 102;
  • the microprocessor 101 is further configured to determine a preset increment
  • the specific value of the preset increment is not limited in this embodiment, and may be determined in advance by the microprocessor 101 according to requirements, or correspondingly according to an instruction input by the user, which is not limited in this embodiment.
  • the signal detecting unit 104 When the signal detecting unit 104 has received the second triggering operation input by the user and satisfies the first preset condition, that is, after the user has input the second triggering operation, and then wishes to smoke the smoke again, the input is performed.
  • the first trigger operation is described;
  • the microprocessor 101 is configured to determine a first target control signal, the first target control signal being a control signal that the microprocessor 101 last sent to the switch unit 105, wherein the microprocessor 101 The control signal sent to the switch unit 105 last time is the first control signal or the second control signal;
  • the microprocessor 101 determines that the signal detecting unit 104 has not received the second triggering operation, the first target control signal is the first control signal;
  • the microprocessor 101 determines that the signal detecting unit 104 has received the second triggering operation, and the microprocessor 101 determines that the first preset condition is last met (ie, the user last passed the When the smoking trigger unit inputs the first triggering operation, the second control signal sent by the microprocessor 101 to the switch unit 105 is the first target control signal;
  • the atomization unit 106 in order to avoid the safety hazard caused by the atomization power of the atomization unit 106 continuing to increase the maximum atomization power, the atomization unit 106 is prevented from being too large due to the atomization power.
  • the microprocessor 101 after the microprocessor 101 has determined the first target control signal, the atomization power of the atomization unit 106 is not changed first, but the microprocessor 101 first determines Whether the duty ratio of the first target control signal is greater than or equal to the first preset value; wherein, it can be understood that the maximum atomization power is an atomization power value set to avoid safety hazards and scorching.
  • the size of the first preset value is not limited, and the microprocessor 101 may be configured according to specific working parameters of the atomization unit 106.
  • the atomizing unit 106 atomizes the smoke oil by greater than or equal to the first preset power, the first The preset power is the maximum atomization power of the atomization unit 106;
  • the atomizing unit 106 atomizes the smoke oil by less than the first preset power
  • the microprocessor 101 determines that the duty ratio of the first target control signal is less than the first preset value, the microprocessor 101 increases the duty ratio of the first target control signal.
  • the preset increment to generate the second control signal
  • the microprocessor 101 determines that the duty ratio of the first target control signal is less than the first preset value, it indicates that the atomization power of the atomization unit 106 is still in a safe range. Inward (ie, the atomization power of the atomization unit 106 when atomizing the smoke oil is less than the maximum atomization power of the atomization unit 106), the microprocessor 101 may be at the first target control signal. Increasing the preset increment to increase the second control signal to generate the second control signal;
  • the second control signal of the preset increment is determined to be the first target control signal, and it is required to determine again whether the duty ratio of the first target control signal is greater than or equal to the first preset value;
  • the microprocessor 101 If the duty ratio of the first target control signal is greater than or equal to the first preset value, the microprocessor 101 generates an atomization unit 106 for atomizing at a second preset power.
  • the second control signal is the minimum atomization power of the atomization unit 106.
  • the microprocessor 101 determines that the duty ratio of the first target control signal is greater than or equal to the first preset value, it indicates that the atomization power of the atomization unit 106 is not within a safe range. (ie, the atomization power of the atomization unit 106 when atomizing the smoke oil is greater than or equal to the maximum atomization power of the atomization unit 106), the microprocessor 101 cannot continue to change in an incremental manner.
  • the atomization power of the atomization unit 106 is described, but in a cyclic manner, that is, the microprocessor 101 causes the atomization unit 106 to atomize the smoke oil with minimum atomization power to form smoke by the second control signal. That is, the atomization unit 106 is returned to the initial atomization power by the second control signal.
  • the size of the minimum atomizing power of the atomizing unit 106 is not limited in this embodiment.
  • the microprocessor 101 determines that the first The atomization power of the atomization unit 106 is the minimum atomization power of the atomization unit 106 when a predetermined condition is reached.
  • the microprocessor 101 receives the second triggering operation input by the user through the signal detecting unit 104, and then receives the smoking trigger unit 103 each time thereafter.
  • the first triggering operation is input by the user, it is required to determine whether the duty ratio of the first target control signal sent by the microprocessor 101 to the switching unit 105 last time is greater than or equal to the first preset value, Determining whether to continue increasing the duty cycle of the first target control signal in an incremental manner such that the atomization power of the atomization unit 106 continues to increase, or is recycled to the minimum atomization power of the atomization unit 106,
  • the above circuit structure can effectively prevent the safety of the atomization unit 106 from being exceeded, and avoid the occurrence of the situation of burning the atomization unit 106 beyond the safe atomization power of the atomization unit 106, thereby avoiding the situation.
  • the occurrence of a situation in which the burning of the atomizing unit 106 reduces the life of the electronic cigarette.
  • the above illustrates how the electronic cigarette control circuit shown in FIG. 2 realizes changing the atomization power of the atomization unit 106 in an incremental manner.
  • the following continues with the electronic cigarette control circuit shown in FIG. 2 to explain how to achieve decrementing. Changing the atomization power of the atomization unit 106;
  • the microprocessor 101 is configured to determine a preset decrement
  • the specific value of the preset decrement is not limited in this embodiment, and may be determined in advance by the microprocessor 101 as needed, or according to an instruction input by the user, which is not limited in this embodiment.
  • the signal detecting unit 104 When the signal detecting unit 104 has received the second triggering operation input by the user and satisfies the first preset condition, that is, after the user has input the second triggering operation, and then wishes to smoke the smoke again, the input is performed.
  • the first trigger operation is described;
  • the microprocessor 101 is configured to determine a second target control signal, the second target control signal being a control signal that the microprocessor 101 last sent to the switch unit 105, wherein the microprocessor 101 The control signal sent to the switch unit 105 last time is the first control signal or the second control signal;
  • the second target control signal is the first control signal
  • microprocessor 101 determines that the signal detecting unit 104 has received the second triggering operation, and the microprocessor 101 determines that the first preset condition is last met (ie, the user last passed the The second control signal sent by the microprocessor 101 to the switch unit 105 is the second target control signal when the smoking trigger unit inputs the first triggering operation;
  • the fog is caused.
  • the concentration of the smoke generated by the unit 106 is insufficient to meet the user demand situation.
  • the microprocessor 101 After the microprocessor 101 has determined the second target control signal, the atomization power of the atomization unit 106 is not changed first. Is that the microprocessor 101 first determines whether the duty ratio of the second target control signal is greater than a second preset value;
  • the size of the second preset value is not limited, and the microprocessor 101 may be configured according to specific operating parameters of the atomization unit 106.
  • the atomizing unit 106 atomizes the smoke oil by a greater than the second preset power when the duty ratio of the second target control signal is greater than the second preset value, and the second preset power is The minimum atomization power of the atomization unit 106;
  • the atomizing unit 106 atomizes the smoke oil by less than or equal to the second preset power, the second The preset power is the minimum atomization power of the atomization unit 106;
  • the microprocessor 101 reduces the preset decrement on the duty ratio of the second target control signal to generate a Said second control signal;
  • the microprocessor 101 determines that the duty ratio of the second target control signal is less than the second preset value, it indicates that the atomization power of the atomization unit 106 can atomize a certain concentration. Smoke, there is no case where the atomized smoke concentration is too low (that is, the atomization power of the atomization unit 106 when atomizing the smoke oil is greater than the minimum atomization power of the atomization unit 106), The microprocessor 101 may reduce the preset decrement on a duty ratio of the second target control signal to generate the second control signal;
  • the second control signal of the preset decrement is determined as the second target control signal, and it is required to determine again whether the duty ratio of the second target control signal is greater than the second preset value;
  • the microprocessor 101 If the duty ratio of the second target control signal is less than or equal to the second preset value, the microprocessor 101 generates an atomization unit 106 for atomizing at a first preset power.
  • the second control signal is the maximum atomizing power of the atomizing unit 106.
  • the microprocessor 101 determines that the duty ratio of the second target control signal is less than the second preset value, it indicates that the atomization power of the atomization unit 106 is too small, and is atomized. If the smoke concentration is unable to meet the needs of the user, the microprocessor 101 cannot continue to change the atomization power of the atomization unit 106 in a decreasing manner, but in a cyclic manner, that is, the microprocessor 101 passes through
  • the second control signal causes the atomization unit 106 to atomize the smoke oil at a maximum atomization power to form a smoke, that is, the atomization unit 106 is returned to the initial atomization power by the second control signal.
  • the microprocessor 101 receives the first trigger operation input by the user each time through the smoking trigger unit 103 after receiving the second triggering operation of the user input by the signal detecting unit 104. At a time, it is necessary to determine whether the duty ratio of the second target control signal sent by the microprocessor 101 to the switch unit 105 last time is greater than the second preset value, to determine whether to continue to decrease in a decreasing manner.
  • the duty ratio of the second target control signal is such that the atomization power of the atomization unit 106 is continuously decremented or is recycled to the maximum atomization power of the atomization unit 106. It can be seen that the above circuit structure can be effective. The inconvenience caused to the user to continuously reduce the atomization power of the atomization unit 106 while the concentration of the smoke atomized by the atomization unit 106 cannot meet the user's needs is prevented.
  • the atomization power of the atomization unit 106 is adjusted in an increasing or decreasing manner when the atomization power of the atomization unit 106 satisfies certain conditions (refer to the above).
  • the preferred example is not limited.
  • the atomization power of the atomization unit 106 can be randomly adjusted.
  • the electronic cigarette control circuit provided by the embodiment When the electronic cigarette control circuit provided by the embodiment is used, if the concentration of the mist atomized by the atomization unit 106 is suitable for the user's taste, the user may wish to smoke the smoke later. Continuing the description of how the electronic cigarette control circuit provided in the present embodiment realizes the atomization power of the atomization unit 106 is described in detail below.
  • This embodiment provides two ways to fix the atomization power of the atomization unit 106:
  • the microprocessor 101 determines a third target control signal when the second preset condition is met, wherein the second preset condition is that the microprocessor 101 determines that the signal detecting unit 104 receives again To the second triggering operation;
  • the third target control signal is a second control signal that the microprocessor 101 last sent to the switch unit 105;
  • the second triggering operation is again input by the signal detecting unit 104, and the microprocessor 101 detects that the signal detecting unit 104 receives the same again. Determining, by the second triggering operation, that the second control signal sent by the microprocessor 101 to the switch unit 105 is the third target control signal;
  • the microprocessor 101 determines that the first preset condition is met (ie, the user needs to pump smoke into the first triggering operation)
  • the microprocessor 101 will The three target control signal is output to the switch unit 105 such that the switch unit 105 turns on the circuit path between the atomization unit 106 and the battery 102 according to the third target control signal.
  • FIG. 3 is a schematic diagram of another circuit connection structure of an electronic cigarette control circuit provided by the present invention.
  • the signal detecting unit 104 includes a first detecting subunit 301 and a second detecting subunit 302 arranged in parallel;
  • the first detecting subunit 301 includes a third button switch K3 and a third resistor R3, and the second detecting subunit 302 includes a fourth button switch K4 and a fourth resistor R4;
  • one end of the third resistor R3 is electrically connected to the microprocessor 101, and the other end of the third resistor R3 is electrically connected to the battery 102, and one end of the third button switch K3 Electrically connected to the microprocessor 101, the other end of the third button switch K3 is electrically connected to the battery 102;
  • the third button switch K3 is configured to receive a pressing operation input by a user, and the microprocessor 101 is configured to determine that the microprocessor 101 determines if the third button switch K3 receives the pressing operation.
  • the signal detecting unit 104 receives the second triggering operation input by a user;
  • the microprocessor 101 is further configured to determine that if the third button switch K3 does not receive the pressing operation, the microprocessor 101 determines that the signal detecting unit 104 does not receive the second input by the user. Trigger operation
  • One end of the fourth resistor R4 is electrically connected to the battery 102, the other end of the fourth resistor R4 is electrically connected to the microprocessor 101, and one end of the fourth button switch K4 is electrically connected to the battery 102. Connected, the other end of the fourth button switch K4 is electrically connected to the microprocessor 101,
  • the fourth button switch K4 is configured to receive a pressing operation input by a user, and the microprocessor 101 is configured to determine that when the fourth switch K4 receives the pressing operation, determine that the second preset is satisfied.
  • the microprocessor 101 is further configured to determine a third target control signal when the second preset condition is met, where the third target control signal is the second that the microprocessor 101 last sent to the switch unit 105. control signal;
  • the microprocessor 101 determines that the first preset condition is met (ie, the user needs to smoke the smoke again), the microprocessor 101 outputs the third target control signal to the switch unit 105,
  • the switching unit 105 is configured to conduct a circuit path between the atomization unit 106 and the battery 102 according to the third target control signal.
  • the microprocessor 101 determines that the user inputs the second time.
  • the second control signal sent to the switching power supply 105 last time is determined as the third target control signal, and when the microprocessor 101 determines that the user inputs the first one that wishes to smoke the smoke again.
  • the determined third target control signal is sent to the switch unit 105, so that the atomization unit 106 performs the action of atomizing the smoke oil according to the third target control signal, and the fog The power does not change.
  • Embodiment 3 this embodiment, as shown in FIG. 4, illustrates another manner of changing the smoke concentration of the electronic cigarette control circuit
  • Embodiment 2 is to change the duty ratio of the second control signal to enable the microprocessor 101 to adjust the atomization power of the atomization unit 106 in an increasing or decreasing manner, that is, as shown in FIG. 2 As shown in FIG. 3, the number of the heating wires included in the atomizing unit 106 is one, and the embodiment illustrates the adjustment of the atomization power by turning on the circuit paths between the different numbers of heating wires and the battery 102;
  • the atomization unit 106 includes a plurality of heating wires 401 disposed in parallel, and the number of the switching units 105 is equal to the number of the heating wires 401, so that each of the heating wires 401 and each The switch unit 105 corresponds to;
  • FIG. 5 The specific circuit connection structure is shown in FIG. 5 , wherein FIG. 5 is exemplified by taking the number of the heating wires 401 as two examples, and is not limited;
  • each of the heating wires 401 is electrically connected to the microprocessor 101, and the other end of each of the heating wires 401 is electrically connected to the microprocessor through the switch unit 105;
  • each of the switch units 105 The specific structure and function of each of the switch units 105 are shown in the above embodiments, and are not described in this embodiment.
  • the microprocessor 101 is further configured to determine a first preset correspondence, where the first preset correspondence includes a correspondence between each control signal generated by the microprocessor 101 and each switch unit 105, where the micro The control signal generated by the processor 101 is the first control signal or the second control signal, so that the microprocessor 101 determines to correspond to the generated control signal according to the first preset correspondence relationship.
  • the target switching unit causes the microprocessor 101 to conduct a circuit path between the heating wire 401 corresponding to the target switching unit and the battery 102.
  • the microprocessor 101 determines the target switching unit according to the first preset correspondence, and the number of the target switching units is taken as an example.
  • the processor 101 turns on a circuit path between the heating wire 401 corresponding to the target switch unit and the battery 102 to operate one of the heating wires 401;
  • the microprocessor 101 is further configured to generate a second control signal after satisfying the first preset condition, so as to pass the determining and the second control signal Corresponding target switch unit;
  • the number of the heating wires 401 is not limited to two, and as long as the microprocessor 101 determines that the atomization power is larger, the more heating wires 401 are controlled to operate to atomize the smoke oil.
  • the electronic cigarette control circuit further includes a prompting module 701, and the prompting module 701 is electrically connected to the microprocessor 101;
  • the prompting module 701 is configured to generate a prompt state according to the prompt signal sent by the microprocessor 101, and different prompt signals correspond to different prompt states;
  • the microprocessor 101 is further configured to generate a second preset correspondence, where the second preset correspondence includes a correspondence between each control signal generated by the microprocessor 101 and each prompt signal, and the micro processing
  • the control signal generated by the controller 101 is the first control signal or the second control signal, so that the microprocessor 101 determines a target corresponding to the generated control signal according to the generated control signal.
  • the prompting signal causes the prompting module 701 to generate a prompting state corresponding to the target prompting signal to prompt the user.
  • the specific structure of the prompting module 701 is not limited in this embodiment, as long as the user can be prompted differently according to the prompting signal, so that the user can determine the current atomizing unit 106 according to different prompt states.
  • the level of atomization power can be
  • FIG. 7 is an illustration of the embodiment, and is not limited thereto;
  • the prompt module 701 can be a voice module 601 and a light module 602 , and the voice module 601 and the light module 602 are both electrically connected to the microprocessor 101 ;
  • the microprocessor 101 generates different prompt signals according to different atomization powers of the atomization unit 106, so that the voice module 601 emits different sounds and the light module 602 emits different signals.
  • the lighting effect is not limited in this embodiment.
  • Embodiment 4 the embodiment provides an electronic aerosolization control method, so that the electronic aerosolization control method provided by the embodiment can change the atomization power of the electronic cigarette without the high frequency pressing button, and effectively improve The service life of the electronic cigarette;
  • the electronic cigarette control method shown in this embodiment is based on the electronic cigarette control circuit shown in the first embodiment, and the specific circuit connection structure of the electronic cigarette control circuit is as described in the above embodiment. It is shown in the present embodiment that it will not be described.
  • the microprocessor determines whether the smoking trigger unit receives the first trigger operation of the user input, and if so, proceeds to step 802;
  • the microprocessor 101 determines that the smoking triggering unit 103 receives the first triggering operation, it indicates that the user wishes to smoke the smoke, and if the microprocessor 101 determines that the first triggering operation is not received, Then, it is continued to detect whether the smoking trigger unit 103 receives the first triggering operation;
  • the smoking trigger unit 103 is electrically connected to the battery 102 and the microprocessor 101, respectively;
  • the specific structure of the smoking trigger unit 103 is not limited in this embodiment.
  • the first triggering operation is input through the smoking trigger unit 103 to suck the smoke, for example,
  • the first triggering operation may be an action of sucking the smoking triggering unit 103, and for example, the first triggering operation may be an action of pressing the smoking triggering unit 103;
  • the microprocessor determines whether the signal detecting unit receives the second triggering operation of the user input. If yes, proceed to step 803, and if yes, proceed to step 805;
  • the signal detecting unit 104 is electrically connected to the battery 102 and the microprocessor 101, respectively;
  • the signal detecting unit 104 is configured to receive a second triggering operation input by a user
  • the second triggering operation is not limited in this embodiment, for example, the second triggering operation is a pressing operation;
  • the microprocessor generates a first control signal.
  • the microprocessor outputs the first control signal to a switch unit, where the switch unit is electrically connected to the microprocessor and the atomization unit respectively;
  • the switch unit 105 turns on a circuit path between the atomization unit 106 and the battery 102 according to the first control signal, so that the atomization unit 106 can atomize the smoke oil to form smoke;
  • the microprocessor generates a second control signal when the first preset condition is met.
  • the first preset condition is that the microprocessor 101 determines that the smoking triggering unit 103 receives the first triggering operation again, that is, when the user inputs the second triggering operation, and needs to suction the smoke again, Entering the first triggering operation;
  • the microprocessor outputs the second control signal to the switch unit, so that the switch unit turns on a circuit path between the atomization unit and the battery according to the second control signal. ;
  • the microprocessor 101 changes the atomization power of the atomization unit 106 in an increasing or decreasing manner by the second control signal.
  • step 807 may be further performed, and the microprocessor generates a second preset correspondence relationship
  • the second preset correspondence relationship includes a correspondence between each control signal generated by the microprocessor 101 and each prompt signal, and the control signal generated by the microprocessor is the first control signal or the first Two control signals;
  • the microprocessor determines, according to the generated control signal, the generated control. a target prompt signal corresponding to the signal;
  • the microprocessor sends the target prompt signal to the prompting module.
  • the prompting module is electrically connected to the microprocessor, and the prompting module is configured to generate a prompt state according to the prompt signal sent by the microprocessor, and different prompt signals correspond to different prompt states, so that the The prompting module generates a prompt state according to the target prompt signal to prompt the user.
  • a second control signal may be generated according to the second triggering operation input by the user, and the microprocessor 101 can control the fog by using the second control signal every time the first preset condition is met
  • the atomization power of the unit 106 is incremented or decremented by equal amplitude each time, without the user having to operate the signal detecting unit 104 multiple times, thereby effectively preventing the signal detecting unit 104 from being triggered by the signal detecting unit 104 multiple times. Poor contact with the microprocessor 101 effectively protects the service life of the electronic cigarette control circuit.
  • Embodiment 5 in this embodiment, how the electronic aerosolization control method implements a change in the atomization power of the atomization unit 106 is described in detail;
  • the electronic aerosolization control method provided in this embodiment is described in detail below with reference to FIG. 9, how to adjust the atomization power in an incremental manner.
  • the microprocessor determines whether the smoking trigger unit receives the first trigger operation of the user input, and if so, proceeds to step 902;
  • the microprocessor determines whether the signal detection unit receives the second trigger operation input by the user, if not, proceed to step 903, and if so, proceed to step 905;
  • the microprocessor generates a first control signal.
  • the microprocessor outputs the first control signal to a switch unit, where the switch unit is electrically connected to the microprocessor and the atomization unit, respectively.
  • step 901 to the step 904 please refer to the steps 801 to 804 shown in FIG. 8 , which are not described in detail in this embodiment;
  • the microprocessor determines a preset increment
  • the embodiment does not limit how the microprocessor determines to change the atomization power of the atomization unit in an incremental manner
  • the microprocessor determines a first target control signal when the first preset condition is met.
  • the first target control signal is a control signal that the microprocessor 101 last sent to the switch unit 105;
  • the control signal sent by the microprocessor 101 to the switch unit 105 last time is the first control signal or the second control signal;
  • the microprocessor determines whether the duty ratio of the first target control signal is greater than or equal to the first preset value, if not, proceed to step 908, and if so, proceed to step 909;
  • the atomization unit 106 when the duty ratio of the first target control signal is greater than or equal to the first preset value, the atomization unit 106 is caused to atomize the smoke oil by greater than or equal to the first preset power. When the duty ratio of the first target control signal is less than the first preset value, the atomization unit 106 is caused to atomize the smoke oil by less than the first preset power;
  • the first preset power is a maximum atomization power of the atomization unit
  • the microprocessor increases the preset increment on a duty ratio of the first target control signal to generate the second control signal.
  • the microprocessor generates a second control signal for causing the atomization unit to atomize with a second preset power, where the second preset power is a minimum atomization power of the atomization unit;
  • the microprocessor After the first target control signal is determined by the step 908 or the step 909, the step 910 is performed, the microprocessor outputs the second control signal to the switch unit, so that the switch unit is The second control signal turns on a circuit path between the atomization unit and the battery;
  • the microprocessor determines whether the smoking trigger unit receives the first trigger operation of the user input, and if so, proceeds to step 1002;
  • the microprocessor determines whether the signal detecting unit receives the second triggering operation input by the user, and if not, proceeds to step 1003, and if so, proceeds to step 1005;
  • the microprocessor generates a first control signal.
  • the microprocessor outputs the first control signal to a switch unit, where the switch unit is electrically connected to the microprocessor and the atomization unit respectively;
  • step 901 to step shown in FIG. Step 904 is not described in detail in this embodiment;
  • the microprocessor determines to change the atomization power of the atomization unit in a decreasing manner, the microprocessor determines a preset decrement
  • the embodiment does not limit how the microprocessor determines to change the atomization power of the atomization unit in a decreasing manner
  • the microprocessor determines a second target control signal when the first preset condition is met.
  • the second target control signal is a control signal that the microprocessor last sent to the switch unit, wherein a control signal that the microprocessor last sent to the switch unit is the first control signal Or the second control signal;
  • the microprocessor determines whether the duty ratio of the second target control signal is greater than a second predetermined value, and if so, proceed to step 1008, and if not, proceed to step 1009;
  • the atomization unit 106 When the duty ratio of the second target control signal is greater than the second preset value, the atomization unit 106 is caused to atomize the smoke oil by more than the second preset power;
  • the atomization unit 106 is caused to atomize the smoke oil by less than or equal to the second preset power
  • the second preset power is a minimum atomization power of the atomization unit
  • the microprocessor reduces the preset decrement on a duty ratio of the second target control signal to generate the second control signal.
  • the microprocessor generates a second control signal for causing the atomization unit to atomize at a first preset power, where the first preset power is a maximum atomization power of the atomization unit.
  • the microprocessor After the second target control signal is determined by the step 1008 or the step 1009, the step 1010 is performed, the microprocessor outputs the second control signal to the switch unit, so that the switch unit is The second control signal turns on a circuit path between the atomization unit and the battery;
  • the electronic aerosolization control method provided is a detailed description of how to fix the atomization power of the atomization unit 106;
  • This embodiment provides two modes. The first one is shown in Figure 11. The specific circuit structure is shown in the first embodiment to the second embodiment.
  • the microprocessor determines whether the smoking trigger unit receives the first trigger operation of the user input, and if so, proceeds to step 1102;
  • the microprocessor determines whether the signal detection unit receives the second trigger operation input by the user, if not, proceed to step 1103, and if so, proceed to step 1105;
  • the microprocessor generates a first control signal.
  • the microprocessor outputs the first control signal to a switch unit, where the switch unit is electrically connected to the microprocessor and the atomization unit respectively;
  • the microprocessor generates a second control signal when the first preset condition is met.
  • the microprocessor outputs the second control signal to the switch unit, so that the switch unit turns on a circuit path between the atomization unit and the battery according to the second control signal. ;
  • the microprocessor determines a third target control signal when the second preset condition is met.
  • the second preset condition is that the microprocessor 101 determines that the signal detecting unit 104 receives the second triggering operation again;
  • the third target control signal is a second control signal that the microprocessor 101 last sent to the switch unit 105;
  • the microprocessor determines that the first preset condition is met, the microprocessor outputs the third target control signal to the switch unit, so that the switch unit is according to the third A target control signal conducts a circuit path between the atomizing unit and the battery.
  • the first type is shown in Figure 12, and the specific circuit structure is shown in the first embodiment to the second embodiment.
  • the microprocessor determines whether the smoking trigger unit receives the first trigger operation input by the user, and if so, proceeds to step 1202;
  • the microprocessor determines whether the signal detecting unit receives the second triggering operation input by the user, and if not, proceeds to step 1203, and if so, proceeds to step 1205;
  • the signal detecting unit 104 shown in this embodiment includes a first detecting subunit and a second detecting subunit arranged in parallel;
  • the microprocessor 101 determines that the first detecting subunit receives the user input During the pressing operation, the microprocessor 101 determines that the signal detecting unit 104 receives the second triggering operation input by the user;
  • the microprocessor 101 determines that the first detecting subunit does not receive the pressing operation input by the user, the microprocessor 101 determines that the signal detecting unit 104 does not receive the second triggering operation of the user input;
  • the microprocessor generates a first control signal.
  • the microprocessor outputs the first control signal to a switch unit, where the switch unit is electrically connected to the microprocessor and the atomization unit respectively;
  • the microprocessor generates a second control signal when the first preset condition is met.
  • the microprocessor outputs the second control signal to the switch unit, so that the switch unit turns on a circuit path between the atomization unit and the battery according to the second control signal. ;
  • step 1201 to the step 1206 in this embodiment please refer to step 1101 to step 1106, and details are not described herein.
  • the microprocessor determines a third target control signal when the second preset condition is met, where the second preset condition is that the microprocessor determines that the second detecting subunit receives a pressing operation input by a user. ;
  • the third target control signal is a second control signal that the microprocessor 101 last sent to the switch unit;
  • the microprocessor determines that the first preset condition is met, the microprocessor outputs the third target control signal to the switch unit, so that the switch unit is according to the third A target control signal conducts a circuit path between the atomizing unit and the battery.
  • Embodiment 6 This embodiment describes another manner of changing the smoke concentration by the electronic aerosolization control method as shown in FIG. 13;
  • circuit structure can be seen in the third embodiment, which is not described in detail in this embodiment;
  • the microprocessor determines a first preset correspondence relationship
  • the first preset correspondence relationship includes a correspondence between each control signal generated by the microprocessor 101 and each switch unit;
  • the microprocessor determines whether the smoking trigger unit receives the first trigger operation of the user input, and if so, proceeds to step 1303;
  • step 1301 there are two ways to implement the step 1301. For the specific circuit connection structure, refer to the second embodiment, and details are not described herein.
  • the first type the smoking trigger unit is an air flow sensor, and the smoking trigger unit is electrically connected to the battery and the microprocessor, respectively, and the microprocessor determines whether the smoking trigger unit receives the user input.
  • the first triggering operation includes:
  • the microprocessor determines that the smoking trigger unit receives the first triggering operation input by a user
  • the microprocessor determines that the smoking triggering unit does not receive the first triggering operation of the user input
  • the first triggering operation includes:
  • the microprocessor Determining, by the microprocessor, whether a circuit between the microprocessor and the battery is turned on, the first triggering operation is a pressing operation, and the first button switch is configured to receive the first triggering operation Turning on a circuit path between the microprocessor and the battery;
  • the microprocessor determines that the smoking trigger unit receives the first triggering operation of the user input
  • the microprocessor determines that the smoking trigger unit has not received a first triggering operation of the user input.
  • the atomization unit includes a plurality of heating wires arranged in parallel, and the number of the switching units is equal to the number of the heating wires, so that each of the heating wires corresponds to each of the switching units, and each of the units One end of the heating wire is electrically connected to the microprocessor, and the other end of each heating wire is electrically connected to the microprocessor through the switch unit;
  • the microprocessor determines whether the signal detection unit receives the second trigger operation input by the user, if not, proceed to step 1304, and if so, proceed to step 1307;
  • the microprocessor generates a first control signal.
  • the microprocessor determines, according to the first preset correspondence, a first target switch unit corresponding to the first control signal.
  • the microprocessor outputs the first control signal to the first target switch unit, so that the first target switch unit is turned on according to the first control signal and the first target switch unit. a circuit path between the corresponding atomization unit and the battery;
  • the microprocessor generates a second control signal when the first preset condition is met.
  • the microprocessor determines, according to the first preset correspondence, a second target switch unit corresponding to the second control signal, so that the second target switch unit is turned on according to the second control signal. a circuit path between the atomization unit and the battery corresponding to the second target switch unit.

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  • Electrostatic Spraying Apparatus (AREA)
  • Catching Or Destruction (AREA)

Abstract

一种电子烟控制电路以及电子烟雾化控制方法，该电子烟控制电路包括电池（102）、吸烟触发单元（103）、微处理器（101）、开关单元（105）、信号检测单元（104）以及雾化单元（106）；所述微处理器（101）用于生成第一控制信号，且将该第一控制信号输出给所述开关单元（105），所述微处理器（101）还用于在满足第一预设条件下生成第二控制信号，且将该第二控制信号输出给所述开关单元（105）。若用户希望抽吸到的烟雾量有所改变时，只需要输入一次第二触发操作，则所述微处理器（101）即可生成所述第二控制信号，且在每满足所述第一预设条件时，所述微处理器（101）能够控制雾化单元（106）的雾化功率每次都进行递增或递减，从而有效地保障了电子烟控制电路的使用寿命。

Description

一种电子烟控制电路以及电子烟雾化控制方法 技术领域
本发明涉及电子烟领域，尤其涉及的是一种电子烟控制电路以及电子烟雾化控制方法。
背景技术
现有技术的电子烟通过滑动变阻器进行调节电子烟的雾化功率，例如专利号为CN201220422812所揭示的电子烟，这种电子烟有部分功率消耗在所述滑动变阻器上，因而电子烟使用寿命短。现有技术还提供的另一种电子烟是通过按键不断进行触发控制器来控制电子烟的雾化功率，然而，高频率的按压按键会容易使按键疲劳，从而使得按键与控制器的接触不良，从而导致电子烟使用寿命短，且此种电子烟不便于调节，因而使用不方便。
发明内容
本发明提供了一种电子烟控制电路以及电子烟雾化控制方法；
一种电子烟控制电路，其中，包括电池、吸烟触发单元、微处理器、开关单元、信号检测单元以及雾化单元；
所述吸烟触发单元分别与所述电池和所述微处理器电连接，且所述吸烟触发单元用于接收用户输入的第一触发操作；
所述开关单元分别与所述微处理器和所述雾化单元电连接，且所述微处理器用于若确定所述吸烟触发单元接收到所述第一触发操作，则所述微处理器生成第一控制信号，且所述微处理器将所述第一控制信号输出给所述开关单元，所述开关单元用于根据所述第一控制信号导通所述雾化单元与所述电池之间的电路通路，以使所述雾化单元能够雾化烟油以形成烟雾；
所述信号检测单元分别与所述电池和所述微处理器电连接，所述信号检测单元用于接收用户输入的第二触发操作，所述微处理器还用于在满足第一预设条件下生成第二控制信号，且将所述第二控制信号输出给所述开关单元，以使所述开关单元根据所述第二控制信号导通所述雾化单元与所述电池之间的电路通路，所述微处理器用于通过所述第二控制信号以递增或递减的方式改变所述雾化单元的雾化功率，所述第一预设条件为所述微处理器确定所述吸烟触发单元再次接收到所述第一触发操作。
优选的，
所述吸烟触发单元为气流感应器，所述第一触发操作为用户抽吸的操作，所述气流感应器用于在接收到所述第一触发操作时生成触发信号，使得所述气流感应器将已生成的所述触发信号发送给所述微处理器，所述微处理器用于根据所述触发信号生成所述第一控制信号或所述第二控制信号；
或，
所述吸烟触发单元为第一按键开关，所述第一触发操作为按压操作，所述第一按键开关用于在接收到所述第一触发操作时导通所述微处理器与所述电池之间的电路通路，以使所述微处理器生成所述第一控制信号或所述第二控制信号。
优选的，所述开关单元包括第一电阻和第一三极管，所述第一电阻的一端与所述微处理器电连接，所述第一电阻的另一端与所述第一三极管的一端电连接，所述第一三极管的另一端与所述雾化单元电连接。
优选的，所述信号检测单元为第二按键开关和第二电阻，所述第二电阻的一端与所述微处理器电连接，所述第二电阻的另一端与所述电池电连接，所述第二按键开关的一端与所述微处理器电连接，所述第二按键开关的另一端与所述电池电连接；
所述微处理器还用于确定预设增量，以使所述信号检测单元已接收到用户输入的第二触发操作且满足所述第一预设条件时，所述微处理器用于确定第一目标控制信号，所述第一目标控制信号为所述微处理器上次发送给所述开关单元的控制信号，其中，所述微处理器上次发送给所述开关单元的控制信号为所述第一控制信号或所述第二控制信号，所述微处理器还用于确定所述第一目标控制信号的占空比是否大于或等于第一预设值，当所述第一目标控制信号的占空比大于或等于所述第一预设值时，所述雾化单元以大于或等于第一预设功率雾化烟油，当所述第一目标控制信号的占空比小于所述第一预设值时，所述雾化单元以小于所述第一预设功率雾化烟油，其中，所述第一预设功率为所述雾化单元的最大雾化功率；若否，则所述微处理器在所述第一目标控制信号的占空比上增加所述预设增量以生成所述第二控制信号；若是，则所述微处理器生成用于使得所述雾化单元以第二预设功率进行雾化的第二控制信号，所述第二预设功率为所述雾化单元的最小雾化功率。
优选的，所述信号检测单元为第二按键开关和第二电阻，所述第二电阻的一端与所述微处理器电连接，所述第二电阻的另一端与所述电池电连接，所述第二按键开关的一端与所述微处理器电连接，所述第二按键开关的另一端与所述电池电连接；
所述微处理器还用于确定预设减量，以使所述信号检测单元已接收到用户输入的第二触发操作且满足所述第一预设条件时，所述微处理器用于确定第二目标控制信号，所述第二目标控制信号为所述微处理器上次发送给所述开关单元的控制信号，其中，所述微处理器上次发送给所述开关单元的控制信号为所述第一控制信号或所述第二控制信号；所述微处理器还用于确定所述第二目标控制信号的占空比是否大于第二预设值，当所述第二目标控制信号的占空比大于所述第二预设值时，所述雾化单元以大于第二预设功率雾化烟油，当所述第二目标控制信号的占空比小于或等于所述第二预设值时，所述雾化单元以小于或等于所述第二预设功率雾化烟油，其中，所述第二预设功率为所述雾化单元的最小雾化功率；若是，则所述微处理器在所述第二目标控制信号的占空比上减少所述预设减量以生成所述第二控制信号；若否，则所述微处理器生成用于使得所述雾化单元以第一预设功率进行雾化的第二控制信号，所述第一预设功率为所述雾化单元的最大雾化功率。
优选的，所述信号检测单元包括并联设置的第一检测子单元和第二检测子单元，所述第一检测子单元包括第三按键开关和第三电阻，所述第二检测子单元包括第四按键开关和第四电阻；
所述第三电阻的一端与所述微处理器电连接，所述第三电阻的另一端与所述电池电连接，所述第三按键开关的一端与所述微处理器电连接，所述第三按键开关的另一端与所述电池电连接，所述第三按键开关用于接收用户输入的按压操作，所述微处理器用于确定若所述第三按键开关接收到所述按压操作，则所述微处理器确定所述信号检测单元接收到用户输入的所述第二触发操作，所述微处理器还用于确定若所述第三按键开关没有接收到所述按压操作，则所述微处理器确定所述信号检测单元没有接收到用户输入的所述第二触发操作；
所述第四电阻的一端与所述电池电连接，所述第四电阻的另一端与所述微处理器电连接，所述第四按键开关的一端与所述电池电连接，所述第四按键开关的另一端与所述微处理器电连接，且所述第四开关用于接收用户输入的按压 操作，所述微处理器用于确定当所述第四开关接收到所述按压操作时，则确定满足第二预设条件，所述微处理器还用于在满足第二预设条件下确定第三目标控制信号，所述第三目标控制信号为所述微处理器上次发送给所述开关单元的第二控制信号；若所述微处理器确定满足所述第一预设条件，则所述微处理器将所述第三目标控制信号输出给所述开关单元，以使所述开关单元根据所述第三目标控制信号导通所述雾化单元与所述电池之间的电路通路。
优选的，所述雾化单元包括多个并联设置的电热丝，且所述开关单元的数目与所述电热丝的数目相等，使得各所述电热丝与各所述开关单元对应；
各所述电热丝的一端与所述微处理器电连接，各所述电热丝的另一端通过所述开关单元与所述微处理器电连接；
所述微处理器还用于确定第一预设对应关系，所述第一预设对应关系包括所述微处理器所生成的各控制信号与各开关单元的对应关系，所述微处理器所生成的控制信号为所述第一控制信号或所述第二控制信号，以使所述微处理器根据所述第一预设对应关系确定与所述已生成的控制信号对应的目标开关单元，使得所述微处理器导通与所述目标开关单元对应的电热丝与所述电池之间的电路通路。
优选的，所述电子烟控制电路还包括提示模块，所述提示模块与所述微处理器电连接，所述提示模块用于根据所述微处理器所发送的提示信号对应生成提示状态，且不同的提示信号对应不同的提示状态；
所述微处理器还用于生成第二预设对应关系，所述第二预设对应关系包括所述微处理器所生成的各控制信号与各提示信号的对应关系，所述微处理器所生成的控制信号为所述第一控制信号或所述第二控制信号，以使所述微处理器根据已生成的所述控制信号确定与所述已生成的控制信号对应的目标提示信号，使得所述提示模块通过所述目标提示信号对应生成提示状态以提示用户。
优选的，所述提示模块为灯光模块和/或语音模块。
一种电子烟雾化控制方法，其中，包括：
微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作，所述吸烟触发单元分别与电池和所述微处理器电连接；
若是，则所述微处理器确定信号检测单元是否接收到用户输入的第二触发操作，所述信号检测单元分别与所述电池和所述微处理器电连接；
若否，则所述微处理器生成第一控制信号；
所述微处理器将所述第一控制信号输出给开关单元，所述开关单元分别与所述微处理器和雾化单元电连接，使得所述开关单元根据所述第一控制信号导通所述雾化单元与电池之间的电路通路，以使所述雾化单元能够雾化烟油以形成烟雾；
若是，则所述微处理器在满足第一预设条件下生成第二控制信号，所述第一预设条件为所述微处理器确定所述吸烟触发单元再次接收到所述第一触发操作；
所述微处理器将所述第二控制信号输出给所述开关单元，以使所述开关单元根据所述第二控制信号导通所述雾化单元与所述电池之间的电路通路，以使所述微处理器通过所述第二控制信号以递增或递减的方式改变所述雾化单元的雾化功率。
优选的，所述微处理器在满足第一预设条件下生成第二控制信号之前，所述方法包括：
当所述微处理器确定以递增方式改变所述雾化单元的雾化功率时，所述微处理器确定预设增量；
所述微处理器在满足第一预设条件下生成第二控制信号包括：
在满足所述第一预设条件时，所述微处理器确定第一目标控制信号，所述第一目标控制信号为所述微处理器上次发送给所述开关单元的控制信号，其中，所述微处理器上次发送给所述开关单元的控制信号为所述第一控制信号或所述第二控制信号；
所述微处理器确定所述第一目标控制信号的占空比是否大于或等于第一预设值，当所述第一目标控制信号的占空比大于或等于所述第一预设值时，则使得所述雾化单元以大于或等于第一预设功率雾化烟油，当所述第一目标控制信号的占空比小于所述第一预设值时，则使得所述雾化单元以小于所述第一预设功率雾化烟油，其中，所述第一预设功率为所述雾化单元的最大雾化功率；
若否，则所述微处理器在所述第一目标控制信号的占空比上增加所述预设增量以生成所述第二控制信号；
若是，则所述微处理器生成用于使得所述雾化单元以第二预设功率进行雾化的第二控制信号，所述第二预设功率为所述雾化单元的最小雾化功率。
优选的，所述微处理器在满足第一预设条件下生成第二控制信号之前，所述方法包括：
当所述微处理器确定以递减方式改变所述雾化单元的雾化功率时，所述微处理器确定预设减量；
所述微处理器在满足第一预设条件下生成第二控制信号包括：
在满足所述第一预设条件时，所述微处理器确定第二目标控制信号，所述第二目标控制信号为所述微处理器上次发送给所述开关单元的控制信号，其中，所述微处理器上次发送给所述开关单元的控制信号为所述第一控制信号或所述第二控制信号；
所述微处理器确定所述第二目标控制信号的占空比是否大于第二预设值，当所述第二目标控制信号的占空比大于所述第二预设值时，则使得所述雾化单元以大于第二预设功率雾化烟油，当所述第二目标控制信号的占空比小于或等于所述第二预设值时，则使得所述雾化单元以小于或等于所述第二预设功率雾化烟油，其中，所述第二预设功率为所述雾化单元的最小雾化功率；
若是，则所述微处理器在所述第二目标控制信号的占空比上减少所述预设减量以生成所述第二控制信号；
若否，则所述微处理器生成用于使得所述雾化单元以第一预设功率进行雾化的第二控制信号，所述第一预设功率为所述雾化单元的最大雾化功率。
优选的，
所述吸烟触发单元为气流感应器，且所述吸烟触发单元分别与所述电池和所述微处理器电连接，则所述微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作包括：
所述微处理器确定是否接收到触发信号，所述触发信号由所述气流感应器在接收到所述第一触发操作时生成，所述第一触发操作为用户抽吸的操作；
若是，则所述微处理器确定所述吸烟触发单元接收到用户输入的所述第一触发操作；
若否，则所述微处理器确定所述吸烟触发单元没有接收到用户输入的所述第一触发操作；
或，
所述吸烟触发单元为第一按键开关，且所述吸烟触发单元分别与所述电池 和所述微处理器电连接，则所述微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作包括：
所述微处理器确定所述微处理器与所述电池之间的电路是否导通，所述第一触发操作为按压操作，所述第一按键开关用于在接收到所述第一触发操作时导通所述微处理器与所述电池之间的电路通路；
若是，则所述微处理器确定所述吸烟触发单元接收到用户输入的第一触发操作；
若否，则所述微处理器确定所述吸烟触发单元没有接收到用户输入的第一触发操作。
优选的，所述微处理器将所述第二控制信号输出给所述开关单元之后，所述方法还包括：
所述微处理器在满足第二预设条件下确定第三目标控制信号，所述第二预设条件为所述微处理器确定所述信号检测单元再次接收到所述第二触发操作，所述第三目标控制信号为所述微处理器上次发送给所述开关单元的第二控制信号；
若所述微处理器确定满足所述第一预设条件，则所述微处理器将所述第三目标控制信号输出给所述开关单元，以使所述开关单元根据所述第三目标控制信号导通所述雾化单元与所述电池之间的电路通路。
优选的，所述信号检测单元包括并联设置的第一检测子单元和第二检测子单元；
所述微处理器确定信号检测单元是否接收到用户输入的第二触发操作包括：
所述微处理器确定所述第一检测子单元接收到用户输入的按压操作时，则所述微处理器确定所述信号检测单元接收到用户输入的第二触发操作；
所述微处理器确定所述第一检测子单元没有接收到用户输入的按压操作时，则所述微处理器确定所述信号检测单元没有接收到用户输入的第二触发操作；
所述微处理器将所述第二控制信号输出给所述开关单元之后，所述方法还包括：
所述微处理器在满足第二预设条件下确定第三目标控制信号，所述第二预 设条件为所述微处理器确定所述第二检测子单元接收到用户输入的按压操作，所述第三目标控制信号为所述微处理器上次发送给所述开关单元的第二控制信号；
若所述微处理器确定满足所述第一预设条件，则所述微处理器将所述第三目标控制信号输出给所述开关单元，以使所述开关单元根据所述第三目标控制信号导通所述雾化单元与所述电池之间的电路通路。
优选的，所述雾化单元包括多个并联设置的电热丝，且所述开关单元的数目与所述电热丝的数目相等，使得各所述电热丝与各所述开关单元对应，各所述电热丝的一端与所述微处理器电连接，各所述电热丝的另一端通过所述开关单元与所述微处理器电连接；
所述方法还包括：
所述微处理器确定第一预设对应关系，所述第一预设对应关系包括所述微处理器所生成的各控制信号与各开关单元的对应关系；
所述微处理器将所述第一控制信号输出给开关单元包括：
所述微处理器根据所述第一预设对应关系确定与所述第一控制信号对应的第一目标开关单元；
所述微处理器将所述第一控制信号输出给所述第一目标开关单元，以使所述第一目标开关单元根据所述第一控制信号导通与所述第一目标开关单元对应的雾化单元与电池之间的电路通路；
所述微处理器将所述第二控制信号输出给所述开关单元包括：
所述微处理器根据所述第一预设对应关系确定与所述第二控制信号对应的第二目标开关单元，以使所述第二目标开关单元根据所述第二控制信号导通与所述第二目标开关单元对应的雾化单元与电池之间的电路通路。
优选的，所述方法还包括：
所述微处理器生成第二预设对应关系，所述第二预设对应关系包括所述微处理器所生成的各控制信号与各提示信号的对应关系，所述微处理器所生成的控制信号为所述第一控制信号或所述第二控制信号；
所述微处理器根据已生成的所述控制信号确定与所述已生成的控制信号对应的目标提示信号；
所述微处理器将所述目标提示信号发送给提示模块，所述提示模块与所述 微处理器电连接，所述提示模块用于根据所述微处理器所发送的提示信号对应生成提示状态，且不同的提示信号对应不同的提示状态，以使所述提示模块根据所述目标提示信号对应生成提示状态以提示用户。
本发明提供了一种电子烟控制电路以及电子烟雾化控制方法，该电子烟控制电路包括电池、吸烟触发单元、微处理器、开关单元、信号检测单元以及雾化单元；所述微处理器用于若确定所述吸烟触发单元接收到第一触发操作，则所述微处理器生成第一控制信号，且所述微处理器将所述第一控制信号输出给所述开关单元，所述开关单元用于根据所述第一控制信号导通所述雾化单元与所述电池之间的电路通路，以使所述雾化单元能够雾化烟油以形成烟雾；所述微处理器还用于在满足第一预设条件下生成第二控制信号，且将所述第二控制信号输出给所述开关单元，以使所述开关单元根据所述第二控制信号导通所述雾化单元与所述电池之间的电路通路，所述微处理器用于通过所述第二控制信号以递增或递减的方式改变所述雾化单元的雾化功率。若用户希望抽吸到的烟雾量有所改变的烟雾时，只需要输入一次所述第二触发操作，则所述微处理器即可根据所述用户输入的所述第二触发操作生成第二控制信号，且在每满足所述第一预设条件时，所述微处理器能够通过所述第二控制信号控制雾化单元的雾化功率每次都以相等幅度进行递增或递减，无需用户多次操作信号检测单元，从而有效的避免了因信号检测单元多次被触发而使得所述信号检测单元与所述微处理器之间接触不良，有效的保障了电子烟控制电路的使用寿命。
附图说明
图1为本发明所提供的一种电子烟控制电路的一种电路连接结构示意图；
图2为本发明所提供的一种电子烟控制电路的另一种电路连接结构示意图；
图3为本发明所提供的电子烟控制电路的另一种电路连接结构示意图；
图4为本发明所提供的电子烟控制电路的另一种电路连接结构示意图；
图5为本发明所提供的电子烟控制电路的另一种电路连接结构示意图；
图6为本发明所提供的电子烟控制电路的另一种电路连接结构示意图；
图7为本发明所提供的电子烟控制电路的另一种电路连接结构示意图；
图8为本发明所提供的电子烟雾化控制方法的一种较佳实施例步骤流程 图；
图9为本发明所提供的电子烟雾化控制方法的另一种较佳实施例步骤流程图；
图10为本发明所提供的电子烟雾化控制方法的另一种较佳实施例步骤流程图；
图11为本发明所提供的电子烟雾化控制方法的另一种较佳实施例步骤流程图；
图12为本发明所提供的电子烟雾化控制方法的另一种较佳实施例步骤流程图；
图13为本发明所提供的电子烟雾化控制方法的另一种较佳实施例步骤流程图。
具体实施方式
实施例一，本实施例提供了一种电子烟控制电路，使得通过本实施例所提供的电子烟控制电路无需高频率的按压按键，就可以改变电子烟的雾化功率，有效的提升了电子烟的使用寿命；
如图1所示，本实施例所提供的电子烟控制电路包括：电池102、吸烟触发单元103、微处理器101、开关单元105、信号检测单元104以及雾化单元106；
具体的，所述吸烟触发单元103分别与所述电池102和所述微处理器101电连接，且所述吸烟触发单元103用于接收用户输入的第一触发操作；
更具体的，本实施例对所述吸烟触发单元103的具体结构不做限定，只要用户希望抽吸烟雾时，通过所述吸烟触发单元103输入第一触发操作以抽吸烟雾即可，例如，所述第一触发操作可为抽吸所述吸烟触发单元103的动作，还例如，所述第一触发操作可为按压所述吸烟触发单元103的动作；
所述开关单元105分别与所述微处理器101和所述雾化单元106电连接，且所述微处理器101用于若确定所述吸烟触发单元103接收到所述第一触发操作，则所述微处理器101生成第一控制信号，且所述微处理器101将所述第一控制信号输出给所述开关单元105，所述开关单元105用于根据所述第一控制信号导通所述雾化单元106与所述电池102之间的电路通路，以使所述雾化单元106能够雾化烟油以形成烟雾；
其中，本实施例对所述雾化单元106的具体结构不做限定，只要所述雾化单元106能够在所述雾化单元106与所述电池102之间的电路导通时，能够雾化烟油以形成烟雾即可。
本实施例对所述开关单元105的具体结构不做限定，只要所述开关单元105能够根据所述第一控制信号导通所述雾化单元106与所述电池102之间的电路通路即可。
为实现本实施例所示的所述电子烟控制电路能够改变所述雾化单元106雾化功率的目的，则所述信号检测单元104分别与所述电池102和所述微处理器101电连接；
所述信号检测单元104用于接收用户输入的第二触发操作；
本实施例对所述第二触发操作不做限定，例如，所述第二触发操作为按压操作；
所述微处理器101还用于在满足第一预设条件下生成第二控制信号；
其中，所述第一预设条件为所述微处理器101确定所述吸烟触发单元103再次接收到所述第一触发操作；
具体的，即用户希望改变所述雾化单元106的雾化功率时，则通过所述信号检测单元104输入所述第二触发操作，则用户希望再次抽吸所述雾化单元106的雾化功率已经发生改变的烟雾时，则用户再次通过所述吸烟触发单元103输入所述第一触发操作，进而可使得用户抽吸到烟雾量相对于上次抽吸有所增加或有所降低的烟雾；
更具体的，即所述微处理器101将在满足所述第一预设条件下所生成的第二控制信号输出给所述开关单元105，以使所述开关单元105根据所述第二控制信号导通所述雾化单元106与所述电池102之间的电路通路，所述微处理器101用于通过所述第二控制信号以递增或递减的方式改变所述雾化单元106的雾化功率；
例如，当用户通过所述信号检测单元104输入所述第二触发操作，则用户每次通过所述吸烟触发单元103输入所述第一触发操作时，所述微处理器101通过生成的第二控制信号控制所述雾化单元106的雾化功率每次都以相等或不相等的幅度进行递增；
较佳的，本实施例以所述微处理器101通过生成的第二控制信号控制所述 雾化单元106的雾化功率每次都以相等的幅度进行递增，以使用户每次输入完所述第一触发操作后，都能够抽吸到烟雾量有所增加且相对于上次抽吸到的烟雾量增加幅度恒定的烟雾量为例；
还例如，当用户通过所述信号检测单元104输入所述第二触发操作，则用户每次通过所述吸烟触发单元103输入所述第一触发操作时，所述微处理器101通过生成的第二控制信号控制所述雾化单元106的雾化功率每次都以相等或不相等的幅度进行递减；
较佳的，本实施例以所述微处理器101通过生成的第二控制信号控制所述雾化单元106的雾化功率每次都以相等的幅度进行递减，以使用户每次输入完所述第一触发操作后，都能够抽吸到烟雾量有所减少且相对于上次抽吸到的烟雾量减少幅度恒定的烟雾量为例。
本实施例对所述微处理器101通过生成的第二控制信号控制所述雾化单元106的雾化功率是以增加的方式增加还是以递减的方式减少不做限定；
可见，采用本实施例所示的所述电子烟控制电路，则用户希望抽吸到的烟雾量有所改变的烟雾时，只需要输入一次所述第二触发操作，则所述微处理器101即可根据所述用户输入的所述第二触发操作生成第二控制信号，且在每满足所述第一预设条件时，所述微处理器101能够通过所述第二控制信号控制雾化单元106的雾化功率每次都以相等幅度进行递增或递减，无需用户多次操作信号检测单元104，从而有效的避免了因信号检测单元104多次被触发而使得所述信号检测单元104与所述微处理器101之间接触不良，有效的保障了电子烟控制电路的使用寿命。
实施例二，本实施例对所述电子烟控制电路的具体电路连接结构进行详细说明：
首先请参见图2所示，所述吸烟触发单元为气流感应器201；
具体的，所述第一触发操作为用户抽吸所述气流感应器201的操作，所述气流感应器201用于在接收到所述第一触发操作时生成触发信号，使得所述气流感应器201将已生成的所述触发信号发送给所述微处理器101，所述微处理器101用于根据所述触发信号生成所述第一控制信号或所述第二控制信号；
需明确的是，本实施例以所述吸烟触发单元为气流感应器201为举例进行说明，不做限定，只要所述吸烟触发单元能够根据接收用户输入的第一触发操 作即可，例如，所述吸烟触发单元为第一按键开关，所述第一触发操作为按压操作，所述第一按键开关用于在接收到所述第一触发操作时导通所述微处理器101与所述电池102之间的电路通路，以使所述微处理器101生成所述第一控制信号或所述第二控制信号。
更具体的，若用户不曾通过所述信号检测单元104输入过所述第二触发操作，则说明用户没有希望改变所述雾化单元106的雾化功率的需求，则所述微处理器101用于根据所述触发信号生成所述第一控制信号；
若用户已通过所述信号检测单元104输入所述第二触发操作，则说明用户有希望改变所述雾化单元106的雾化功率的需求，则所述微处理器101用于根据所述触发信号生成所述第二控制信号；
以下结合图2所示对所述开关单元105的具体电路结构进行详细说明：
其中，如图2所示，所述微处理器101的型号为SN8P2711B，需明确的是，本实施例对所述微处理器101的具体型号为举例说明不做限定，只要所述微处理器101能够实现本实施例所示的功能即可。
所述开关单元105包括第一电阻R1和第一三极管Q1；
所述第一电阻R1的一端与所述微处理器101电连接，所述第一电阻R1的另一端与所述第一三极管Q1的一端电连接，所述第一三极管Q1的另一端与所述雾化单元106电连接。
即当所述微处理器101所生成的所述第一控制信号或所述第二控制信号流经所述第一三极管Q1时，则所述第一三极管Q1根据所述第一控制信号或所述第二控制信号闭合，以使所述雾化单元106与所述电池102之间的电路导通，即无论是所述第一控制信号还是所述第二控制信号，均会使得所述第一三极管Q1导通所述雾化单元106与所述电池102之间的电路通路。
以下结合图2所示对所述信号检测单元104的具体电路结构进行详细说明：
具体的，以下对所述微处理器101具体是如何通过所述信号检测单元104以递增的方式改变所述雾化单元106的雾化功率的进行详细说明；
所述信号检测单元104为第二按键开关K2和第二电阻R2；
具体的，所述第二电阻R2的一端与所述微处理器101电连接，所述第二电阻R2的另一端与所述电池102电连接，所述第二按键开关K2的一端与所 述微处理器101电连接，所述第二按键开关K2的另一端与所述电池102电连接；
所述微处理器101还用于确定预设增量；
本实施例对所述预设增量的具体数值不做限定，可由所述微处理器101根据需要预先确定，或根据用户输入的指令对应设置，具体在本实施例中不做限定。
当所述信号检测单元104已接收到用户输入的第二触发操作且满足所述第一预设条件时，即用户已输入所述第二触发操作后，再次希望抽吸烟雾时，则输入所述第一触发操作时；
所述微处理器101用于确定第一目标控制信号，所述第一目标控制信号为所述微处理器101上次发送给所述开关单元105的控制信号，其中，所述微处理器101上次发送给所述开关单元105的控制信号为所述第一控制信号或所述第二控制信号；
即若所述微处理器101确定所述信号检测单元104未曾接收过所述第二触发操作，则所述第一目标控制信号为所述第一控制信号；
若所述微处理器101确定所述信号检测单元104已接收到所述第二触发操作，且所述微处理器101确定上次满足所述第一预设条件时(即用户上次通过所述吸烟触发单元输入所述第一触发操作时)所述微处理器101发送给所述开关单元105的第二控制信号为所述第一目标控制信号；
较佳的，本实施例中，为避免所述雾化单元106的雾化功率在达到最大雾化功率还持续增加所带来的安全隐患，避免所述雾化单元106因雾化功率过大而烧焦的情况的出现，则所述微处理器101已确定所述第一目标控制信号后，先不对雾化单元106的雾化功率进行更改，而是所述微处理器101首先确定所述第一目标控制信号的占空比是否大于或等于第一预设值；其中，可以理解的是，所述最大雾化功率是为了避免安全隐患及烧焦而设定的雾化功率值。
本实施例对所述第一预设值的大小不做限定，可为所述微处理器101根据所述雾化单元106的具体工作参数进行设定。
其中，当所述第一目标控制信号的占空比大于或等于所述第一预设值时，所述雾化单元106以大于或等于第一预设功率雾化烟油，所述第一预设功率为所述雾化单元106的最大雾化功率；
当所述第一目标控制信号的占空比小于所述第一预设值时，所述雾化单元106以小于所述第一预设功率雾化烟油；
若所述微处理器101确定所述第一目标控制信号的占空比小于所述第一预设值时，则所述微处理器101在所述第一目标控制信号的占空比上增加所述预设增量以生成所述第二控制信号；
具体的，若所述微处理器101确定所述第一目标控制信号的占空比小于所述第一预设值，则说明所述雾化单元106上次的雾化功率还在安全的范围内(即所述雾化单元106上次雾化烟油时的雾化功率小于所述雾化单元106的最大雾化功率)，则所述微处理器101可在所述第一目标控制信号的占空比上增加所述预设增量以生成所述第二控制信号；
其中，生成占空比已增加所述预设增量的所述第二控制信号后，若所述微处理器101确定再次满足所述第一预设条件时，则将占空比已增加所述预设增量的所述第二控制信号确定为所述第一目标控制信号，则需要再次确定该第一目标控制信号的占空比是否大于或等于所述第一预设值；
若所述第一目标控制信号的占空比大于或等于所述第一预设值时，则所述微处理器101生成用于使得所述雾化单元106以第二预设功率进行雾化的第二控制信号，所述第二预设功率为所述雾化单元106的最小雾化功率。
即若所述微处理器101确定所述第一目标控制信号的占空比大于或等于所述第一预设值，则说明所述雾化单元106上次的雾化功率不在安全的范围内(即所述雾化单元106上次雾化烟油时的雾化功率大于或等于所述雾化单元106的最大雾化功率)，则所述微处理器101不能继续以递增的方式改变所述雾化单元106的雾化功率，而是以循环的方式，即所述微处理器101通过所述第二控制信号使得所述雾化单元106以最小雾化功率雾化烟油以形成烟雾，即通过所述第二控制信号使得所述雾化单元106回到初始雾化功率。
本实施例对所述雾化单元106的最小雾化功率的大小不做限定，例如可为信号检测单元未曾接收到所述第二触发操作时，所述微处理器101确定在满足所述第一预设条件时，所述雾化单元106的雾化功率为所述雾化单元106的最小雾化功率。
通过上述说明可知，所述微处理器101在通过所述信号检测单元104在接收到用户输入的第二触发操作后，以后每次通过所述吸烟触发单元103接收到 用户输入的第一触发操作时，都需要确定所述微处理器101上次发送给所述开关单元105的第一目标控制信号的占空比是否大于或等于所述第一预设值，以确定是继续以递增的方式增加所述第一目标控制信号的占空比，以使得所述雾化单元106的雾化功率持续递增，还是循环回所述雾化单元106的最小雾化功率，可见，采用上述电路结构能够有效的防止超出所述雾化单元106的安全，避免超出所述雾化单元106安全的雾化功率时烧焦所述雾化单元106的情况的出现，避免因所述雾化单元106的烧焦而降低电子烟使用寿命的情况的出现。
以上说明了如图2所示的电子烟控制电路是如何实现以递增的方式改变所述雾化单元106的雾化功率，以下继续结合图2所示的电子烟控制电路说明如何实现以递减的方式改变所述雾化单元106的雾化功率；
以递减的方式改变所述雾化单元106的雾化功率时所述电子烟控制电路的具体结构与以递增的方式改变所述雾化单元106的雾化功率时所述电子烟控制电路的具体结构相同，在此处不再赘述；
所述微处理器101用于确定预设减量；
本实施例对所述预设减量的具体数值不做限定，可由所述微处理器101根据需要预先确定，或根据用户输入的指令对应设置，具体在本实施例中不做限定。
当所述信号检测单元104已接收到用户输入的第二触发操作且满足所述第一预设条件时，即用户已输入所述第二触发操作后，再次希望抽吸烟雾时，则输入所述第一触发操作时；
所述微处理器101用于确定第二目标控制信号，所述第二目标控制信号为所述微处理器101上次发送给所述开关单元105的控制信号，其中，所述微处理器101上次发送给所述开关单元105的控制信号为所述第一控制信号或所述第二控制信号；
即若所述微处理器101确定所述信号检测单元104未曾接收过所述第二触发操作，则所述第二目标控制信号为所述第一控制信号；
若所述微处理器101确定所述信号检测单元104已接收到所述第二触发操作，且所述微处理器101确定上次满足所述第一预设条件时(即用户上次通过所述吸烟触发单元输入所述第一触发操作时)所述微处理器101发送给所述开关单元105的第二控制信号为所述第二目标控制信号；
较佳的，本实施例中，为避免所述雾化单元106的雾化功率在达到最小雾化功率时，还持续的降低所述雾化单元106的雾化功率时，会使得所述雾化单元106所生成的烟雾浓度不够，无法达到用户需求情况的出现，则所述微处理器101已确定所述第二目标控制信号后，先不对雾化单元106的雾化功率进行更改，而是所述微处理器101首先确定所述第二目标控制信号的占空比是否大于第二预设值；
本实施例对所述第二预设值的大小不做限定，可为所述微处理器101根据所述雾化单元106的具体工作参数进行设定。
其中，当所述第二目标控制信号的占空比大于所述第二预设值时，所述雾化单元106以大于第二预设功率雾化烟油，所述第二预设功率为所述雾化单元106的最小雾化功率；
当所述第二目标控制信号的占空比小于或等于所述第二预设值时，所述雾化单元106以小于或等于所述第二预设功率雾化烟油，所述第二预设功率为所述雾化单元106的最小雾化功率；
若所述第二目标控制信号的占空比大于第二预设值时，则所述微处理器101在所述第二目标控制信号的占空比上减少所述预设减量以生成所述第二控制信号；
具体的，若所述微处理器101确定所述第二目标控制信号的占空比小于所述第二预设值，则说明所述雾化单元106上次的雾化功率能够雾化一定浓度的烟雾，没有出现所雾化的烟雾浓度过低的情况(即所述雾化单元106上次雾化烟油时的雾化功率大于所述雾化单元106的最小雾化功率)，则所述微处理器101可在所述第二目标控制信号的占空比上减少所述预设减量以生成所述第二控制信号；
其中，生成占空比已减少所述预设减量的所述第二控制信号后，若所述微处理器101确定再次满足所述第一预设条件时，则将占空比已减少所述预设减量的所述第二控制信号确定为所述第二目标控制信号，则需要再次确定该第二目标控制信号的占空比是否大于所述第二预设值；
若所述第二目标控制信号的占空比小于或等于所述第二预设值时，则所述微处理器101生成用于使得所述雾化单元106以第一预设功率进行雾化的第二控制信号，所述第一预设功率为所述雾化单元106的最大雾化功率。
即若所述微处理器101确定所述第二目标控制信号的占空比小于所述第二预设值，则说明所述雾化单元106上次的雾化功率过小，所雾化的烟雾浓度以不能满足用户的需求，则所述微处理器101不能继续以递减的方式改变所述雾化单元106的雾化功率，而是以循环的方式，即所述微处理器101通过所述第二控制信号使得所述雾化单元106以最大雾化功率雾化烟油以形成烟雾，即通过所述第二控制信号使得所述雾化单元106回到初始雾化功率。
通过上述说明可知，所述微处理器101在通过所述信号检测单元104在接收到用户输入的第二触发操作后，以后每次通过所述吸烟触发单元103接收到用户输入的第一触发操作时，都需要确定所述微处理器101上次发送给所述开关单元105的第二目标控制信号的占空比是否大于所述第二预设值，以确定是继续以递减的方式减少所述第二目标控制信号的占空比，以使得所述雾化单元106的雾化功率持续递减，还是循环回所述雾化单元106的最大雾化功率，可见，采用上述电路结构能够有效的防止在所述雾化单元106所雾化的烟雾浓度以不能满足用户需求的情况下持续对所述雾化单元106的雾化功率进行递减给用户带来的不便。
需明确的是，上述对所述雾化单元106的雾化功率在满足一定条件(具体可参见上述所述)时，以递增或递减的方式对所述雾化单元106的雾化功率进行调节的为较佳的举例，不做限定，例如，还可对所述雾化单元106的雾化功率进行随机的调节等方式。
电子烟在采用本实施例所提供的所述电子烟控制电路时，若所述雾化单元106上次所雾化的烟雾的浓度比较适合用户的口感，则用户希望以后抽吸烟雾时，能够继续以上次抽吸到的烟雾浓度进行吸烟，则以下说明本实施例所提供的所述电子烟控制电路是如何实现固定所述雾化单元106的雾化功率的进行详细说明；
本实施例提供了两种固定所述雾化单元106的雾化功率的方式：
第一种：所述微处理器101在满足第二预设条件下确定第三目标控制信号，其中，所述第二预设条件为所述微处理器101确定所述信号检测单元104再次接收到所述第二触发操作；
所述第三目标控制信号为所述微处理器101上次发送给所述开关单元105的第二控制信号；
即若用户确定上次抽吸到的烟雾浓度较为合适，则通过所述信号检测单元104再次输入所述第二触发操作，所述微处理器101检测到所述信号检测单元104再次接收到所述第二触发操作即可确定所述微处理器101上次发送给所述开关单元105的第二控制信号为所述第三目标控制信号；
在后续使用过程中，若所述微处理器101确定满足所述第一预设条件(即用户需要抽吸烟雾输入所述第一触发操作时)，则所述微处理器101将所述第三目标控制信号输出给所述开关单元105，以使所述开关单元105根据所述第三目标控制信号导通所述雾化单元106与所述电池102之间的电路通路。
第二种：请参见图3所示，其中，图3为本发明所提供的一种电子烟控制电路的另一种电路连接结构示意图；
所述信号检测单元104包括并联设置的第一检测子单元301和第二检测子单元302；
所述第一检测子单元301包括第三按键开关K3和第三电阻R3，所述第二检测子单元302包括第四按键开关K4和第四电阻R4；
如图3所示，所述第三电阻R3的一端与所述微处理器101电连接，所述第三电阻R3的另一端与所述电池102电连接，所述第三按键开关K3的一端与所述微处理器101电连接，所述第三按键开关K3的另一端与所述电池102电连接；
其中，所述第三按键开关K3用于接收用户输入的按压操作，所述微处理器101用于确定若所述第三按键开关K3接收到所述按压操作，则所述微处理器101确定所述信号检测单元104接收到用户输入的所述第二触发操作；
所述微处理器101还用于确定若所述第三按键开关K3没有接收到所述按压操作，则所述微处理器101确定所述信号检测单元104没有接收到用户输入的所述第二触发操作；
所述第四电阻R4的一端与所述电池102电连接，所述第四电阻R4的另一端与所述微处理器101电连接，所述第四按键开关K4的一端与所述电池102电连接，所述第四按键开关K4的另一端与所述微处理器101电连接，
具体的，所述第四按键开关K4用于接收用户输入的按压操作，所述微处理器101用于确定当所述第四开关K4接收到所述按压操作时，则确定满足第二预设条件；
所述微处理器101还用于在满足第二预设条件下确定第三目标控制信号，所述第三目标控制信号为所述微处理器101上次发送给所述开关单元105的第二控制信号；
若所述微处理器101确定满足所述第一预设条件(即用户需要再次抽吸烟雾时)，则所述微处理器101将所述第三目标控制信号输出给所述开关单元105，以使所述开关单元105根据所述第三目标控制信号导通所述雾化单元106与所述电池102之间的电路通路。
可见，采用上述所示，当用户通过所述信号检测单元第一次输入所述第二触发操作时，为用户希望以递增或递减的方式变更所述雾化单元106的雾化功率，以改变烟雾的浓度，当用户再次通过所述信号检测单元104输入所述第二触发操作时，则说明用户觉得当前抽吸到的烟雾浓度较为合适，则微处理器101在确定用户第二次输入所述第二触发操作时，则将上次发送给所述开关电源105的第二控制信号确定为第三目标控制信号，则当所述微处理器101确定用户再次输入希望抽吸烟雾的第一触发操作时，则将已确定的所述第三目标控制信号发送给所述开关单元105，从而使得所述雾化单元106根据所述第三目标控制信号进行雾化烟油的动作，且雾化功率不改变。
实施例三，本实施例结合图4所示，对所述电子烟控制电路改变烟雾浓度的另一种方式进行说明；
实施例二对改变所述第二控制信号的占空比从而使得所述微处理器101能够以递增或递减的方式对所述雾化单元106的雾化功率进行调节进行说明，即如图2和图3所示，雾化单元106所包括的电热丝的数量为一个，而本实施例对导通不同数量的电热丝与电池102之间的电路通路以进行雾化功率的调节进行说明；
如图4所示，所述雾化单元106包括多个并联设置的电热丝401，且所述开关单元105的数目与所述电热丝401的数目相等，使得各所述电热丝401与各所述开关单元105对应；
具体的电路连接结构请参加图5所示，其中，图5以所述电热丝401的数目为两个为例进行举例说明，不做限定；
即各所述电热丝401的一端与所述微处理器101电连接，各所述电热丝401的另一端通过所述开关单元105与所述微处理器电连接；
其中，各所述开关单元105的具体结构和功能请见上述实施例所示，在本实施例中不做赘述。
所述微处理器101还用于确定第一预设对应关系，所述第一预设对应关系包括所述微处理器101所生成的各控制信号与各开关单元105的对应关系，所述微处理器101所生成的控制信号为所述第一控制信号或所述第二控制信号，以使所述微处理器101根据所述第一预设对应关系确定与所述已生成的控制信号对应的目标开关单元，使得所述微处理器101导通与所述目标开关单元对应的电热丝401与所述电池102之间的电路通路。
例如，当用户只输入所述第一触发操作时，则微处理器101根据所述第一预设对应关系确定目标开关单元，以所述目标开关单元的数量为一个为例，则所述微处理器101导通与所述目标开关单元对应的电热丝401与所述电池102之间的电路通路，以使一个所述电热丝401工作；
当所述信号检测单元104接收用户输入的第二触发操作，所述微处理器101还用于在满足第一预设条件下生成第二控制信号，以使通过确定与所述第二控制信号对应的目标开关单元；
以图5所示为例，即当所述微处理器101确定接收到所述第一触发操作时，则可使得一个所述电热丝401工作，当所述微处理器101确定接收到所述第二触发操作，且在满足所述第一预设条件时，则使得两个所述电热丝401工作；
当然，所述电热丝401的数目不限于两个，只要微处理器101确定雾化功率越大的时，控制越多的电热丝401工作以雾化烟油即可。
为提示用户当前电子烟控制电路的工作状态，则如图6所示，所述电子烟控制电路还包括提示模块701，所述提示模块701与所述微处理器101电连接；
所述提示模块701用于根据所述微处理器101所发送的提示信号对应生成提示状态，且不同的提示信号对应不同的提示状态；
所述微处理器101还用于生成第二预设对应关系，所述第二预设对应关系包括所述微处理器101所生成的各控制信号与各提示信号的对应关系，所述微处理器101所生成的控制信号为所述第一控制信号或所述第二控制信号，以使所述微处理器101根据已生成的所述控制信号确定与所述已生成的控制信号对应的目标提示信号，使得所述提示模块701通过所述目标提示信号对应生成提示状态以提示用户。
本实施例对所述提示模块701的具体结构不做限定，只要能够根据所述提示信号对用户进行不同的提示即可，以使用户通过根据不同的提示状态以确定当前所述雾化单元106的雾化功率的高低情况即可；
以下以图7所示为例进行说明，需明确的是，图7所示为对本实施例的举例说明，不做限定；
以图7所示为例，所述提示模块701可为语音模块601和灯光模块602，且所述语音模块601和灯光模块602均与所述微处理器101电连接；
在具体的应用场景中，微处理器101根据所述雾化单元106雾化功率的不同而对应生成不同的提示信号，从而使得所述语音模块601发出不同的声音以及所述灯光模块602发出不同的灯光效果，具体在本实施例中不做限定。
实施例四，本实施例提供了一种电子烟雾化控制方法，使得通过本实施例所提供的电子烟雾化控制方法无需高频率的按压按键，就可以改变电子烟的雾化功率，有效的提升了电子烟的使用寿命；
以下结合图8所示对本实施例所提供的所述电子烟雾化控制方法的具体步骤进行详细说明：
需明确的是，本实施例所示的所述电子烟雾化控制方法是基于实施例一所示的所述电子烟控制电路，所述电子烟控制电路的具体电路连接结构请见上述实施例所示，在本实施例中不做赘述。
801、微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作，若是，则进行步骤802；
若所述微处理器101确定所述吸烟触发单元103接收到所述第一触发操作，则说明用户希望抽吸到烟雾，若所述微处理器101确定没有接收到所述第一触发操作，则继续检测所述吸烟触发单元103是否接收到所述第一触发操作；
其中，所述吸烟触发单元103分别与电池102和所述微处理器101电连接；
更具体的，本实施例对所述吸烟触发单元103的具体结构不做限定，只要用户希望抽吸烟雾时，通过所述吸烟触发单元103输入第一触发操作以抽吸烟雾即可，例如，所述第一触发操作可为抽吸所述吸烟触发单元103的动作，还例如，所述第一触发操作可为按压所述吸烟触发单元103的动作；
802、所述微处理器确定信号检测单元是否接收到用户输入的第二触发操 作，若否，则进行步骤803，若是，则进行步骤805；
其中，所述信号检测单元104分别与所述电池102和所述微处理器101电连接；
所述信号检测单元104用于接收用户输入的第二触发操作；
本实施例对所述第二触发操作不做限定，例如，所述第二触发操作为按压操作；
803、所述微处理器生成第一控制信号；
则说明无需对所述雾化单元106的雾化功率进行更改，则生成不会改变所述雾化单元106的雾化功率的第一控制信号即可；
804、所述微处理器将所述第一控制信号输出给开关单元，所述开关单元分别与所述微处理器和雾化单元电连接；
所述开关单元105根据所述第一控制信号导通所述雾化单元106与电池102之间的电路通路，以使所述雾化单元106能够雾化烟油以形成烟雾；
805、所述微处理器在满足第一预设条件下生成第二控制信号；
其中，所述第一预设条件为所述微处理器101确定所述吸烟触发单元103再次接收到所述第一触发操作，即用户输入了第二触发操作后，需要再次抽吸烟雾时，则输入所述第一触发操作；
806、所述微处理器将所述第二控制信号输出给所述开关单元，以使所述开关单元根据所述第二控制信号导通所述雾化单元与所述电池之间的电路通路；
所述微处理器101通过所述第二控制信号以递增或递减的方式改变所述雾化单元106的雾化功率。
具体实现过程请见实施例一所示，在本实施例中不做赘述；
可选的，在进行完步骤804或步骤806后，还可进行步骤807、所述微处理器生成第二预设对应关系；
所述第二预设对应关系包括所述微处理器101所生成的各控制信号与各提示信号的对应关系，所述微处理器所生成的控制信号为所述第一控制信号或所述第二控制信号；
具体电路结构和实现原理请见上述实施例所示，此处不在赘述；
808、所述微处理器根据已生成的所述控制信号确定与所述已生成的控制 信号对应的目标提示信号；
809、所述微处理器将所述目标提示信号发送给提示模块。
所述提示模块与所述微处理器电连接，所述提示模块用于根据所述微处理器所发送的提示信号对应生成提示状态，且不同的提示信号对应不同的提示状态，以使所述提示模块根据所述目标提示信号对应生成提示状态以提示用户。
可见，采用本实施例所示的所述电子烟雾化控制方法，则用户希望抽吸到的烟雾量有所改变的烟雾时，只需要输入一次所述第二触发操作，则所述微处理器101即可根据所述用户输入的所述第二触发操作生成第二控制信号，且在每满足所述第一预设条件时，所述微处理器101能够通过所述第二控制信号控制雾化单元106的雾化功率每次都以相等幅度进行递增或递减，无需用户多次操作信号检测单元104，从而有效的避免了因信号检测单元104多次被触发而使得所述信号检测单元104与所述微处理器101之间接触不良，有效的保障了电子烟控制电路的使用寿命。
实施例五，本实施例对所述电子烟雾化控制方法是如何实现对所述雾化单元106的雾化功率进行改变的进行详细说明；
首先，以下结合图9所示，对本实施例所提供的所述电子烟雾化控制方法是如何实现以递增的方式对所述雾化功率进行调节的进行详细说明：
901、微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作，若是，则进行步骤902；
902、所述微处理器确定信号检测单元是否接收到用户输入的第二触发操作，若否，则进行步骤903，若是，则进行步骤905；
903、所述微处理器生成第一控制信号；
904、所述微处理器将所述第一控制信号输出给开关单元，所述开关单元分别与所述微处理器和雾化单元电连接；
其中，步骤901至步骤904的具体过程请详见图8所示的步骤801至步骤804所示，具体在本实施例中不做赘述；
905、当所述微处理器确定以递增方式改变所述雾化单元的雾化功率时，所述微处理器确定预设增量；
本实施例对所述微处理器如何确定以递增方式改变所述雾化单元的雾化功率的不做限定；
906、在满足所述第一预设条件时，所述微处理器确定第一目标控制信号；
其中，所述第一目标控制信号为所述微处理器101上次发送给所述开关单元105的控制信号；
所述微处理器101上次发送给所述开关单元105的控制信号为所述第一控制信号或所述第二控制信号；
具体请参见上述实施例所示，此处不再赘述；
907、所述微处理器确定所述第一目标控制信号的占空比是否大于或等于第一预设值，若否，则进行步骤908，若是，则进行步骤909；
其中，当所述第一目标控制信号的占空比大于或等于所述第一预设值时，则使得所述雾化单元106以大于或等于第一预设功率雾化烟油，当所述第一目标控制信号的占空比小于所述第一预设值时，则使得所述雾化单元106以小于所述第一预设功率雾化烟油；
所述第一预设功率为所述雾化单元的最大雾化功率；
908、所述微处理器在所述第一目标控制信号的占空比上增加所述预设增量以生成所述第二控制信号；
909、所述微处理器生成用于使得所述雾化单元以第二预设功率进行雾化的第二控制信号，所述第二预设功率为所述雾化单元的最小雾化功率；
通过步骤908或步骤909所确定完成所述第一目标控制信号后，则进行步骤910、所述微处理器将所述第二控制信号输出给所述开关单元，以使所述开关单元根据所述第二控制信号导通所述雾化单元与所述电池之间的电路通路；
以下结合图10所示，对本实施例所提供的所述电子烟雾化控制方法是如何实现以递减的方式对所述雾化功率进行调节的进行详细说明：
1001、微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作，若是，则进行步骤1002；
1002、所述微处理器确定信号检测单元是否接收到用户输入的第二触发操作，若否，则进行步骤1003，若是，则进行步骤1005；
1003、所述微处理器生成第一控制信号；
1004、所述微处理器将所述第一控制信号输出给开关单元，所述开关单元分别与所述微处理器和雾化单元电连接；
其中，步骤1001至步骤1004的具体过程请详见图9所示的步骤901至步 骤904所示，具体在本实施例中不做赘述；
1005、当所述微处理器确定以递减方式改变所述雾化单元的雾化功率时，所述微处理器确定预设减量；
本实施例对所述微处理器如何确定以递减方式改变所述雾化单元的雾化功率的不做限定；
1006、在满足所述第一预设条件时，所述微处理器确定第二目标控制信号；
所述第二目标控制信号为所述微处理器上次发送给所述开关单元的控制信号，其中，所述微处理器上次发送给所述开关单元的控制信号为所述第一控制信号或所述第二控制信号；
1007、所述微处理器确定所述第二目标控制信号的占空比是否大于第二预设值，若是，则进行步骤1008，若否，则进行步骤1009；
当所述第二目标控制信号的占空比大于所述第二预设值时，则使得所述雾化单元106以大于第二预设功率雾化烟油；
当所述第二目标控制信号的占空比小于或等于所述第二预设值时，则使得所述雾化单元106以小于或等于所述第二预设功率雾化烟油；
其中，所述第二预设功率为所述雾化单元的最小雾化功率；
1008、所述微处理器在所述第二目标控制信号的占空比上减少所述预设减量以生成所述第二控制信号；
1009、所述微处理器生成用于使得所述雾化单元以第一预设功率进行雾化的第二控制信号，所述第一预设功率为所述雾化单元的最大雾化功率。
通过步骤1008或步骤1009所确定完成所述第二目标控制信号后，则进行步骤1010、所述微处理器将所述第二控制信号输出给所述开关单元，以使所述开关单元根据所述第二控制信号导通所述雾化单元与所述电池之间的电路通路；
若所述雾化单元106上次所雾化的烟雾的浓度比较适合用户的口感，则用户希望以后抽吸烟雾时，能够继续以上次抽吸到的烟雾浓度进行吸烟，则以下说明本实施例所提供的所述电子烟雾化控制方法是如何实现固定所述雾化单元106的雾化功率的进行详细说明；
本实施例提供两种方式，第一种请见图11所示，具体电路结构请见实施例一至实施例二所示，本实施例不再赘述；
1101、微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作，若是，则进行步骤1102；
1102、所述微处理器确定信号检测单元是否接收到用户输入的第二触发操作，若否，则进行步骤1103，若是，则进行步骤1105；
1103、所述微处理器生成第一控制信号；
1104、所述微处理器将所述第一控制信号输出给开关单元，所述开关单元分别与所述微处理器和雾化单元电连接；
1105、所述微处理器在满足第一预设条件下生成第二控制信号；
1106、所述微处理器将所述第二控制信号输出给所述开关单元，以使所述开关单元根据所述第二控制信号导通所述雾化单元与所述电池之间的电路通路；
本实施例中的步骤1101至步骤1106的具体实现过程请详见步骤801至步骤806所示，具体不再赘述；
1107、所述微处理器在满足第二预设条件下确定第三目标控制信号；
所述第二预设条件为所述微处理器101确定所述信号检测单元104再次接收到所述第二触发操作；
所述第三目标控制信号为所述微处理器101上次发送给所述开关单元105的第二控制信号；
1108、若所述微处理器确定满足所述第一预设条件，则所述微处理器将所述第三目标控制信号输出给所述开关单元，以使所述开关单元根据所述第三目标控制信号导通所述雾化单元与所述电池之间的电路通路。
第一种请见图12所示，具体电路结构请见实施例一至实施例二所示，本实施例不再赘述；
1201、微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作，若是，则进行步骤1202；
1202、所述微处理器确定信号检测单元是否接收到用户输入的第二触发操作，若否，则进行步骤1203，若是，则进行步骤1205；
其中，本实施例所示的所述信号检测单元104包括并联设置的第一检测子单元和第二检测子单元；
具体的，所述微处理器101确定所述第一检测子单元接收到用户输入的按 压操作时，则所述微处理器101确定所述信号检测单元104接收到用户输入的第二触发操作；
所述微处理器101确定所述第一检测子单元没有接收到用户输入的按压操作时，则所述微处理器101确定所述信号检测单元104没有接收到用户输入的第二触发操作；
1203、所述微处理器生成第一控制信号；
1204、所述微处理器将所述第一控制信号输出给开关单元，所述开关单元分别与所述微处理器和雾化单元电连接；
1205、所述微处理器在满足第一预设条件下生成第二控制信号；
1206、所述微处理器将所述第二控制信号输出给所述开关单元，以使所述开关单元根据所述第二控制信号导通所述雾化单元与所述电池之间的电路通路；
本实施例中的步骤1201至步骤1206的具体实现过程请详见步骤1101至步骤1106所示，具体不再赘述；
1207、所述微处理器在满足第二预设条件下确定第三目标控制信号，所述第二预设条件为所述微处理器确定所述第二检测子单元接收到用户输入的按压操作；
所述第三目标控制信号为所述微处理器101上次发送给所述开关单元的第二控制信号；
1208、若所述微处理器确定满足所述第一预设条件，则所述微处理器将所述第三目标控制信号输出给所述开关单元，以使所述开关单元根据所述第三目标控制信号导通所述雾化单元与所述电池之间的电路通路。
实施例六，本实施例本实施例结合图13所示，对所述电子烟雾化控制方法改变烟雾浓度的另一种方式进行说明；
其电路结构可详见实施例三所示，具体在本实施例中不做赘述；
1301、所述微处理器确定第一预设对应关系；
所述第一预设对应关系包括所述微处理器101所生成的各控制信号与各开关单元的对应关系；
1302、微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作，若是，则进行步骤1303；
进一步的，步骤1301的实现有两种方式，具体的电路连接结构请见实施例二所示，具体不再赘述；
第一种：所述吸烟触发单元为气流感应器，且所述吸烟触发单元分别与所述电池和所述微处理器电连接，则所述微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作包括：
所述微处理器确定是否接收到触发信号，所述触发信号由所述气流感应器在接收到所述第一触发操作时生成，所述第一触发操作为用户抽吸的操作；
若是，则所述微处理器确定所述吸烟触发单元接收到用户输入的所述第一触发操作；
若否，则所述微处理器确定所述吸烟触发单元没有接收到用户输入的所述第一触发操作；
第二种：所述吸烟触发单元为第一按键开关，且所述吸烟触发单元分别与所述电池和所述微处理器电连接，则所述微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作包括：
所述微处理器确定所述微处理器与所述电池之间的电路是否导通，所述第一触发操作为按压操作，所述第一按键开关用于在接收到所述第一触发操作时导通所述微处理器与所述电池之间的电路通路；
若是，则所述微处理器确定所述吸烟触发单元接收到用户输入的第一触发操作；
若否，则所述微处理器确定所述吸烟触发单元没有接收到用户输入的第一触发操作。
更具体的，所述雾化单元包括多个并联设置的电热丝，且所述开关单元的数目与所述电热丝的数目相等，使得各所述电热丝与各所述开关单元对应，各所述电热丝的一端与所述微处理器电连接，各所述电热丝的另一端通过所述开关单元与所述微处理器电连接；
1303、所述微处理器确定信号检测单元是否接收到用户输入的第二触发操作，若否，则进行步骤1304，若是，则进行步骤1307；
1304、所述微处理器生成第一控制信号；
1305、所述微处理器根据所述第一预设对应关系确定与所述第一控制信号对应的第一目标开关单元；
1306、所述微处理器将所述第一控制信号输出给所述第一目标开关单元，以使所述第一目标开关单元根据所述第一控制信号导通与所述第一目标开关单元对应的雾化单元与电池之间的电路通路；
1307、所述微处理器在满足第一预设条件下生成第二控制信号；
1308、所述微处理器根据所述第一预设对应关系确定与所述第二控制信号对应的第二目标开关单元，以使所述第二目标开关单元根据所述第二控制信号导通与所述第二目标开关单元对应的雾化单元与电池之间的电路通路。
所属领域的技术人员可以清楚地了解到，为描述的方便和简洁，上述描述的***，装置和单元的具体工作过程，可以参考前述方法实施例中的对应过程，在此不再赘述。
以上实施例仅用以说明本发明的技术方案，而非对其限制；尽管参照前述实施例对本发明进行了详细的说明，本领域的普通技术人员应当理解：其依然可以对前述各实施例所记载的技术方案进行修改，或者对其中部分技术特征进行等同替换；而这些修改或者替换，并不使相应技术方案的本质脱离本发明各实施例技术方案的精神和范围。

Claims (17)

  1. 一种电子烟控制电路，其特征在于，包括电池、吸烟触发单元、微处理器、开关单元、信号检测单元以及雾化单元；
    所述吸烟触发单元分别与所述电池和所述微处理器电连接，且所述吸烟触发单元用于接收用户输入的第一触发操作；
    所述开关单元分别与所述微处理器和所述雾化单元电连接，且所述微处理器用于若确定所述吸烟触发单元接收到所述第一触发操作，则所述微处理器生成第一控制信号，且所述微处理器将所述第一控制信号输出给所述开关单元，所述开关单元用于根据所述第一控制信号导通所述雾化单元与所述电池之间的电路通路，以使所述雾化单元能够雾化烟油以形成烟雾；
    所述信号检测单元分别与所述电池和所述微处理器电连接，所述信号检测单元用于接收用户输入的第二触发操作，所述微处理器还用于在满足第一预设条件下生成第二控制信号，且将所述第二控制信号输出给所述开关单元，以使所述开关单元根据所述第二控制信号导通所述雾化单元与所述电池之间的电路通路，所述微处理器用于通过所述第二控制信号以递增或递减的方式改变所述雾化单元的雾化功率，所述第一预设条件为所述微处理器确定所述吸烟触发单元再次接收到所述第一触发操作。
  2. 根据权利要求1所述的电子烟控制电路，其特征在于，
    所述吸烟触发单元为气流感应器，所述第一触发操作为用户抽吸的操作，所述气流感应器用于在接收到所述第一触发操作时生成触发信号，使得所述气流感应器将已生成的所述触发信号发送给所述微处理器，所述微处理器用于根据所述触发信号生成所述第一控制信号或所述第二控制信号；
    或，
    所述吸烟触发单元为第一按键开关，所述第一触发操作为按压操作，所述第一按键开关用于在接收到所述第一触发操作时导通所述微处理器与所述电池之间的电路通路，以使所述微处理器生成所述第一控制信号或所述第二控制信号。
  3. 根据权利要求1所述的电子烟控制电路，其特征在于，所述开关单元包括第一电阻和第一三极管，所述第一电阻的一端与所述微处理器电连接，所述第一电阻的另一端与所述第一三极管的一端电连接，所述第一三极管的另一 端与所述雾化单元电连接。
  4. 根据权利要求1所述的电子烟控制电路，其特征在于，所述信号检测单元为第二按键开关和第二电阻，所述第二电阻的一端与所述微处理器电连接，所述第二电阻的另一端与所述电池电连接，所述第二按键开关的一端与所述微处理器电连接，所述第二按键开关的另一端与所述电池电连接；
    所述微处理器还用于确定预设增量，以使所述信号检测单元已接收到用户输入的第二触发操作且满足所述第一预设条件时，所述微处理器用于确定第一目标控制信号，所述第一目标控制信号为所述微处理器上次发送给所述开关单元的控制信号，其中，所述微处理器上次发送给所述开关单元的控制信号为所述第一控制信号或所述第二控制信号，所述微处理器还用于确定所述第一目标控制信号的占空比是否大于或等于第一预设值，当所述第一目标控制信号的占空比大于或等于所述第一预设值时，所述雾化单元以大于或等于第一预设功率雾化烟油，当所述第一目标控制信号的占空比小于所述第一预设值时，所述雾化单元以小于所述第一预设功率雾化烟油，其中，所述第一预设功率为所述雾化单元的最大雾化功率；若否，则所述微处理器在所述第一目标控制信号的占空比上增加所述预设增量以生成所述第二控制信号；若是，则所述微处理器生成用于使得所述雾化单元以第二预设功率进行雾化的第二控制信号，所述第二预设功率为所述雾化单元的最小雾化功率。
  5. 根据权利要求1所述的电子烟控制电路，其特征在于，所述信号检测单元为第二按键开关和第二电阻，所述第二电阻的一端与所述微处理器电连接，所述第二电阻的另一端与所述电池电连接，所述第二按键开关的一端与所述微处理器电连接，所述第二按键开关的另一端与所述电池电连接；
    所述微处理器还用于确定预设减量，以使所述信号检测单元已接收到用户输入的第二触发操作且满足所述第一预设条件时，所述微处理器用于确定第二目标控制信号，所述第二目标控制信号为所述微处理器上次发送给所述开关单元的控制信号，其中，所述微处理器上次发送给所述开关单元的控制信号为所述第一控制信号或所述第二控制信号；所述微处理器还用于确定所述第二目标控制信号的占空比是否大于第二预设值，当所述第二目标控制信号的占空比大于所述第二预设值时，所述雾化单元以大于第二预设功率雾化烟油，当所述第二目标控制信号的占空比小于或等于所述第二预设值时，所述雾化单元以小于 或等于所述第二预设功率雾化烟油，其中，所述第二预设功率为所述雾化单元的最小雾化功率；若是，则所述微处理器在所述第二目标控制信号的占空比上减少所述预设减量以生成所述第二控制信号；若否，则所述微处理器生成用于使得所述雾化单元以第一预设功率进行雾化的第二控制信号，所述第一预设功率为所述雾化单元的最大雾化功率。
  6. 根据权利要求1所述的电子烟控制电路，其特征在于，所述信号检测单元包括并联设置的第一检测子单元和第二检测子单元，所述第一检测子单元包括第三按键开关和第三电阻，所述第二检测子单元包括第四按键开关和第四电阻；
    所述第三电阻的一端与所述微处理器电连接，所述第三电阻的另一端与所述电池电连接，所述第三按键开关的一端与所述微处理器电连接，所述第三按键开关的另一端与所述电池电连接，所述第三按键开关用于接收用户输入的按压操作，所述微处理器用于确定若所述第三按键开关接收到所述按压操作，则所述微处理器确定所述信号检测单元接收到用户输入的所述第二触发操作，所述微处理器还用于确定若所述第三按键开关没有接收到所述按压操作，则所述微处理器确定所述信号检测单元没有接收到用户输入的所述第二触发操作；
    所述第四电阻的一端与所述电池电连接，所述第四电阻的另一端与所述微处理器电连接，所述第四按键开关的一端与所述电池电连接，所述第四按键开关的另一端与所述微处理器电连接，且所述第四开关用于接收用户输入的按压操作，所述微处理器用于确定当所述第四开关接收到所述按压操作时，则确定满足第二预设条件，所述微处理器还用于在满足第二预设条件下确定第三目标控制信号，所述第三目标控制信号为所述微处理器上次发送给所述开关单元的第二控制信号；若所述微处理器确定满足所述第一预设条件，则所述微处理器将所述第三目标控制信号输出给所述开关单元，以使所述开关单元根据所述第三目标控制信号导通所述雾化单元与所述电池之间的电路通路。
  7. 根据权利要求1所述的电子烟控制电路，其特征在于，所述雾化单元包括多个并联设置的电热丝，且所述开关单元的数目与所述电热丝的数目相等，使得各所述电热丝与各所述开关单元对应；
    各所述电热丝的一端与所述微处理器电连接，各所述电热丝的另一端通过所述开关单元与所述微处理器电连接；
    所述微处理器还用于确定第一预设对应关系，所述第一预设对应关系包括所述微处理器所生成的各控制信号与各开关单元的对应关系，所述微处理器所生成的控制信号为所述第一控制信号或所述第二控制信号，以使所述微处理器根据所述第一预设对应关系确定与所述已生成的控制信号对应的目标开关单元，使得所述微处理器导通与所述目标开关单元对应的电热丝与所述电池之间的电路通路。
  8. 根据权利要求1所述的电子烟控制电路，其特征在于，所述电子烟控制电路还包括提示模块，所述提示模块与所述微处理器电连接，所述提示模块用于根据所述微处理器所发送的提示信号对应生成提示状态，且不同的提示信号对应不同的提示状态；
    所述微处理器还用于生成第二预设对应关系，所述第二预设对应关系包括所述微处理器所生成的各控制信号与各提示信号的对应关系，所述微处理器所生成的控制信号为所述第一控制信号或所述第二控制信号，以使所述微处理器根据已生成的所述控制信号确定与所述已生成的控制信号对应的目标提示信号，使得所述提示模块通过所述目标提示信号对应生成提示状态以提示用户。
  9. 根据权利要求8所述的电子烟控制电路，其特征在于，所述提示模块为灯光模块和/或语音模块。
  10. 一种电子烟雾化控制方法，其特征在于，包括：
    微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作，所述吸烟触发单元分别与电池和所述微处理器电连接；
    若是，则所述微处理器确定信号检测单元是否接收到用户输入的第二触发操作，所述信号检测单元分别与所述电池和所述微处理器电连接；
    若否，则所述微处理器生成第一控制信号；
    所述微处理器将所述第一控制信号输出给开关单元，所述开关单元分别与所述微处理器和雾化单元电连接，使得所述开关单元根据所述第一控制信号导通所述雾化单元与电池之间的电路通路，以使所述雾化单元能够雾化烟油以形成烟雾；
    若是，则所述微处理器在满足第一预设条件下生成第二控制信号，所述第一预设条件为所述微处理器确定所述吸烟触发单元再次接收到所述第一触发操作；
    所述微处理器将所述第二控制信号输出给所述开关单元，以使所述开关单元根据所述第二控制信号导通所述雾化单元与所述电池之间的电路通路，以使所述微处理器通过所述第二控制信号以递增或递减的方式改变所述雾化单元的雾化功率。
  11. 根据权利要求10所述的电子烟雾化控制方法，其特征在于，所述微处理器在满足第一预设条件下生成第二控制信号之前，所述方法包括：
    当所述微处理器确定以递增方式改变所述雾化单元的雾化功率时，所述微处理器确定预设增量；
    所述微处理器在满足第一预设条件下生成第二控制信号包括：
    在满足所述第一预设条件时，所述微处理器确定第一目标控制信号，所述第一目标控制信号为所述微处理器上次发送给所述开关单元的控制信号，其中，所述微处理器上次发送给所述开关单元的控制信号为所述第一控制信号或所述第二控制信号；
    所述微处理器确定所述第一目标控制信号的占空比是否大于或等于第一预设值，当所述第一目标控制信号的占空比大于或等于所述第一预设值时，则使得所述雾化单元以大于或等于第一预设功率雾化烟油，当所述第一目标控制信号的占空比小于所述第一预设值时，则使得所述雾化单元以小于所述第一预设功率雾化烟油，其中，所述第一预设功率为所述雾化单元的最大雾化功率；
    若否，则所述微处理器在所述第一目标控制信号的占空比上增加所述预设增量以生成所述第二控制信号；
    若是，则所述微处理器生成用于使得所述雾化单元以第二预设功率进行雾化的第二控制信号，所述第二预设功率为所述雾化单元的最小雾化功率。
  12. 根据权利要求10所述的电子烟雾化控制方法，其特征在于，所述微处理器在满足第一预设条件下生成第二控制信号之前，所述方法包括：
    当所述微处理器确定以递减方式改变所述雾化单元的雾化功率时，所述微处理器确定预设减量；
    所述微处理器在满足第一预设条件下生成第二控制信号包括：
    在满足所述第一预设条件时，所述微处理器确定第二目标控制信号，所述第二目标控制信号为所述微处理器上次发送给所述开关单元的控制信号，其中，所述微处理器上次发送给所述开关单元的控制信号为所述第一控制信号或 所述第二控制信号；
    所述微处理器确定所述第二目标控制信号的占空比是否大于第二预设值，当所述第二目标控制信号的占空比大于所述第二预设值时，则使得所述雾化单元以大于第二预设功率雾化烟油，当所述第二目标控制信号的占空比小于或等于所述第二预设值时，则使得所述雾化单元以小于或等于所述第二预设功率雾化烟油，其中，所述第二预设功率为所述雾化单元的最小雾化功率；
    若是，则所述微处理器在所述第二目标控制信号的占空比上减少所述预设减量以生成所述第二控制信号；
    若否，则所述微处理器生成用于使得所述雾化单元以第一预设功率进行雾化的第二控制信号，所述第一预设功率为所述雾化单元的最大雾化功率。
  13. 根据权利要求10所述的电子烟雾化控制方法，其特征在于，
    所述吸烟触发单元为气流感应器，且所述吸烟触发单元分别与所述电池和所述微处理器电连接，则所述微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作包括：
    所述微处理器确定是否接收到触发信号，所述触发信号由所述气流感应器在接收到所述第一触发操作时生成，所述第一触发操作为用户抽吸的操作；
    若是，则所述微处理器确定所述吸烟触发单元接收到用户输入的所述第一触发操作；
    若否，则所述微处理器确定所述吸烟触发单元没有接收到用户输入的所述第一触发操作；
    或，
    所述吸烟触发单元为第一按键开关，且所述吸烟触发单元分别与所述电池和所述微处理器电连接，则所述微处理器确定吸烟触发单元是否接收到用户输入的第一触发操作包括：
    所述微处理器确定所述微处理器与所述电池之间的电路是否导通，所述第一触发操作为按压操作，所述第一按键开关用于在接收到所述第一触发操作时导通所述微处理器与所述电池之间的电路通路；
    若是，则所述微处理器确定所述吸烟触发单元接收到用户输入的第一触发操作；
    若否，则所述微处理器确定所述吸烟触发单元没有接收到用户输入的第一 触发操作。
  14. 根据权利要求10所述的电子烟雾化控制方法，其特征在于，所述微处理器将所述第二控制信号输出给所述开关单元之后，所述方法还包括：
    所述微处理器在满足第二预设条件下确定第三目标控制信号，所述第二预设条件为所述微处理器确定所述信号检测单元再次接收到所述第二触发操作，所述第三目标控制信号为所述微处理器上次发送给所述开关单元的第二控制信号；
    若所述微处理器确定满足所述第一预设条件，则所述微处理器将所述第三目标控制信号输出给所述开关单元，以使所述开关单元根据所述第三目标控制信号导通所述雾化单元与所述电池之间的电路通路。
  15. 根据权利要求10所述的电子烟雾化控制方法，其特征在于，所述信号检测单元包括并联设置的第一检测子单元和第二检测子单元；
    所述微处理器确定信号检测单元是否接收到用户输入的第二触发操作包括：
    所述微处理器确定所述第一检测子单元接收到用户输入的按压操作时，则所述微处理器确定所述信号检测单元接收到用户输入的第二触发操作；
    所述微处理器确定所述第一检测子单元没有接收到用户输入的按压操作时，则所述微处理器确定所述信号检测单元没有接收到用户输入的第二触发操作；
    所述微处理器将所述第二控制信号输出给所述开关单元之后，所述方法还包括：
    所述微处理器在满足第二预设条件下确定第三目标控制信号，所述第二预设条件为所述微处理器确定所述第二检测子单元接收到用户输入的按压操作，所述第三目标控制信号为所述微处理器上次发送给所述开关单元的第二控制信号；
    若所述微处理器确定满足所述第一预设条件，则所述微处理器将所述第三目标控制信号输出给所述开关单元，以使所述开关单元根据所述第三目标控制信号导通所述雾化单元与所述电池之间的电路通路。
  16. 根据权利要求10所述的电子烟雾化控制方法，其特征在于，所述雾化单元包括多个并联设置的电热丝，且所述开关单元的数目与所述电热丝的数 目相等，使得各所述电热丝与各所述开关单元对应，各所述电热丝的一端与所述微处理器电连接，各所述电热丝的另一端通过所述开关单元与所述微处理器电连接；
    所述方法还包括：
    所述微处理器确定第一预设对应关系，所述第一预设对应关系包括所述微处理器所生成的各控制信号与各开关单元的对应关系；
    所述微处理器将所述第一控制信号输出给开关单元包括：
    所述微处理器根据所述第一预设对应关系确定与所述第一控制信号对应的第一目标开关单元；
    所述微处理器将所述第一控制信号输出给所述第一目标开关单元，以使所述第一目标开关单元根据所述第一控制信号导通与所述第一目标开关单元对应的雾化单元与电池之间的电路通路；
    所述微处理器将所述第二控制信号输出给所述开关单元包括：
    所述微处理器根据所述第一预设对应关系确定与所述第二控制信号对应的第二目标开关单元，以使所述第二目标开关单元根据所述第二控制信号导通与所述第二目标开关单元对应的雾化单元与电池之间的电路通路。
  17. 根据权利要求10所述的电子烟雾化控制方法，其特征在于，所述方法还包括：
    所述微处理器生成第二预设对应关系，所述第二预设对应关系包括所述微处理器所生成的各控制信号与各提示信号的对应关系，所述微处理器所生成的控制信号为所述第一控制信号或所述第二控制信号；
    所述微处理器根据已生成的所述控制信号确定与所述已生成的控制信号对应的目标提示信号；
    所述微处理器将所述目标提示信号发送给提示模块，所述提示模块与所述微处理器电连接，所述提示模块用于根据所述微处理器所发送的提示信号对应生成提示状态，且不同的提示信号对应不同的提示状态，以使所述提示模块根据所述目标提示信号对应生成提示状态以提示用户。
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