Abstract: An electronic cigarette preheating method comprises setting preheating parameters and preheating routine in a microcontroller MCU. The preheating parameters at least include preset temperature value, and preset heating time or preset target temperature value. The preheating routine comprises: after turning on the electronic cigarette, activating preheating function when preheating button arranged on the electronic cigarette is pressed, detecting real-time temperature value by means of a temperature sensor; by means of the microcontroller MCU, comparing the real-time temperature value with the preset temperature value, and determining whether preheating of the cigarette liquid stored inside the liquid storage chamber is required. If no, directly entering an available stand-by state.

Abstract: An electronic cigarette preheating control method comprises setting preheating parameters and preheating routine in a microcontroller MCU. The preheating parameters at least include preset temperature value, and preset heating time or preset target temperature value. The preheating routine comprises: after turning on the electronic cigarette, activating preheating function when preheating button arranged on the electronic cigarette is pressed, detecting real-time temperature value by means of a temperature detection unit; by means of the microcontroller MCU, comparing the real-time temperature value with the preset temperature value, and determining whether preheating of the cigarette liquid stored inside the liquid storage chamber is required. If no, directly entering an available stand-by state.

Abstract: The disclosure provides a vaporizing device capable of controlling administration amount and a controlling method thereof. The control circuit board is arranged with a microcontroller, an air flow calculating unit, an energy statistics unit, an energy and vaporizing amount conversion unit, and a power control unit, which are electrically connected with each other. The air flow calculating unit calculates corresponding air flow quantity based on the modeling volume of the detecting air passage and the change of suction pressure. The power control unit controls the power output to the heating resistor based on the air flow quantity. The energy statistics unit calculates output energy based on the output power and the time. The energy and vaporizing amount conversion unit calculates corresponding value of aerosol intake from the energy. The microcontroller compares it with preset limit value of aerosol intake and then sends corresponding control signal to the power control unit.

Abstract: The disclosure provides a method of controlling a vaporizing device, a vaporizing device, and a control system. The controlling method comprises communicating with a cloud server, a user terminal device, and a vaporizing device by means of an administrator terminal device, obtaining various parameters of the vaporizing device by means of the administrator terminal device, writing a new control parameter into the vaporizing device by means of the administrator terminal device, and limiting the user's usage by means of the vaporizing device based on the new control parameter. The disclosure has advantages that, the controlling method allows the authorized administrator to login and query the service condition of the vaporizing device by means of the administrator terminal device and to write new control parameters when necessary.

Abstract: An electronic cigarette encrypted by wireless electronic tag and an encrypting method thereof are provided. The electronic cigarette comprises a vaporizer (1) and a battery assembly (2) connected with each other, the vaporizer (1) comprises a heating resistor (3) and a wireless electronic tag preset with encryption information, the battery assembly (2) comprises a battery (4) and a control circuit board (5) arranged with a microcontroller, a resistance detection unit, a voltage output control unit, a wireless electronic tag reader, and a wireless signal transmitter, wherein the wireless electronic tag reader reads the encryption information and sends it to the microcontroller, and the voltage output control unit outputs voltage to the heating resistor on the premise that the resistance value of the heating resistor is detected by the resistance detection unit and the encryption information is read by the wireless electronic tag reader as well.

Abstract: The disclosure provides an electronic cigarette controllable by mobile software and a controlling method thereof. The electronic cigarette comprises a vaporizer having a heating resistor for heating and vaporizing electronic cigarette liquid and comprises a battery assembly having a battery and a control circuit board, wherein the control circuit board is arranged with a microcontroller, a Bluetooth data transmission unit and an unlock switch unit, wherein the Bluetooth data transmission unit is configured with a mobile software controlling terminal which is the APP installed on a smart phone, the APP contains encryption information which can be sent through mobile Bluetooth to the Bluetooth data transmission unit and then to the microcontroller, and the unlock switch unit is configured to perform unlock and power on operation when the encryption information is identified by the microcontroller.

Abstract: A constant-power electronic cigarette protecting against dry-heating and a controlling method thereof are provided. The electronic cigarette comprises a vaporization rod (1) with a heating resistor arranged therein and comprises a battery rod (2) in which a battery (4), a control circuit board (5) and an unlock switch button (6) and a starting switch are arranged. The heating resistor is a variable resistor with a resistance variable depending on a change in temperature and having a positive temperature coefficient. The control circuit board (5) is arranged with a microcontroller chip, a resistance detection unit, a constant-power output control unit, an output feedback unit, wherein the unlock switch button and the starting switch are electrically connected with the microcontroller chip.

Abstract: The invention relates to an electronic cigarette equipped with double air pressure sensors and a control method thereof. Herein, the vaporizer of the electronic cigarette comprises a heating member, wherein a heating resistor is disposed in the heating member, and a battery, a control circuit board and an intake passage are disposed in the battery stick. The control circuit board is arranged with a micro-controlled switch, a microcontroller and a power adjustment module. Double air pressure sensors are disposed in the intake passage, including a switching air pressure sensor for detecting the suction force and determine whether the suction force reaches a switching value to switch on or off the micro-controlled switch, and a digital air pressure sensor for detecting the magnitude of the suction force during the working of the heating resistor to allow controlling of the amount of the vapor.

Abstract: The disclosure provides an automatically controlled heat-not-burn electronic cigarette device and a control method thereof. The electronic cigarette device comprises a housing, a housing lid and a heating tube arranged in the housing, a heat-insulating tube, an automatic lid opening and/or closing mechanism, a cigarette detecting mechanism, an intelligent control circuit board, a button, and a battery. The intelligent control circuit board is arranged with a main control chip, a heating control module, an automatic lid opening and/or closing control module, a button control module, a detector control module, and a charging management module. The main control chip is configured to control the electronic cigarette device to enter a smoking operation mode, or a sleep state, or an off state, on the basis of the determination of whether a cigarette is received in the heating tube within a certain time.

Abstract: Techniques of deriving audio signals using frequency modulated continuous-wave (FMCW) LIDAR use an acceleration-based algorithm in which an audio signal is based on a difference in velocity between two up-chirps or two-down-chirps. Such an acceleration-based algorithm takes less computation, results in fast processing, boosts the high frequency component of the audio signals which the velocity-based algorithm lacks, and improves the subjective intelligibility. For example, in the acceleration-based algorithm, the DC components may be safely ignored in many cases. In such cases, the system does not require a band-pass filter as in the conventional systems, thus reducing computational burden. Moreover, the acceleration-based algorithm emphasizes high frequencies that form a more realistic depiction of human speech.