A test fixture for testing aerosol provision devices may include one or more testing modules including a cavity configured to receive a portion of an aerosol provision device, processing circuitry operably coupled to the one or more testing modules, and an impedance-based interface module configured to detect insertion of the aerosol provision device into the test fixture and automatically transition the aerosol provision device to a locked state. The processing circuitry may be configured to provide a transition signal to the aerosol provision device to transition the aerosol provision device between the locked state and an unlocked state during a functional test controlled by the processing circuitry.

A test fixture for testing aerosol provision devices may include one or more testing modules including a cavity configured to receive a portion of an aerosol provision device, processing circuitry operably coupled to the one or more testing modules, and an impedance-based interface module configured to detect insertion of the aerosol provision device into the test fixture and automatically transition the aerosol provision device to a locked state. The processing circuitry may be configured to provide a transition signal to the aerosol provision device to transition the aerosol provision device between the locked state and an unlocked state during a functional test controlled by the processing circuitry.

This document generally describes a system and method configured to generate vapor samples from one or more smoking articles used for testing purposes. The system can be configured in a manner that generates a predetermined flow profile by driving a fluid pump in a scheme that accounts for fluid inertia.

This document generally describes a system and method configured to generate vapor samples from one or more smoking articles used for testing purposes. The system can be configured in a manner that generates a predetermined flow profile by driving a fluid pump in a scheme that accounts for fluid inertia.

An apparatus for testing vaporizers of electronic cigarettes is disclosed. Each vaporizer comprises a heating element, and electric terminals for electrically powering the heating element. The testing apparatus comprises a holding construction part with multiple movable vaporizer holding units. A contact construction part is provided with multiple electric contact members each associated with a respective holding unit, and electrically contacting at least one electric terminal of a vaporizer in the associated holding unit. A supply construction part conducts electric power to each contact member. A measuring part measures at least one electric quantity representative of an electric resistance and/or inductance of the heating element, compares the measured quantity with a pre determined range and, if the measured quantity is outside the range, outputs a rejection signal.

A method is disclosed comprising drawing vapor from a vapor device, exposing the drawn vapor to a sensor, determining a condition of the drawn vapor via the sensor, collecting data related to the condition of the drawn vapor from the sensor, comparing the collected data to standardized vapor device output data, determining a calibration result based on the comparison, determining a configuration adjustment based on the calibration result, and transmitting the configuration adjustment to the vapor device.

Apparatus for testing an electronic smoking (e-smoking) device includes an electronic circuit for electronically activating an e-smoking device and causing the e-smoking device to generate a plurality of puffs by converting a wicking fluid therein into a plurality of puffs without a need for a human to physically contact the e-smoking device during puff generation, and a wireless controller for controlling the electronic circuit. The electronic circuit is configured for activating the e-smoking device to generate the plurality of puffs based on wireless signals received at the wireless controller. The apparatus is further configured for measuring a characteristic of the e-smoking device, which may include a rate of conversion of the wicking fluid to vapor as a function of time for the plurality of puffs.

Apparatus for testing an electronic smoking (e-smoking) device includes an electronic circuit for electronically activating an e-smoking device and causing the e-smoking device to generate a plurality of puffs by converting a wicking fluid therein into a plurality of puffs without a need for a human to physically contact the e-smoking device during puff generation, and a wireless controller for controlling the electronic circuit. The electronic circuit is configured for activating the e-smoking device to generate the plurality of puffs based on wireless signals received at the wireless controller. The apparatus is further configured for measuring a characteristic of the e-smoking device, which may include a rate of conversion of the wicking fluid to vapor as a function of time for the plurality of puffs.

An aerosol vaporization device includes: a trigger signal receiving unit for receiving a trigger signal; a detection unit for detecting an operating parameter, the operating parameter including at least one measured parameter of the aerosol vaporization device; a control unit for obtaining the operating parameter fed back by the detection unit when receiving the trigger signal transmitted by the trigger signal receiving unit and outputting a pulse signal after encoding the operating parameter; and a light-emitting diode (LED) unit for modulating a display level according to the pulse signal transmitted by the control unit and output a pulse display level, the display level representing an operating state of the aerosol vaporization device, the pulse display level being provided to a test device for detection and to obtain the operating parameter according to the pulse display level.

An aerosol vaporization device includes: a trigger signal receiving unit for receiving a trigger signal; a detection unit for detecting an operating parameter, the operating parameter including at least one measured parameter of the aerosol vaporization device; a control unit for obtaining the operating parameter fed back by the detection unit when receiving the trigger signal transmitted by the trigger signal receiving unit and outputting a pulse signal after encoding the operating parameter; and a light-emitting diode (LED) unit for modulating a display level according to the pulse signal transmitted by the control unit and output a pulse display level, the display level representing an operating state of the aerosol vaporization device, the pulse display level being provided to a test device for detection and to obtain the operating parameter according to the pulse display level.