A rechargeable battery powers a plasma arc burner to heat combustible material in a portable electronic smoking device.
A rigid tubular mouthpiece incorporates a cushioning wrapping material to provide a comfortable sensory experience for users.
A vaporization core uses a dense substrate with a microgroove array to guide e-liquid flow, preventing non-uniform heating and harmful gas generation.
Through-holes in the tubular wall segment the vaporization medium to eliminate heating delays and prevent liquid explosion risks during aerosol generation.
Dynamic controller switches between time, puff count, and volume criteria to resolve fixed duration limitations in aerosol devices.
Controller lowers heating element temperature between puffs, reducing power consumption and extending battery life without impacting aerosol generation.
Light guide routes LED illumination through a translucent capacitive touch layer in an aerosol generation device.
Air guide groove mediates airflow between first air port and pressure relief hole, preventing external airflow interference with breath detector stability.
Sintered metal powder wicks prevent leakage and ensure consistent fluid conveyance through controlled porosity.
Segmented housing walls expand and contract passively to balance ambient pressure fluctuations, preventing leakage and ensuring consistent aerosol production.
Dynamic compression between housing surfaces increases substrate density and heat transfer, reducing initial activation time for faster aerosol generation.
Piezoelectric element generates cold plasma to remove organic residues from heating elements, reducing energy consumption and extending battery life.
Asymmetric first and second grooves regulate air pressure and e-liquid distribution, preventing dry burning of the ultrasonic atomizing sheet.
Radial heating arms distribute thermal energy across aerosol consumables, resolving uniform heating challenges in compact devices.
Surface turbulence generation elements modify aerosol flow paths to control particle size distribution in smoking substitute devices.
Segmented reservoir design equalizes pressure to prevent vacuum formation, maintaining reliable wicking and reducing material wastage.
Offset positioning of the air column relative to the pneumatic switch prevents e-liquid contamination while maintaining airflow-driven activation.
A vaporizer assembly uses a dual dispensing interface to isolate fluid flow from the heating element for controlled delivery.
A woven fiber tube atomizer transports liquid via capillary action to a conductive heating section for vaporization.
Airflow and pressure sensors detect genuine puffs to prevent false heater activation during external pressure changes.
Microcontroller initializes sensor units and reattempts I2C communication when abnormalities occur, preventing heating malfunctions.
Movable electrical contacts extend into aerosol material to energize independent heating circuits for selective thermal activation.