Tobacco TRIZ Cases

A main and auxiliary charging terminal arrangement expands charging options in detachable aerosol-generating housings while keeping a uniform exterior.

A detachable e-liquid storage assembly lets users replace only the depleted cartridge while reusing the atomization core and maintaining fluid connection.

Opposed heating surfaces enlarge atomization area, spread power more evenly, and lower burnt core risk in compact atomizers.

Moisture sensing during heating detects depleted aerosol consumables and interrupts operation to avoid poor taste, shorts, and safety risks.

A porous organic wick-heater combines capillary wicking and Joule heating to cut parts, lower vaporization temperature, and improve battery efficiency.

Variable-curvature heating element ends reduce thermal stress and localized breakage, extending atomizer life while maintaining uniform heating.

A liquid return groove at the airway corner redirects condensate to the heating body for secondary atomization, reducing airway leakage.

Capillary grooves in the vaporizer air outlet absorb condensate and return it for re-vaporization, helping prevent liquid inhalation.

A compression plate presses the vaporizable insert against the heater to improve heat transfer, cut contamination, and limit toxic byproducts.

Detachable battery, control, and circuit modules use elastic U-shaped connectors to enable reuse, cut waste, and simplify atomization device assembly.

Offset, non-parallel cap inlets create stable vortex airflow during inhalation, improving vaporization uniformity and flavor delivery.

Adjustable substrate compression improves heat transfer in HNB devices, enabling more consistent aerosol generation without combustion.

A hollow dielectric supports and shields the microwave antenna, preventing heat deformation and insertion damage while preserving aerosol heating efficiency.

Inductive capillary heating with a low-pressure chamber and IR light improves vaporization of viscous liquids and stabilizes droplet size.

Sensor feedback shifts microwave frequency by moisture and glycerin state to stabilize atomization and reduce heat sensation.

Periodic frequency switching lets one antenna handle dielectric heating and capacitance sensing to detect aerosol article insertion and type.

Adaptive heater timing uses cooling and heating curves to align cold and warm starts, keeping aerosol taste consistent.

Operation counts are updated selectively in an aerosol generator to limit memory writes, extending storage life without losing key usage data.

An air seal with a Gurney flap tunes airflow, turbulence, and cooling to keep aerosol droplets in the 1-10 µm range for better lung delivery.

By tracking amplified duty cycle changes in the heating controller, this case improves puff counting accuracy without added sensors.

An undulating casing surface turns finger movement into vibration signals, enabling subtle smoking device activation without visible buttons.

A sloped, coated outlet rim disrupts surface tension in near-empty vapor cartridges, reducing trapped liquid and dry puffs.

A flexible sealing element opens an air channel under cavity vacuum, restoring e-liquid flow and helping prevent heater overheating.

A rotary electromechanical switch lets a vaporizer pod power one, two, or all cartridges, simplifying flavor mixing and manufacture.

A deformable passage sensor directly detects aerosol flow and generates control signals for more precise, responsive aerosol generator operation.

Magnetic field sensing estimates susceptor temperature in an induction-heated aerosol generator without contact, improving accuracy and sensor durability.

Capillary grooves in the vaporizer air outlet absorb wall condensate and return it for re-vaporization, reducing liquid inhalation.

Puff and heater temperature signals cancel false stick detection, preventing overheating and keeping aerosol generation stable.

DC current sensing enables dual feedback to estimate susceptor temperature and heating power, improving battery stability and temperature convergence.

Capacitance readings before and after article insertion reveal residue buildup, prompting cleaning only when aerosol device efficiency is at risk.

A switching-frequency sweep calibrates coil and power data drift to estimate susceptor temperature without direct sensor contact.

User-set session limits help aerosol generators match usage habits while reducing charge-discharge wear and extending energy storage life.

By facing the atomizing surface toward the mouthpiece, this layout cuts smoke loss, shortens the flow path, and improves inhaled smoke density.

A compartmentalized inlet channel with a mounting bracket and seal member blocks aerosol condensate from reaching electronics and disrupting operation.

Plastic deformation forms α′-martensite in austenitic stainless steel susceptors, boosting induction heating while preserving corrosion resistance.

Pressure-driven puff sensing adjusts heater temperature profiles to maintain aerosol output while reducing energy waste and overheating.

A movable baffle splits aerosol flow into different outlet patterns, giving users adjustable sensory control without complex mechanisms.

Multiple endothermic channels heat tobacco filaments evenly with combustion gas, lowering thermal inertia and reducing harmful smoke byproducts.

A quasicrystal alloy coating helps aerosol susceptors shed condensation oil, tobacco slag, and carbon deposits while preserving heat transfer.

A bent base-and-connector electrode layout improves atomizer-to-battery contact despite assembly tolerances, simplifying manufacture and fit.

A single assembly window and movable cover simplify atomizer housing structure while making consumable-to-power contact visible.

Switching an induction-heating resonant circuit between separate frequency bands improves susceptor temperature control and aerosol quality.

A movable contact opens a sealed liquid channel only at activation, preventing pre-use leakage and unintended vaporization.

Alternating or simultaneous heating members let an atomizer core vary power, reducing dry burning, burnt smell, and service-life limits.

Sequential reservoir compartments extend the liquid flow path to limit moisture absorption, reduce volume growth, and prevent aerosol liquid leakage.

A motorized sliding carrier loads and ejects aerosol cartridges while controlled heating reduces scorching, harmful gases, and flavor loss.

A sliding closure opens the consumable cavity for cleaning deposited aerosol residue while preserving compact size and preventing accidental heating.

By reserving part of battery capacity, this aerosol case keeps smoking cycles consistent over time despite battery degradation.

Electrical parameter feedback tracks susceptor temperature across calibration, heating, and safety modes to prevent overheating and stabilize aerosol output.

Separate air exchange channels and liquid capillary holes maintain pressure balance, protect liquid feed, and prevent heater burn.