Tobacco TRIZ Cases

Laser graphitization creates a high-conductivity heating zone in a porous carbon atomizer core, cutting heat loss and energy use.

Turn-off duration sets preheating energy so an aerosol generator reaches target temperature with consistent taste, without temperature sensors.

By heating only wick-adsorbed e-liquid instead of the full reservoir, this assembly improves atomization efficiency and supports easier disassembly.

Parallel susceptor filaments simplify aerosol liquid conveyance and inductive heating while preserving capillary action and fast evaporation.

Induction and resistive aerosol generators are switched by mode to speed warm-up, shape heating profiles, and reduce condensation.

A meniscus-forming element stores extra liquid at the heater, sustaining aerosol output during long puffs while limiting overheating.

A two-part susceptor holder with opposing slots simplifies wick insertion and secure retention for scalable aerosol consumable assembly.

A split main and diverged airflow path balances suction resistance and sensor pressure to reduce false puff detection in aerosol generators.

A holder isolates the power supply and airflow paths so explosion force is redirected away from the user's face while supporting UL8139 safety.

Capillary storage and a stepped return groove absorb condensate and feed it back to the wick, reducing e-liquid leakage and waste.

Circumferential segmented microwave heating rotates the aerosol-forming article to keep taste consistent while lowering power use.

Control circuitry infers liquid depletion from susceptor heating rate, avoiding extra sensors while maintaining stable aerosol production.

A temperature-responsive cap lock blocks access to a hot heating element, then releases for safe cleaning and maintenance.

A normally closed flexible valve blocks exhaled air, vapor, and droplets from reaching the battery portion and damaging sensitive electronics.

Selective high-power heating across circumferential zones improves aerosol uniformity while balancing control precision and battery energy use.

A thermally conductive housing region draws heat from the atomization unit to prevent hot spots without enlarging the inhaler.

By tracking resonance drift in an inductive heater LCR circuit, temperature can be estimated in real time without external sensors.

A rotatable multi-chamber cartridge keeps unused aerosol media sealed, preserving quality and extending replacement intervals through dial-driven chamber switching.

A protruding guide rail with inclined sections replaces springs or magnets to simplify cap sliding, shrink size, and block debris.

A dual-porous reservoir uses capillary differences to retain flavor material and replenish release, extending aerosol delivery duration.

A separated air inlet and drainage path keeps condensate out of the power supply structure, protecting electronic components from corrosion.

Separate housing openings for the substrate and replaceable battery simplify maintenance, improve safety, and support leak-aware operation.

A lockable airflow port and sensor-controlled heating prevent unintended aerosol generation and block unauthorized use before inhalation.

Different capillary porosities and a compressible reservoir enable independent aerosol and sensory material delivery across varying conditions.

A cap-mounted carrier adds flavourant to aerosol through airflow instead of heat, preventing degradation and widening flavour options.

Separate capillary paths and a compressible reservoir improve control of aerosol and sensory material delivery across changing conditions.

A modular airflow and liquid-guide layout stabilizes atomization, prevents leakage, and protects the heating body during storage and transport.

Movable storage media use inhalation energy to release a second material more consistently in aerosol delivery without extra heaters.

An air-permeable, liquid-impermeable membrane with wick feed and plunger balancing helps non-nicotine vaping reservoirs prevent leaks.

Absorbent and hydrophobic layers inside the aerosol chamber capture condensate, prevent leakage, and simplify liquid cleanup.

Dynamic target temperature updates compensate for heater aging, keeping aerosol generation and flavor delivery consistent over time.

A microporous protective layer filters particles above the heating element, cutting soot, burnt smells, and toxic gas formation.

Airflow-driven sound enables accurate puff detection while keeping the vibration sensor isolated from heat and moisture in the aerosol path.

An angled clamp with a notch creates even press-fit loading in vaping mouthpieces to prevent oil leakage and reduce mold wear.

An air-permeable, liquid-blocking membrane with wick and plunger balances reservoir pressure to prevent leaks and keep vapor output stable.

A sliding unit within a support cover limits condensate squeeze-out in electronic atomizers, helping prevent blockage and component damage.

A chamber spacer shortens the effective heating length to fit different aerosol articles while preserving heater clearance and consistent heating.

A mechanical protrusion-and-elastic-bar coupling replaces magnets or hooks to save space, protect sensors, and improve cap durability.

A clamped temperature sensor and insulating support around the heating tube improve sensing accuracy and heat utilization in aerosol heating.

Resistance-based monitoring interrupts heater power, cools the element, and distinguishes liquid depletion from long-puff dry heating.

Magnetic retention and asymmetric alignment features guide aerosol devices into one correct charging orientation for reliable power and data transfer.

A 360-degree mounting groove lets an aerosol housing fit flexible display modules of different lengths and positions while protecting them from external forces.