Tobacco Devices TRIZ Cases

A foldable laminar diffuser integrates a hook and adhesive layer for versatile placement options.

A wrist-worn vaporizer carrier integrates a heating cartridge with a retractable mouthpiece, protecting the device from damage during transport.

An extractor retrieves tobacco from the wrapping paper to eliminate charcoal odors during low-temperature heating.

A rotatable liquid blocking element with a notch aligns to allow tobacco liquid flow to the atomizing component.

A ventilation channel connects the liquid storage chamber to the atomization assembly, enabling airflow balance and continuous e-liquid flow.

Segmenting the suction nozzle into fixed and movable portions automates oil injection via an elastic seam, simplifying assembly.

Segmented heating zones preheat liquid before full vaporization, reducing energy consumption while maintaining aerosol generation efficiency.

A rupturing system uses two movable tubes to protrude a piercing member through a blister capsule wall.

A porous liquid guide layer covers the exposed surface of a protruding heating member, directing aerosol substrate infiltration to eliminate dry heating risks.

A smoking substitute device uses a puff sensor to detect user input and activate the heater.

A composite wick transports fragrance via capillary action, resolving mechanical instability caused by liquid absorption.

A first organic porous liquid guide element seals a storage chamber while transferring substrate to a second guide for heating.

Multi-seal ring architecture secures the e-liquid inlet while a rotating vapor regulating ring controls airflow alignment for adjustable output.

Elastic sealing rings isolate the battery assembly from tobacco tar leakage, preventing internal corrosion and short circuits.

A cylindrical heating body with inner and outer surfaces heats a tobacco block, while a thermal baffle directs airflow to improve flavor mixing.

Pressing plate secures filter piece against percolation holes, preventing softening-induced leakage in e-cigarette liquid storage.

A portable humidity control device features a separate compartment for materials covered by a semi-permeable membrane lid.

An elastic locking member engages a rotating cover to prevent children from accessing e-liquid in the atomizer bin.

A triangular-like capsule shell fits a circular interface to enhance aerosol flow.

Segmented cartridge design resolves reliability complexity trade-offs while ensuring efficient vapor delivery.

A dual-heater aerosol device uses internal and external heating elements to achieve uniform substrate temperature.

Nested containers with intermediary insulation isolate tobacco from ambient air and temperature fluctuations.

A hand-held vaporizer uses induction heating to rapidly heat a crucible assembly while integrating biometric locking for secure operation.

Segmented coated films distribute Joule heating across a porous base to eliminate temperature gradients and ensure uniform aerosol particle size.

Adjustable compression rollers align unrestrained containers during high-speed indexing, resolving trade-offs between precision and device complexity.

An elastomeric reservoir delivers liquid via manual compression to a heater, eliminating battery drain from pumps and reducing temperature fluctuations.

A handheld scoop features an inclined tray and transverse channel to collect and dispense plant material without direct hand contact.

A capacitive sensor detects air flow rate and direction using a conductive membrane structure.

Wickless micro liquid screen ensures consistent nicotine delivery while communication channels track usage for clinical monitoring.

Merging a protective phone case with an e-cigarette housing eliminates separate storage space and reduces electrical cord clutter.

Segmented rigid shell and flexible inner container prevent spills while enabling one-handed aroma release via squeeze deformation.

Porous absorbent materials retain pre-vapor formulations within the cartridge annulus, preventing premature depletion and inconsistent vapor production.

An atomizer air-liquid equilibrium element balances internal pressure using capillary liquid storage grooves and a gas return groove.

A two-stage atomizer uses primary and secondary heating elements to generate aerosol.

Integrating wicking and heating functions into a single layered mesh structure reduces device complexity while ensuring consistent aerosol production.

Suction devices extract cigarette butts into water-filled receptacles to prevent burns, eliminate odors, and stop ash contamination.

Dual feeding devices decouple high-speed air injection from precise placement, resolving the contradiction between productivity and manufacturing precision.

A combined ashtray and sifter separates ashes from cannabis cigarettes using a mid-section screen.

Intertwining wick material and conductive wire into a rope structure ensures uniform heating spacing, preventing hotspots during continuous machine production.

A breakaway connector with a weakened region prevents liquid leakage and component damage when the device bends.

Electronic consumable devices integrate biosensors for user biometric registration and usage restriction.

Segmented heating zones and variable guide holes manage differential volatilization, preventing inconsistent taste from mixed flavor liquids.

A vaporization sleeve uses a heat conducting element to disperse thermal energy across the structure.

An aligned heat insulation sleeve dissipates vaporizer heat via conduction, preventing component damage from overheating.

A nicotine cessation kit uses a series of vessels with decreasing concentrations to guide users through a step-down program.

Segmented resistive zones on a flexible substrate enable independent flavor control, resolving the trade-off between versatility and device complexity.

Segmented chambers and a moisture transfer element enable controlled vapor release to sanitize spaces without electricity.

A rotating cartridge aligns liquid outlets with inlets to enable fluid communication between reservoir chambers.

Segmented heating zones prevent dry heating and burnt flavor by prewarming liquid for rapid aerosol formation.