Tobacco TRIZ Cases

Segmented airflow passages with angled bends block liquid leakage to the puff sensor, preventing device failure and extending service life.

Segmented modular components with precise temperature sensors control airflow to produce denser vapor while minimizing secondary reactions.

A magnetic field generator integrates an inductor coil within a heating element to produce aerosol from tobacco material.

Segmenting the atomizer and e-liquid tank into separate modules reduces structural complexity and manufacturing costs while enabling convenient refilling.

Gel wicks transport vaporizable material via diffusion, resolving leakage and efficiency trade-offs in vaporizer cartridges.

A finishing element inserts into a side slot to retain an internal bracket, minimizing visual impact from fixation points on the external design.

Dynamic power adjustment prevents mouth burning and stabilizes smoke production by switching heating levels based on time intervals.

Extending portion creates airflow path to discharge aerosol, increasing liquid storage volume by nesting air conductive tube within atomization sleeve.

Segmented modular construction reduces manufacturing defects while magnetic coupling ensures secure component alignment.

Segmented air outlet channels prevent condensate backflow and material accumulation, ensuring smooth aerosol ejection without clogging.

A reversible barrier layer in liquid flow channels prevents premature substrate leakage during storage.

A porous ceramic atomizing core absorbs e-liquid via capillary action, preventing leakage and dry burning while enhancing atomization efficiency.

A detachable atomization cartridge chamber connects to the device body, reducing shell volume and enabling a compact electronic atomization device.

Segmented sealing members prevent liquid leakage in aerosol generating devices under extreme conditions.

Segmented capsules with beveled surfaces manage precise material loading while maintaining heat transfer to prevent spillage.

Segmented bracket fixing structures secure mesh heater connectors, preventing deformation and dry-burning in electronic atomizing devices.

Segmented susceptor layer on insulative support body resolves manufacturing flexibility limits while reducing heat loss.

A full glass atomizer replaces metal components with fused glass to eliminate heavy metal pollution and preserve oil purity.

A vaporizer uses a porous wick made of uniform beads to absorb liquid aerosol-generating material and deliver it to a heater assembly.

A quick liquid injection structure uses a compressed elastic member to open an exhaust gap, enabling direct fluid flow through the liquid-injection tube.

Segmented flow paths prevent flavor blurring by keeping aerosol compositions pure until user inhalation.

Detector arrangement measures aerosol material density to enable precise control module adjustments for heating elements.

Shape memory foam opens pores via heat to deliver liquid while preventing leakage during idle periods.

Segmented cartridges enable dynamic ratio adjustment without manual mixing, resolving the trade-off between product versatility and device complexity.

Atomization assembly with segmented heating elements and e-liquid compartments enables independent or simultaneous vaporization of distinct fluids.

Step-wise temperature control manages substrate depletion and thermodiffusion by adjusting inductive heating power based on measured resistance.

Control circuitry updates device state based on detector signals to prevent overuse.

An electronic atomizer uses an injection-molded sealing member integrally formed on the closure member to cover the atomizing core and seal fluid passages.

An aerosol generating device automatically adjusts a second cartridge position based on detected first material consumption, eliminating manual intervention.

Internal gasket passage controls airflow resistance, eliminating external vent obstruction and ensuring consistent draw performance.

A disposable heating element detects airflow via resistance changes to optimize power delivery in aerosol systems.

An integrated sealing member unifies multiple sealing rings into a single elastic component to simplify the closure body assembly process.

A ceramic atomizer uses a zirconia composite core and copper base for stable heating.

Separating the oil storage chamber from the host compartment prevents leakage that damages electronic sensors and circuit boards.

Collapsible inner container prevents vacuum formation in sealed reservoirs, ensuring consistent capillary draw and eliminating vaporizable material wastage.

Segmenting the heating core into a removable preheating assembly resolves cleaning difficulties that cause uneven heating and irritating smoke taste.

Multiple leads connect to a heating mesh via positioning holes, allowing selective electrode activation to adjust power levels and improve vaporization taste.

A control circuit processes pressure sensor data to detect user inhalation patterns in an electronic cigarette.

Translatable cartridges switch atomizers in the device, eliminating complex rotating mechanisms to reduce internal structure complexity and manufacturing cost.

A biasing mechanism urges a cover against a vapour generating rod, preventing dust entry while enabling automatic access for rod insertion.

Stepped rotation mechanism supports simultaneous filling and transfer of disposable cartridges, resolving productivity complexity trade-offs.

Biasing means apply non-parallel force from the wicking element to the heating element, resolving inconsistent substrate contact issues.

Flexible panel vents internal gases when pressure exceeds threshold, preventing liquid ingress into the power source compartment.

A membrane-covered vent window allows gas escape while maintaining light visibility through a permeable barrier.

A power module connects an electronic smoking device to a portable electronic device to supply energy via an internal energy storage element.

Segmented flow paths and disposable barriers prevent fouling and corrosion of mechanical components while maintaining test accuracy.

Rotating conductive member connects power modules to atomizers, increasing liquid substrate storage capacity beyond single-unit limits.

A battery rod control chip sends asymmetric voltage signals to an atomizer.

Integrating the extractor with the cover portion simplifies component arrangement while maintaining easy cleaning accessibility.