Combination Devices TRIZ Cases

Continuous gas recirculation removes contaminants and prevents condensation during optical module transport.

Equal-resistance contact conductors distribute current across honeycomb body stacks, resolving heating uniformity issues in large cross sections.

A catalytic process removes oxygen from acid gases using hydrogen sulfide to produce elemental sulfur.

An angled annular skirt biases non-gaseous matter toward a waste outlet via centrifugal force during rotor rotation.

Preliminary cyclone dehydration prevents liquid re-entrainment in coalescing filters.

Merging upstream and downstream gas streams into one sensing device detects reactive species, reducing measuring device count and maintenance costs.

A detachable adsorption pipe design with a locking mechanism enables quick assembly and disassembly.

Water scrubbing reduces amine traces in the gas stream to protect the catalyst and lower operational costs.

Segmented fiber layers resolve vibration-induced dust penetration while maintaining carbon soot collection without expensive splittable fibers.

Segmented filters use thermal conduits and reduced catalyst loading to disperse heat from soot oxidation spikes, preventing temperature-related failures.

A papermaking sheet member incorporates lump-shaped cohered fibers to enhance retentivity.

Dynamic heating shifts the collection zone from lower to upper regions, preventing blockages and reducing maintenance interruptions.

Asymmetric cyclone units reduce lateral dimension while maintaining dust collection efficiency, resolving the trade-off between reliability and size.

Segmented SOx trap catalyst adsorbs sulfur dioxide without oxidation, preventing surface blocking and enabling full volumetric sulfate storage.

Wave-shaped dividing walls separate parallel flow passages to maximize filter media area within a compact volume while maintaining efficient fluid distribution.

Vertical demister sections exceed cross-sectional limits to reduce vessel height while maintaining fluid uniformity.

A cyclonic air cleaner separates heavy particles via centrifugal force before filtration.

A pre-stressed layer bonded to the filter outer periphery generates compressive axial stress.

Telescopic wrapping offsets successive mat layers to anchor edges and prevent hot gas erosion in exhaust aftertreatment systems.

A jet engine chamber uses a separating device to remove oil from air-oil mixtures before discharge.

A fuel vapor filtration device uses a collection cavity to separate contaminants from air flow.

Cyclone separation cells and guiding baffles prevent pulp adherence in paper machine vacuum systems, reducing maintenance complexity.

A gas purification assembly for air-conditioning indoor units integrates an ion generator and atomizing device to neutralize ozone.

Spiral members define helical flow paths that generate centrifugal forces to separate oil from gases while reducing pressure loss across the device.

Direct reaction outlet connection reduces filter overload and energy consumption while maintaining separation yield.

A vacuum loader inlet member acts as a load-bearing support structure to route airflow directly toward the blower.

Nonwoven screens with raised features reduce particulate matter accumulation, extending laser chamber lifetime by preventing debris buildup.

Mutual impingement of liquid streams eliminates air consumption and crystal growth that block flow passages in urea injection systems.

A swirl device separates dirt particles from fluid flow using centrifugal forces, reducing dirt load on the filter medium.

A reticle SMIF pod uses a layered filter and dry gas purge to prevent crystalline salt formation on the patterned surface.

Stacked chambers with partition plates enhance gas-liquid separation efficiency while maintaining high oil flow volume.

A segmented automotive exhaust catalyst uses a non-precious metal inlet zone to trap phosphorous poisons before they reach the active catalytic layer.

Non-catalytic inserts subdivide flow channels into narrow gaps, suppressing flame propagation and preventing deflagration in combustible gas mixtures.

Segmenting the inlet flow directs particle-deficient gas to the fan while routing particle-laden gas away, reducing component wear and maintenance costs.

Segmented stages maintain continuous swirl acceleration through optimized tangential inlets, resolving efficiency losses from flow disruption.

Segmented acid and solvent stages eliminate toxic additives, maintaining purging efficiency without compromising surface area.

Oblique blowpipe angles direct fluid pulses to clean panel filters, reducing media abrasion and flow path obstructions during pulsed cleaning cycles.