Gas Treatment TRIZ Cases

A ceramic carrier body uses segmented cell density to balance mechanical stability and exhaust gas filtration performance.

A drum vent filter assembly uses a translucent check ball to signal pressure status for safe aerosol container removal.

Ozone injection oxidizes nitrogen oxides into water-soluble compounds, enabling efficient removal via scrubbing while minimizing ammonia escape.

Genetic modifications boost transporter proteins to eliminate nitric oxide without secondary waste or high energy costs.

Downward-directed shower nozzle prevents clogging while aeration device oxidatively decomposes organic material in the tank.

A purge exhaust processor uses an electrostatically charged surface to agglomerate oil and water aerosols into liquid for collection.

A steam explosion reactor uses segmented sections to rupture organic fibers and sterilize waste streams.

Localized pore sizes in the PM-trapping and catalyst layers reduce pressure loss while maintaining NOx purification effectiveness.

An enzymatic system replaces energy-intensive batch mixing with rapid, continuous CO2 capture from wellsite exhaust gases.

Gas phase chlorine dioxide oxidizes nitrogen oxides to mineral acids, reducing energy consumption and equipment complexity.

Separating non-volatiles via a stripper reduces corrosivity and chemical waste in CO2 absorption systems.

Varying cell densities in a catalytic converter substrate improve exhaust purification by balancing catalyst utilization and gas flow distribution.

High surface area metal catalyst decomposes trapped microbes via pyrolysis, preventing biological buildup and lowering material costs.

A low-temperature hydrocarbon burner converts pollutants using a composite catalyst.

Thermoformable inserts heat to mold a secure face seal within a rigid shell structure.

A nitrogen-functionalized carbon sorbent captures mercury from flue gas streams using active sites protected by a cationic and neutral nitrogen layer structure.

A high-silica RHO zeolite forms through a crown ether aqueous gel synthesis method that controls silicon and aluminum ratios.

An exhaust-driven scrubber releases stored carbon dioxide from an absorbent fluid, eliminating the need for separate heating equipment.

Process heat regenerates the amine sorbent to extract carbon dioxide from low-concentration ambient air, expanding removal scope beyond finite flue gas sources.

Hydrophilic swelling agent and hydrophobic film maintain air permeability while preventing secretion leakage.

Intermediary plate members fix the honeycomb body to spokes, preventing detachment under high temperature wind pressure.

A flow-regulating member with a peaked edge and width-narrowing portion directs airflow along the outlet pipe inner surface.

Porous adsorbents store concentrated reactive gases by forming labile adducts, reducing decomposition rates without cryogenic cooling.

A molded desiccant body with integrated flow channels eliminates dust from granule abrasion while increasing drying capacity.

A backfilling-type online chromatographic detector system automates sampling and analysis of sulfur hexafluoride decomposition products.

A composite material made from treated date palm wood fibers and polylactic acid adsorbs water from gases.

Titanium sol additive modifies cement surfaces to control carbonation depth, preventing shrinkage and cracking while boosting sequestration rates.

Asymmetric ammonium ionic liquid absorbs hydrogen chloride from process gas through reversible chemical interaction.

Composite partition walls with silicon carbide crystals control thermal conduction factors to prevent cracking in thin-walled dust collecting filters.

X-ray inspection guides exhaust component cleaning by detecting ash accumulation and material composition for targeted treatment.

Optimizing the silica-to-alumina ratio to 7-15 balances fresh activity against durability, enabling effective low-temperature NOx conversion.

Transition metal dichalcogenide adsorbents lower desorption energy by replacing thermal methods with electrochemical electron transfer.

A honeycomb filter corner trapping layer incorporates a high porosity region to lower permeation resistance.

Integrating sensors into desiccant rotor layers resolves measurement precision versus device complexity trade-offs.

Layered humic acid and manganese oxide composite catalyst forms on filter surfaces to remove heavy metals from water sources.

A low-temperature adsorption denitration system cools flue gas below room temperature for physical NOx removal.

Real-time sensor data predicts remaining reactor life and prevents toxic NO2 breakthrough during bedside inhalation therapy delivery.

Electrodialysis removes impurities from aluminum salts through selective membranes, achieving 99.9999% purity while eliminating costly multi-step processing.

Three-chamber pump housing uses six-blade rotors to compress gas bubbles, resolving low recovery efficiency from simple agitation.

Differentiated plugging porosity resolves the trade-off between exhaust purification speed and isostatic strength during canning.

An integrated adsorption vessel combines thermal storage components with adsorbents to perform simultaneous contaminant removal and energy accumulation.

A plasma purification device charges oil fume particulate matter and captures it via electrostatic adsorption.

A gas turbine aftertreatment system uses lithium hydroxide to convert exhaust carbon dioxide into lithium carbonate and water.

Pyrolyzed phenolic resin creates a conductive carbon network that stores thermal energy for efficient CO2 desorption, reducing energy losses in capture systems.

An insulated adsorption vessel uses cryogenic temperatures to remove impurities from manufacturing gases.

A portable light rotating joint uses a hollow cylindrical member and fastener to connect electrical conductors between the body and head.

A nano manganese oxide catalyst decomposes ozone into oxygen while generating reactive species to oxidize ethylene and microorganisms.

Segmented gas streams allow selective ozone injection, reducing excess oxidant usage and minimizing nitrogen dioxide emissions.