Liquid Degasification TRIZ Cases

An impact centrifugal separator uses kinetic energy to separate liquid from gaseous phases in supercritical fluid systems.

A bubble trap apparatus diverts fluid flow radially to prevent hazardous gas bubbles from reaching the patient outlet.

A heater-cooler system uses a biocidal heat transfer fluid to prevent bacterial growth in perfusion circuits.

A return conduit diverts cavitation bubbles from liquid flow to stabilize ion signals despite pump oscillations.

Vapour permeable membranes recover latent heat to cut thermal energy consumption by 50% in amine-based CO2 capture systems.

A channeled compression tube traps abrasive solid particles in its internal channels to protect the rotor assembly from wear.

An ozone destruction device converts excess ozone into oxygen using manganese dioxide, preventing atmospheric release of harmful gases.

A condensation device pre-cools extracted drilling gases using environmental air to separate moisture from the gas stream.

A system recovers ammonia from liquid using reverse osmosis concentration and chemical pH adjustment.

Capillary compression tubes enforce unidirectional emulsion flow to dissipate heat during rapid compression, reducing energy consumption.

Segmented separation headers resolve two-phase flow inadequacy in fine channels, maintaining large gas/liquid ratios for efficient absorption.

Descending branch pipes guide sand to collection points, eliminating upstream removal devices that increase component count.

An inclined desanding apparatus separates solid particulates from gas and liquid streams using a treatment chamber and recovery zone.

A heated reboiler uses flue gas to strip carbon dioxide from liquid absorbent.

Double-walled cooling pipes with a scraper cleaning system prevent clogging in polymer melt degassing units.

A lubrication de-aerator uses tapered cell matrices to intercept slung lubricant and separate entrained air from the fluid.

A twinned inlet distributor device segments incoming fluid streams into multiple vertical risers to decelerate flow and guide separation within a cylindrical tank.

A steam ejector creates vacuum in flash tanks using high-velocity motive fluid jets to separate gases from black water streams.

Start-up absorbers capture syngas emissions during IGCC initialization, storing gases in rich solvent tanks until main acid gas removal systems stabilize.

A bubble isolation apparatus separates gas from liquid using a central column and annular coupling tube to collect bubbles.

Nested centrifugal separation zones remove solids and gases from fluid streams, preventing equipment damage in subsea operations.

An inlet screen stabilizes centric flow to resolve asymmetrical inflow issues that degrade deaeration reliability.

A gas-containing liquid generating apparatus uses segmented pressure fluctuation to produce nanobubbles.

Segmented helix assembly uses integrated weld seams to form fluid-tight casings, resolving fabrication complexity while preventing gas-liquid remixing.

Turbulence generators inside reactor channels create a highly turbulent flow field that mixes hydrocarbon and oxygen streams, preventing premature ignition.

Segmented separators resolve the contradiction between operational capacity and separation efficiency, reducing construction costs.

Rotating auger assembly clears solid blockages at the fluid-air interface to maintain continuous biogas containment and prevent operational disruptions.

A contact and separation column uses a stacked cell design with a downstream swirler to enhance mass transfer rates in gas treating applications.

Staged heating zones reduce viscosity and drive bubbles upward, cutting refining time by 100 times without volatilization.

Centrifugal vanes separate sand from fluid streams in high-pressure vessels, preventing filter plugging and downstream erosion.

Solvent extraction and crystallization bypass chromatographic columns to yield over 98% pure CBD isolate.

Placing the solids separation device at the reaction vessel bottom eliminates sludge flotation caused by rising gases, improving separation efficiency.

Buffered aqueous solutions absorb dilute target gases and shift chemical equilibrium to liberate concentrated species, reducing energy consumption.

A gas diffuser releases effluent gas into the atmosphere before liquid enters a hopper.

Ionic liquid-water mixtures remove carbon dioxide while reducing energy demand and corrosion compared to conventional amine solutions.

Centrifugal separation of gas and liquid enables electromagnetic turbines to reduce parasitic friction and improve power output efficiency.

A cyclonic separator and electrostatic coalescer demulsify crude oil within a storage tank.

A calculation method classifies moisture loss into six components based on wetness fractions at blade cascades.

Cooling liquid mixtures near freezing points induces immiscibility, separating miscible components without complex equipment.

Purified fluid pumps into a dry salt concentrate container to force trapped air out through an air vent.

A gas purification system uses segmented solvent paths to selectively remove hydrogen sulfide from carbon dioxide streams.

Directed flow channels fold back along the vessel length to extend retention time, resolving insufficient phase separation in limited footprints.

A vertical barometric column device converts fluid pressure energy into gravitational potential and thermal energy to achieve stable depressurization.

A cylindrical air oil separator uses a tangential spiral inlet to generate a vortex for fluid separation.

A conical cyclone separator uses a widened tangential inlet to increase flow area and reduce pressure drop in steam drum applications.

A heat extractor unit transfers thermal energy from flue gas to condensed water, enabling efficient heat recovery within power generation systems.

A separation assembly uses baffles and vane sections to direct three-phase fluid flow and increase liquid droplet residence time.