Liquid Degasification TRIZ Cases

Segmented deaerator shafts optimize fluid flow and torque transfer, resolving efficiency bottlenecks in integrated drive generator lubrication systems.

Segmented screw flights with stationary seals decouple plasticizing and degassing zones, eliminating contamination from direct material flow.

Carbon dioxide and inert gas lower H2S partial pressure in the stripper, improving separation efficiency while reducing utility consumption.

Helical flighting generates centrifugal force to separate gases and solids, preventing pump damage and extending run time between failures.

Centrifugal forces from a fluid jet separate four phases in compact equipment while recovering shaft power to reduce operational costs.

Axial flow cyclones generate centrifugal forces to remove bulk liquid at the inlet, reducing entrainment and pressure drop in vertical scrubbers.

Dynamic valve control on the leak off line maintains constant seal pressure, resolving steam waste from varying self-sealing load points.

Integrated blood treatment module uses a hydrophobic membrane to degas fluid without an air-blood interface.

Progressive pressure increase across series reactors minimizes unwanted by-products while eliminating pump requirements through gravity-driven flow.

Polyacrylate polymers reduce foam generation in diesel fuels by balancing solubility and surface tension properties.

Segmenting the scrubbing process into a dedicated carbonyl stage reduces capital and operating costs by limiting expensive heating treatment.

A curvilinear flow path generates a secondary perpendicular flow field to separate gas and liquid phases within the separator.

A vertical stack with a packed bed and distributor separates sulfur compounds from vent gas streams.

Recirculating heater treater gas to the stabilizer tower increases stabilized oil volumetric flow rate while reducing fugitive emissions.

A fuel system vent tank processes ullage gas through a dehumidifying device driven by a pump maintaining higher pressure in the fuel tank space.

Segmented absorbent regenerator mixes branched rich solution with semi-lean fluid to prevent excessive CO2 dissipation and reduce water vapor consumption.

Merging the separator and compressor into one unit reduces ground control volume and pressure loss while protecting against liquid intrusion.

A molten aluminum alloy bath breaks down plastics, electronics, and propellants into elemental components.

A lower filter tank uses air stones to aerate water passing through a filter sock, supporting a clean-up crew that breaks down organic matter.

Segmented inner reservoir and venturi outlet homogenize multi-phase fluid streams without blockage.

Ultrasonic vibration disrupts air bubble coalescence in the separation chamber, ensuring complete air removal before fluid delivery.

Routing untreated gas to a low pressure absorber reduces sulfur emissions during IGCC transient operations.

A CO2 recovery apparatus extracts a portion of rich solvent to bypass the heat exchanger and supply it directly into the regenerator top.

A floating gas trap agitates drilling fluids to release captured gases through a dedicated exhaust port.

Horizontal inlet cans use centrifugal force to separate gas from liquid without static head, preventing entrainment.

A vapor liquid separation apparatus uses a stripping gas inlet and internal contact surfaces to enhance hydrocarbon component separation within the flash drum.

A cyclone liquid-vapor separator uses partition walls to prevent mist from rising through the vapor outlet.

Spherical separator design withstands deepwater pressure while separating multiphase fluids via gravity.

Inline removal device creates quiet zones to settle dirt and rise gas bubbles, preventing clogging in conduit systems.

Decomposing ammonium salts in the organic phase prevents dicyanobenzene loss from cyanobenzamide formation.

Segmented divergent zones in the nozzle minimize backmixing and reduce energy consumption during volatile component removal.

A CO2 absorber uses an ammonia-comprising medium to capture emissions, and a downstream condenser recovers ammonia slip to reduce chemical loss.

A liquid cooling method uses volatile component vaporization to lower temperature while introducing a non-volatile gas to contact the fluid.

A media-free water purification system combines reverse osmosis, ultraviolet light, and electrodeionization to produce high purity water.

A pure water production method adjusts inflow pH using a control device to maintain permeated water quality.

A cylindrical air trap uses tangential inlet pipes to force liquid into a spiral path, separating gas bubbles via centrifugal forces.

Angled inlet and vent projection minimize pressure drop and blood trauma while maintaining flow rate in pediatric bypass circuits.

A gas extraction system channels fluid and bubbles into a reservoir, resolving the contradiction between bubble removal efficiency and dynamic pressure losses.

An external gas outlet and dedicated liquid flow paths prevent oil entrainment and reduce disturbance in the oil tank of gas turbine engines.

Converging orifice passage separates entrained gas from liquid by creating pressure changes, resolving vapor lock issues in submersible well pumps.

Dual packed bed scrubber saturates syngas with water vapor while extracting hydrocarbon byproducts, resolving ash removal and purity trade-offs.

A multi-phase flow separator uses a vapor lock to decelerate fluid velocity within a labyrinthine enclosure.

A spherical separator uses centrifugal and Coriolis forces to separate solid particles from fluid streams.

Vacuum stripper operation lowers temperatures during ammonia removal, improving energy efficiency while maintaining reliable CO2 capture performance.

High shear radial crossflow filtration prevents filter clogging during continuous three-way phase separation of wastewater, eliminating chemical pretreatment needs.

An inclined desanding vessel separates solid particulates from multiphase fluid streams using gravity settling in a dedicated belly portion.

A separation device removes gas bubbles from liquid perfusion paths using buoyancy and smooth channel geometry.

A compact air flow evaporation system vaporizes micron-size water particles using dynamic airflow and low-level thermal energy.

A distillation probe uses axially-spaced baffles and cooling conduits to condense hydrocarbon contaminants from gas streams.