A self-stripping cyclone introduces stripping fluid through wall perforations to recover vapors from catalyst particles.
Sealed cyclone vents isolate vapor streams within a single vessel, preventing cross-talk that causes thermal cracking and reduces gasoline yield.
Specific inlet duct ratios minimize pressure drop and leakage, enabling compact cyclone designs that sustain separation performance at higher gas speeds.
Optimized cyclone geometries maximize fine particle agglomeration through precise dimensional ratios, addressing low efficiency for submicrometric particles.
A cyclonic de-sander vessel uses a funnel to create a pressure drop that separates sand from fluid streams.
Cyclonic separation removes moisture from sulphur gas streams, resolving contradictions in gaseous stream purification.
Multiple side wall inlet ducts induce tangential flow in a cyclone separator, reducing abrasive wear and simplifying maintenance.
A cross-flow filtration system integrates a membrane filter with a particulate settling zone to separate liquid streams.
Integrating a plasma torch with a hydrocyclone reduces operational costs and thermal stress while enhancing oxidation and separation efficiency.
A centrifugal separator vestibular chamber distributes fluid flow uniformly through a horizontally disposed plate and spin structure.
Helical guide vanes transform turbulent flow into laminar patterns, ensuring complete oil separation from water discharge.