Phosgene TRIZ Cases
- Phosgene Reactor Cooling Profile for Catalyst Deactivation Control
Raising heat-transfer medium inlet temperature over time slows catalyst deactivation, limits corrosion, and sustains chlorine conversion.
- Reactor Tube Assembly With Offset Fins for Peak Temperature Control
Offset fins create localized heat-exchange zones that control exothermic reaction peaks, helping protect the catalyst and limit phosgene by-products.
- Chlorine Production via Sulfur-Controlled Phosgene Synthesis
Purifying carbon monoxide to under 2000 ppb sulfur prevents catalyst poisoning, eliminating energy-intensive stripping processes.
- Phosgene Production Using Polychlorine Anion Ionic Liquids
Replacing chlorine gas with polychlorine anion compounds eliminates toxic handling risks and intensive heat removal requirements during phosgene synthesis.
- Ionic Liquid Catalyst for Phosgene Synthesis
An ionic organic compound containing monochloride anions catalyzes phosgene production from chlorine and carbon monoxide.
- Phosgene Reactor Tube Bundles for Uniform Heat Transfer
Segmented catalyst tube bundles with baffle-free areas reduce pressure loss and equalize heat transfer coefficients in large-diameter phosgene reactors.
- Phosgene Reactor Annular Cooling Plate Design
Segmented annular cooling spaces enable natural convection heat dissipation in large phosgene reactors, eliminating forced circulation risks.
- Phosgene Reactor Tube Bundle Arrangement for Pressure Loss Reduction
Segmented flow paths and circular baffles equalize heat transfer coefficients, reducing pressure loss and pumping effort in large-scale phosgene production.