Catalytic Cracking TRIZ Cases

See how magma-reservoir geothermal systems power fractional distillation, cracking, and reformi

See how magma-reservoir geothermal systems power fractional distillation, cracking, and reformi

See how magma-reservoir geothermal systems provide high-temperature heat and reliable power for

See how AlPO-92 metallophosphate composition reduces regeneration temperature while maintaining

See how AlPO-92 metallophosphate molecular sieves enable water vapor desorption below 100°C, re

Thermal vaporization and zeolite catalytic cracking raise biomass slurry distillate yield while lowering carbon intensity and operating cost.

Thermal vaporization and zeolite cracking of biomass slurry raise diesel and kerosene yield while lowering carbon intensity and coke formation.

A two-stage catalytic pyrolysis setup separates carbon-coated catalyst from hydrogen-rich gases to make plastic carbon recovery safer.

High-temperature vaporization and zeolite cracking convert residual biomass slurry into diesel, kerosene, and naphtha with less coke.

Liquid hydrocarbon purge media maintains valve pressure, blocks process fluid ingress, and avoids slurry pump cavitation and coking.

Real-time spectroscopic analysis replaces slow lab testing to control hydrotreater and FCC streams toward target product properties.

A virtual plant model reroutes byproducts between different components to improve recycling efficiency and cost-effectiveness.

Multiple high-temperature gaskets and an L-shaped sliding ring seal FCCU pipe joints while allowing thermal expansion and limiting coke formation.

Real-time compositional sensing and web-based analysis help refinery operators detect process gaps early and act before costs and delays grow.

Models flushing catalyst content and quality across conventional and residue FCC units to improve prediction, allocation, and logistics.

Calibrated spectroscopic analyzers cut lab delays and enable prescriptive hydrotreating and FCC control around target material properties.

Liquid hydrocarbons from a fractionation tower purge the isolation valve under positive pressure, preventing slurry pump cavitation and maintenance.