Liquid heat transfer medium enables catalytic 1,2-dichloroethane cracking at lower temperatures to cut CO2 emissions and operating costs.
A catalytic process converts CF3CF=CHF to CF3CF=CH2 using hydrogenation and dehydrohalogenation steps.
A continuous reaction apparatus uses a rotary cutting component and offset flow deflector plates to enhance mixing efficiency.
Activated carbon-supported barium salt catalyst enables efficient vinyl chloride synthesis from acetylene and dichloroethane.
Dehydrofluorinating HFC-245eb with fluorided alumina yields HFC-1234yf and HFC-1234ze, enabling recovery via HF azeotropes to address low ozone depletion needs.
Composite metal halide catalysts suppress competing dehydrofluorination reactions, boosting single-pass productivity and yield of fluorinated olefins.
Fluorinate HCFC-142 with excess hydrogen fluoride over chromium oxide catalysts to lower production costs compared to chlorotrifluoroethylene routes.