The intrinsic kinetics of methanol synthesis in the gas - liquid - solid phase process
starting from carbon monoxide
carbon dioxide and hydrogen over a copper - based catalyst suspended in paraffin as the liquid medium
were studied in a well - mixed
agitated slurry reactor at T = 210-250℃ and p= 3-8 MPa. The results obtained show that methanol can be formed from both carbon monoxide and carbon dioxide hydrogenation reactions. Based on these two reactions a dual -site Langmuir -Hinshelwood mechanism was proposed
and 6 kinetic rate models were derived. After parameter estimation and model discrimination
a final model which gave a good agreement with the experimental results was obtained. The average relative deviations between experimental and calculated conversion rates are 3. 69% and 3. 92% for CO and CO2 respectively.
Thermo-gas-elastic coupling performance analysis of high-speed and high-temperature foil face seals
Advantages and risks of swirling cooling granulation towers
Engineering verification and NO emission control of rare earth Y2O3-based catalytic coatings on a metal fiber surface burner
Recent advances in machine learning for modeling and control of crystallization processes
Controlled synthesis of Bi2MoO6/MoO3 composite fibers via in-situ hydrothermal method and their high-efficiency photocatalytic hydrogen production performance