Intensification of high-flux Fischer-Tropsch synthesis with axial gradient Co-loading FeCrAl monolith catalysts

Application of Machine Learning to Fischer–Tropsch Synthesis for Cobalt Catalysts

“…The higher the gas velocity that is fed into the reactor, the greater the conversion can be, but there are also limits above which the conversion will stop growing, and sometimes it can even drop. This limit depends on system parameters and reaction rates . Therefore, this parameter cannot be excluded.…”

“…This limit depends on system parameters and reaction rates. 31 Therefore, this parameter cannot be excluded. The H 2 /CO ratio in some of the selected articles was different, which can affect the selectivity of the products.…”

Molten salt synthesis of CrMnFeNi alloy nanopowder passivated by TiOx–ZrOy shell used as a superior catalyst support in liquid-phase hydrogenation

“…To date, FeCrAl alloy supports have been used in several catalytic reactions involving methane oxidation, [3][4][5][6][7][8] selective catalytic reduction (SCR) of NO x , 9 CO oxidation, 10 methanation, 11 reforming, [12][13][14][15][16] and Fischer-Tropsch synthesis. 17 In our previous work, we used an intermetallic compound Ti 6 Si 7 Ni 16 with a high specic surface area (37.5 m 2 g −1 ) as catalyst support in CO methanation. 18 Similar to the FeCrAl alloy support, it was demonstrated by XPS measurements that the surface of Ti 6 Si 7 Ni 16 was passivated by a stable TiO x -SiO y oxidation shell to give Ti 6 Si 7 Ni 16 nanoparticles handled in air while maintaining the high specic surface area.…”