Reprint
Iron and Cobalt Catalysts
Edited by
June 2020
414 pages
- ISBN978-3-03928-388-0 (Paperback)
- ISBN978-3-03928-389-7 (PDF)
This book is a reprint of the Special Issue Iron and Cobalt Catalysts that was published in
Chemistry & Materials Science
Engineering
Summary
Since the turn of the last century when the field of catalysis was born, iron and cobalt have been key players in numerous catalysis processes. These metals, due to their ability to activate CO and CH, haev a major economic impact worldwide. Several industrial processes and synthetic routes use these metals: biomass-to-liquids (BTL), coal-to-liquids (CTL), natural gas-to-liquids (GTL), water-gas-shift, alcohol synthesis, alcohol steam reforming, polymerization processes, cross-coupling reactions, and photocatalyst activated reactions. A vast number of materials are produced from these processes, including oil, lubricants, waxes, diesel and jet fuels, hydrogen (e.g., fuel cell applications), gasoline, rubbers, plastics, alcohols, pharmaceuticals, agrochemicals, feed-stock chemicals, and other alternative materials. However, given the true complexities of the variables involved in these processes, many key mechanistic issues are still not fully defined or understood. This Special Issue of Catalysis will be a collaborative effort to combine current catalysis research on these metals from experimental and theoretical perspectives on both heterogeneous and homogeneous catalysts. We welcome contributions from the catalysis community on catalyst characterization, kinetics, reaction mechanism, reactor development, theoretical modeling, and surface science.
Format
- Paperback
License
© 2020 by the authors; CC BY-NC-ND license
Keywords
polynuclear cobalt complexes; water oxidation; artificial photosynthesis; Fe/Cu catalytic-ceramic-filler; nitrobenzene compounds wastewater; pilot-scale test; biodegradability-improvement; Fischer–Tropsch synthesis (FTS); oxygenates; iron; cobalt; ruthenium; Anderson-Schulz-Flory (ASF) distribution; Fischer–Tropsch; cobalt; catalyst deactivation; potassium; liquid-phase catalytic oxidation; limonene; carvone; zeolitic imidazolate frameworks; Fischer-Tropsch synthesis; chain growth; CO insertion; kinetic isotope effect; DFT; hydrogenation of CO; iron catalysts; syngas; monometallic iron catalysts; Fischer–Tropsch product distribution; reaction mechanism; catalysis; process synthesis and design; catalyst deactivation; energy conversion; iron–cobalt bimetal catalysts; electrochemical application; hydrogen evolution; oxygen evolution; oxygen reduction; RWGS; iron oxides; CO2 conversion; gas-switching; Synthetic natural gas (SNG); Cobalt; Iron; Fischer-Tropsch synthesis; C2–C4 hydrocarbons; paraffin ratio; asymmetric hydrogenation; homogeneous catalysis; iron; structural design; conformational analysis; NMR spectroscopy; DFT; Fischer–Tropsch; cobalt; alumina; strong metal support interactions; CO2 hydrogenation; cobalt; potassium; pressure; temperature; cobalt carboxylate; coating; autoxidation; alkyd; siccative; polymerization; iron; manganese; Fischer–Tropsch synthesis; cobalt; modeling; kinetics; Fischer-Tropsch synthesis; Co; Al2O3; Pt; Cd; In; Sn; hydrocarbon selectivity; synergic effect; GTL; additives; reducibility; XANES; Fischer-Tropsch synthesis; mesoporous silica based catalysts; kinetic studies; 3-D printed microchannel microreactor; cobalt–nickel nanoparticles; cobalt–nickel alloys; cobalt; nickel; alumina; HAADF-STEM; TPR-EXAFS/XANES; Fischer–Tropsch synthesis; CO hydrogenation; CSTR; n/a