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| Heterogeneous catalytic reactions with CO[subscript 2] : status and perspectives | 1 | ||||||||||||
| Chemicals from CO[subscript 2] via heterogeneous catalysis at moderate conditions | 9 | ||||||||||||
| Synthetic hydrocarbon fuels and CO[subscript 2] utilization | 17 | ||||||||||||
| Design of copper based hybrid catalysts for CO[subscript 2] hydrogenation | 25 | ||||||||||||
| Plasma enhanced preparation of highly dispersed Ni/Al[subscript 2]O[subscript 3] catalyst for CO[subscript 2] reforming of methane | 33 | ||||||||||||
| Synthesis of dimethyl carbonate by transesterification over CaO/carbon solid base catalysts | 41 | ||||||||||||
| The synthesis of clean fuels by F-T reaction from CO[subscript 2] rich biosyngas | 47 | ||||||||||||
| Reduction of carbon dioxide using metal powders | 55 | ||||||||||||
| Catalytic hydrogenation of CO[subscript 2] to methanol over Pd/ZnO : metalsupport interaction | 61 | ||||||||||||
| CAMERE process for methanol synthesis from CO[subscript 2] hydrogenation | 67 | ||||||||||||
| Product distribution analysis for catalytic reduction of CO[subscript 2] in a bench scale fixed bed reactor | 73 | ||||||||||||
| Process evaluation of biomass to liquid fuel production system with gasification and liquid fuel synthesis | 79 | ||||||||||||
| Novel catalysts for gasification of biomass with high energy efficiency | 85 | ||||||||||||
| Improving carbon utilization in biomass conversion to synthetic hydrocarbons via Fischer-Tropsch synthesis | 91 | ||||||||||||
| Fischer-Tropsch synthesis with CO[subscript 2]-containing syngas from biomass - kinetic analysis of fixed bed reactor model experiments | 97 | ||||||||||||
| Hydrogen production from woody biomass by novel gasification using CO[subscript 2] sorbent | 103 | ||||||||||||
| A feasibility study of synthesis of oxygenates directly from methane and carbon dioxide using dielectric-barrier discharges | 109 | ||||||||||||
| Synthesis gas production from CO[subscript 2] and H[subscript 2]O with nonthermal plasma | 119 | ||||||||||||
| CO[subscript 2] reduction by blast furnace top gas recycling combined with waste hydrocarbon gasification | 125 | ||||||||||||
| Microwave-assisted reactions of oxiranes with carbon dioxide in ionic liquids | 131 | ||||||||||||
| CO[subscript 2] reforming of n-heptane on a Ni/Al[subscript 2]O[subscript 3] catalyst | 137 | ||||||||||||
| Hexaaluminate catalysts of the novel process of syngas production through catalytic oxidation and steam-CO[subscript 2] reforming of methane | 141 | ||||||||||||
| Redox behavior of Cu-ferrite for CO[subscript 2] decomposition | 145 | ||||||||||||
| CO[subscript 2] reforming by CH[subscript 4] over Ni-YSZ modified catalysts | 149 | ||||||||||||
| The interaction between CO[subscript 2] and CH[subscript 4] on Ru-Co-catalysts | 153 | ||||||||||||
| Selective formation of light olefins by the cracking of heavy naphtha over acid catalysts | 157 | ||||||||||||
| Effect of additives and a preparation method on catalytic activity of Cu/ZnO/ZrO[subscript 2] system in the carbon dioxide hydrogenation to methanol | 161 | ||||||||||||
| Selective formation of ethylene carbonate from ethylene glycol and carbon dioxide over CeO[subscript 2]-ZrO[subscript 2] solid solution catalysts | 165 | ||||||||||||
| Effects of palladium particle size in hydrogenation of carbon dioxide to methanol over Pd/ZnO catalysts | 169 | ||||||||||||
| Ga, Mn and Mg promoted copper/zinc/zirconia - catalysts for hydrogenation of carbon dioxide to methanol | 173 | ||||||||||||
| Catalytic hydrogenation of carbon dioxide to light olefins in a fluidized bed reactor | 177 | ||||||||||||
| Synthesis of dimethyl carbonate from CH[subscript 3]OH and CO[subscript 2] with Ce[subscript 1-x]Zr[subscript x]O[subscript 2] catalysts | 181 | ||||||||||||
| The effect of catalyst pore structure change into the selectivity and conversion of CO[subscript 2] hydrogenation over Fe-K/[gamma]-Al[subscript 2]O[subscript 3] | 185 | ||||||||||||
| Tri-reforming of CH[subscript 4] using CO[subscript 2] for production of synthesis gas to dimethyl ether | 189 | ||||||||||||
| Carbon dioxide reduction technology with SOFC system | 193 | ||||||||||||
| Synthesis of dimethyl carbonate from urea and methanol over metal oxides | 197 | ||||||||||||
| Development of heterogeneous catalyst system for esterification of free fatty acid contained in used vegetable oil | 201 | ||||||||||||
| Investigation of synthesis gas production from natural gas and CO[subscript 2] by microwave plasma technology | 205 | ||||||||||||
| CO[subscript 2] hydrate kinetics in electrolyte solutions containing clay minerals | 209 | ||||||||||||
| New catalysts for the conversion of urea into carbamates and carbonates with C1 and C2 alcohols | 213 | ||||||||||||
| Group 5 (V, Nb and Ta) element-alkoxides as catalysts in the trans-esterification of ethylene-carbonate with methanol, ethanol and allyl alcohol | 221 | ||||||||||||
| Hydroformylation with carbon dioxide using ionic liquid media | 227 | ||||||||||||
| Ionic liquid-derived imidazolium metal halides for the coupling reaction of ethylene oxide and CO[subscript 2] | 233 | ||||||||||||
| Aliphatic polycarbonate synthesis by alternating copolymerization of carbon dioxide with cyclohexene oxide using heterogeneous zinc complex | 239 | ||||||||||||
| Alternating copolymerization of carbon dioxide and epoxide [1] aluminum Schiff base complex - quartenary ammonium salt systems as novel initiators | 243ALIGN="RIGHT">347
Read Reviews for Carbon Dioxide Utilization for Global Sustainability: Proceedings of the 7th International Conference on Carbon Dioxide Utilization, Seoul, Korea, October 12-16 2003 Write review
Nancy Smith reviewed Carbon Dioxide Utilization for Global Sustainability: Proceedings of the 7th International Conference on Carbon Dioxide Utilization, Seoul, Korea, October 12-16 2003 on September 13, 2016 Carbon Dioxide Utilization for Global Sustainability
As the description promises, it provides an in-depth look at how FTIR works, without launching into detailed technical explanations of how to do the transforms (interesting, but not applicable to the text in question). Information is presented in a way that is clear and easy to follow (as I would expect from the CRC press!), and the explanations are simple enough that even those that are unfamiliar with how FTIR works can glean much from the text. It's not the first book I would recommend for those interested in FTIR, but it's a great resource for those working in the lab who need to look something up quickly.
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