Catalysis for Renewables: From Feedstock to Energy ProductionGabriele Centi, Rutger A. van Santen With its focus on catalysis and addressing two very hot and timely topics with significant implications for our future lives, this will be a white book in the field. The authority behind this practical work is the IDECAT Network of Excellence, and the authors here outline how the use of catalysis will promote the more extensive use of renewable feedstocks in chemical and energy production. They present the latest applications, their applicability and results, making this a ready reference for researchers and engineers working in catalysis, chemistry, and industrial processes wishing to analyze options, outlooks and opportunities in the field. |
Contents
III | 1 |
IV | 5 |
V | 13 |
VI | 18 |
VII | 19 |
VIII | 21 |
IX | 22 |
X | 24 |
CXXIII | 209 |
CXXIV | 210 |
CXXVI | 211 |
CXXVII | 212 |
CXXVIII | 213 |
CXXIX | 214 |
CXXX | 216 |
CXXXI | 217 |
XI | 25 |
XII | 26 |
XIII | 27 |
XIV | 28 |
XV | 30 |
XVI | 32 |
XVIII | 33 |
XIX | 35 |
XXI | 37 |
XXIII | 38 |
XXIV | 39 |
XXV | 40 |
XXVI | 41 |
XXVII | 42 |
XXX | 43 |
XXXI | 44 |
XXXII | 46 |
XXXIV | 48 |
XXXV | 49 |
XXXVI | 53 |
XXXVII | 55 |
XXXVIII | 56 |
XXXIX | 57 |
XL | 58 |
XLI | 65 |
XLII | 66 |
XLIII | 70 |
XLIV | 72 |
XLV | 75 |
XLVI | 77 |
XLVII | 78 |
XLVIII | 79 |
XLIX | 82 |
L | 83 |
LI | 84 |
LII | 86 |
LIII | 88 |
LV | 89 |
LVI | 91 |
LVII | 92 |
LVIII | 93 |
LIX | 95 |
LXI | 96 |
LXII | 97 |
LXIV | 101 |
LXV | 103 |
LXVII | 105 |
LXVIII | 108 |
LXIX | 112 |
LXXI | 113 |
LXXII | 115 |
LXXIII | 116 |
LXXIV | 117 |
LXXV | 119 |
LXXVI | 120 |
LXXVII | 122 |
LXXVIII | 125 |
LXXIX | 126 |
LXXX | 127 |
LXXXI | 129 |
LXXXII | 130 |
LXXXIII | 131 |
LXXXIV | 132 |
LXXXV | 134 |
LXXXVI | 135 |
LXXXVII | 136 |
LXXXVIII | 137 |
LXXXIX | 139 |
XC | 140 |
XCI | 141 |
XCIII | 147 |
XCIV | 148 |
XCV | 149 |
XCVI | 154 |
XCVII | 158 |
XCVIII | 161 |
C | 163 |
CI | 164 |
CII | 165 |
CIII | 166 |
CIV | 169 |
CVI | 170 |
CVII | 173 |
CVIII | 175 |
CIX | 176 |
CX | 177 |
CXI | 180 |
CXIII | 183 |
CXIV | 188 |
CXV | 193 |
CXVI | 195 |
CXVII | 196 |
CXVIII | 199 |
CXIX | 200 |
CXX | 203 |
CXXI | 205 |
CXXXII | 218 |
CXXXIII | 219 |
CXXXIV | 220 |
CXXXV | 221 |
CXXXVI | 223 |
CXXXVII | 224 |
CXXXVIII | 226 |
CXXXIX | 228 |
CXL | 231 |
CXLI | 233 |
CXLII | 234 |
CXLIII | 237 |
CXLIV | 240 |
CXLV | 241 |
CXLVI | 248 |
CXLVII | 249 |
CXLVIII | 250 |
CXLIX | 251 |
CL | 252 |
CLI | 257 |
CLII | 259 |
CLIII | 260 |
CLIV | 261 |
CLV | 264 |
CLVI | 265 |
CLVII | 266 |
CLVIII | 269 |
CLIX | 270 |
CLX | 271 |
CLXI | 273 |
CLXII | 274 |
CLXIV | 275 |
CLXV | 276 |
CLXVI | 277 |
CLXVII | 278 |
CLXVIII | 280 |
CLXIX | 281 |
CLXX | 289 |
CLXXI | 291 |
CLXXII | 292 |
CLXXIV | 293 |
CLXXV | 294 |
CLXXVI | 295 |
CLXXVII | 296 |
CLXXVIII | 299 |
CLXXIX | 300 |
CLXXX | 301 |
CLXXXI | 302 |
CLXXXII | 304 |
CLXXXIII | 305 |
CLXXXIV | 306 |
CLXXXV | 307 |
CLXXXVI | 310 |
CLXXXVII | 313 |
CLXXXVIII | 314 |
CLXXXIX | 315 |
CXC | 319 |
CXCI | 326 |
CXCII | 333 |
CXCIII | 337 |
CXCIV | 339 |
CXCV | 340 |
CXCVI | 341 |
CXCVII | 342 |
CXCVIII | 343 |
CXCIX | 345 |
CC | 347 |
CCI | 348 |
CCII | 349 |
CCIV | 351 |
CCV | 354 |
CCVI | 357 |
CCVII | 360 |
CCVIII | 361 |
CCIX | 362 |
CCXI | 366 |
CCXII | 367 |
CCXIII | 371 |
CCXIV | 372 |
CCXV | 373 |
CCXVI | 375 |
CCXVII | 377 |
CCXVIII | 379 |
CCXIX | 387 |
CCXX | 388 |
CCXXI | 389 |
CCXXII | 390 |
CCXXIII | 392 |
CCXXIV | 394 |
CCXXV | 399 |
CCXXVI | 400 |
CCXXVII | 403 |
CCXXVIII | 405 |
CCXXIX | 411 |
| 413 | |
Other editions - View all
Catalysis for Renewables: From Feedstock to Energy Production Gabriele Centi,Rutger A. van Santen No preview available - 2008 |
Common terms and phrases
activity anode Appl applications aqueous band gap Bekkum bio-oil biodiesel bioethanol biofuels biomass conversion biorefinery carbohydrates carbon carriers cascade Catal Catalysis for Renewables catalysts cathode cellulose Chem chemical chemistry CO2 emissions combustion components compounds cost derived diesel efficiency electricity electrolyte electron energy enzymatic enzymes epoxidation esters ethanol ethers fatty acid fatty alcohol feedstock fermentation formation fossil fuels fraction fuel cell gasification gasoline glucose glycerol heat hemicellulose hydrocarbons hydrogen production hydrogenolysis hydrolysis improved increase industrial intermediates isobutene Kieboom kinetic layer lignin lignocellulose liquid materials membrane metal methane methyl mixture molecules obtained OH OH organic oxidation oxygen photocatalytic plant polymer polyols potential pyrolysis oil ratio reaction reactor recombination redox reduced routes Scheme selectivity semiconductor SOFC solar solid solvent starch steam reforming structure sugars sulfur surface surfactants syngas synthesis gas temperature thermal TiO2 tion transport Weinheim Wiley-VCH yield zeolites


