Natural Gas Conversion IV

de Pontes, M.; Espinoza, R.L.; Nicolaides, C.P.; Scholtz, J.H.; Scurrell, M.S.

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Table of contents
  • Table of Contentsv
  • Prefacexv
  • Organising and Advisory Committeexvii
  • Financial Supportxviii
  • PART 1: SYNTHESIS OF ALCOHOLS AND OTHER OXYGENATES1
  • Chapter 1. The Use of a Jet-Stirred Continuously Stirred Tank Reactor (CSTR) to Study the Homogeneou3
  • Chapter 2. Synthesis of Alcohols from Syngas Over Ni-Based Catalyst: Comparison with the Hydroformyl9
  • Chapter 3. Zirconia Modified Ru/Al2O3 Catalysts for the Synthesis of Oxygenated Products from Syngas15
  • Chapter 4. Partial Oxidation of Methane to Formaldehyde on Bulk and Silica Supported M0O3 and V2O5 C23
  • Chapter 5. Methanol Synthesis from CO2/H2 Over Pd-Promoted Cu/ZnO/Al2O3 Catalysts: Kinetics and Deac29
  • Chapter 6. About the Mechanism of Methanol Synthesis35
  • Chapter 7. A Novel Approach to the Scientific Design of Oxide Catalysts for the Partial Oxidation of41
  • Chapter 8. Higher Alcohol Synthesis on Iron-Copper-Molybdenum Containing Catalysts47
  • Chapter 9. Links between Reaction Intermediates, Activity and/or Selectivity in Syngas Chemistry55
  • Chapter 10. Low Temperature Direct Oxidation of Methane to Methanol63
  • Chapter 11. Copper-Cobalt Catalysts for Higher Alcohols Synthesis from Syngas67
  • Chapter 12. Custom Made Catalysts for Low Pressure Methanol Synthesis73
  • PART 2: ECONOMICS AND INDUSTRIAL PROCESSES79
  • Chapter 13. Keys to Methane Conversion Technologies81
  • Chapter 14. Economic Route for Natural Gas Conversion to Ethylene and Propylene87
  • Chapter 15. Large-Scale Production of Alternative Synthetic Fuels from Natural Gas99
  • Chapter 16. Dimethyl Ether: A Fuel for the 21st Century117
  • Chapter 17. SOFC Based on Supported Thick-Film Ce(Gd)O2-X Electrolytes127
  • Chapter 18. Use of Natural Gas in a Catalytic Radiant Burner for Low-Emission Heat Production133
  • Chapter 19. Ethermix Process: Synthesis of Ethers from CO/H2139
  • Chapter 20. A Technical and Economic Comparison of Natural Gas and Coal Feedstocks for Fischer-Trops145
  • PART 3: FISCHER-TROPSCH151
  • Chapter 21. Fischer-Tropsch Synthesis on Cobalt Catalysts: Structural Requirements and Reaction Path153
  • Chapter 22. Activity and Selectivity of Iron Fischer-Tropsch Catalysts in a Stirred Tank Slurry Reac163
  • Chapter 23. The Role of Catalyst Activation on the Activity and Attrition of Precipitated Iron Fisch169
  • Chapter 24. Role of CO2 Oxygenates and Alkenes in the Initiation of Chain Growth During the Fischer-175
  • Chapter 25. Kinetic Analysis of Slurry Phase Fischer-Tropsch Synthesis181
  • Chapter 26. Drifts Studies on Co/TiO2 Fischer-Tropsch Catalysts187
  • Chapter 27. Effect of Water Partial Pressure on Steady State Fischer-Tropsch Activity and Selectivit193
  • Chapter 28. Potassium-Promoted Titania-Supported Nickel-Iron Catalysts for Fischer-Tropsch Synthesis201
  • Chapter 29. Cobalt as an Alternative Fischer-Tropsch Catalyst to Iron for the Production of Middle D207
  • Chapter 30. Selection, Design and Scale up of the Fischer-Tropsch Reactor213
  • Chapter 31. Developments in Fischer-Tropsch Technology219
  • Chapter 32. Cobalt on Tungsten-Modified Alumina Catalysts for Olefin Synthesis225
  • Chapter 33. Hydrogenation of CO and CO2 with K and Mn Promoted Iron Catalysts231
  • Chapter 34. Reoxidation of Supported Cobalt Fischer-Tropsch Catalysts237
  • Chapter 35. Fischer-Tropsch Synthesis:Drifts and SIMS Surface Investigation of Co and Co/Ru on Titan243
  • Chapter 36. Nascent Characteristics of Cobalt-Based Fischer-Tropsch Catalysts249
  • PART 4: NOVEL METHANE REACTIONS255
  • Chapter 37. The Conversion of Methane to Benzene Over Mo/ZSM-5 Zeolites in the Absence of an Oxidant257
  • Chapter 38. Methane Homologation on Co Supported Catalysts263
  • Chapter 39. Methane to Vinyl Chloride by "Chloro-Pyrolysis" of Methyl Chloride269
  • Chapter 40. Palladium-Catalyzed Acetic Acid Synthesis from Methane and Carbon Dioxide275
  • Chapter 41. Formation of Ethane and Ethylene by the Reaction of Methane and Carbon Dioxide Over Unsu279
  • Chapter 42. Reaction Characterisation and Mechanism for the Selective Reduction of Nitrogen Oxides b285
  • PART 5: OXIDATIVE COUPLING291
  • Chapter 43. Beneficial Effects of Inorganic Chlorine Grafting on Sm2Sn2O7, Pyrochlore During Oxidati293
  • Chapter 44. Direct Oxidative Conversion of Methane into Higher Hydrocarbons and Oxy-Products in the301
  • Chapter 45. Oxidative Coupling of Methane to Ethylene with 85% Yield in a Gas Recycle Electrocatalyt307
  • Chapter 46. Methane Oxidative Coupling Over Metallo Oxide Catalysts313
  • Chapter 47. Oxidative Coupling of Methane Over Natural Calcium Compounds in Fixed and Fluidized-Bed319
  • Chapter 48. Methane Oxidative Coupling Using Porous Ceramic Membrane Reactors. Effect of an Increase325
  • Chapter 49. Comparative Study on Low Temperature Methane Activation Over Cobalt and Ruthenium Suppor333
  • Chapter 50. A Reaction-Separation Combined OCM Process for High C2 Hydrocarbon Yields339
  • Chapter 51. Structure Sensitivity of Oxidative Coupling of Methane and Dehydrogenation of Ethane Ove345
  • Chapter 52. Kinetic Limit of C2 Hydrocarbons Yield at Gas-Phase Oxidative Coupling of Methane351
  • Chapter 53. Measurement of Kinetic Isotope Effects Over Methane Coupling Catalysts in the Presence o355
  • Chapter 54. Oxidative Dehydrogenation of Ethane at Low Temperature Over Nickel Catalysts: Influence361
  • Chapter 55. Dehydrogenative Coupling of Methane in Thermal Diffusion Reactor with Platinum Impregnat367
  • Chapter 56. Oxidative Coupling of Methane Over Li/Sn/Mgo Catalysts. Use of a Fluidized Bed Reactor a373
  • Chapter 57. Oxidative Coupling of Methane by Water379
  • Chapter 58. Effect of Gas Phase Reactions in the Oxidative Coupling of Methane383
  • Chapter 59. Oxidative Methane Coupling. Prospects and Conceptual Design for Co-Generation of Olefins389
  • PART 6: PARTIAL OXIDATION395
  • Chapter 60. Hydrogen Production on Nickel-Monolith Structures by Partial Oxidation of Methane at Hig397
  • Chapter 61. New Highly Active Catalysts in Direct Partial Oxidation of Methane to Synthesis Gas403
  • Chapter 62. Development of Dense Ceramic Membranes for Methane Conversion409
  • Chapter 63. Partial Oxidation of Methane to Synthesis Gas - Experimental and Modelling Studies415
  • Chapter 64. Catalytic Partial Oxidation of Methane to Synthesis Gas -Catalysis and Reaction Engineer421
  • Chapter 65. Syngas Production by Partial Oxidation of Methane: Dependence of Reactivity on Catalyst429
  • Chapter 66. Partial Oxidation of Methane to Synthesis Gas Over Supported Ruthenium Catalysts435
  • Chapter 67. Partial Oxidation of Methane to Syngas Over Ni-Loaded Ultrastable HY Zeolite Catalysts441
  • Chapter 68. Partial Oxidation of Methane Over Nickel- and Cobalt-Based Catalysts447
  • Chapter 69. Internal and External Transport Effects During the Oxidative Reforming of Methane on a C455
  • Chapter 70. High Yield Syngas Formation by Partial Oxidation of Methane Over Co-Alumina Catalysts461
  • Chapter 71. Effect of La2O3 Added to NiO/Al2O3 Catalyst on Partial Oxidation of Methane to Syngas467
  • Chapter 72. The Role of Catalysis in the Conversion of Natural Gas for Power Generation473
  • PART 7: REFORMING489
  • Chapter 73. A Comparison of Nickel and Rhodium Catalysts for the Reforming of Methane by Carbon Diox491
  • Chapter 74. The Influence of Rare Earth Oxides on Ni/Al2O3 Catalysts During CO2 Reforming of CH4497
  • Chapter 75. Studies on Ni/Al2O3 Catalyst for CO2 Reforming of Ch4 to Synthesis Gas - A Combined Rese503
  • Chapter 76. Performance of Ni/La2O3 Catalyst in Carbon Dioxide Reforming of Methane to Synthesis Gas511
  • Chapter 77. A New Route to Syngas - Combined Conversion of Carbon Dioxide and Ethane on Zeolites517
  • Chapter 78. Reaction of CH4 with CO2 and H2O Over Supported Ir Catalyst525
  • Chapter 79. The Production of Synthesis Gas by the Redox of Cerium Oxide531
  • Chapter 80. The Development of Platinum-Zirconia Catalysts for the CO2 Reforming of Methane537
  • Chapter 81. Low-Temperature Syngas Formation by CO2 Reforming of Methane in a Hydrogen-Permselective547
  • Chapter 82. CO2 Reforming of Methane in a Membrane Reactor555
  • Chapter 83. Membrane Reactors - A New Technology for Production of Synthesis Gas by Steam Reforming561
  • Chapter 84. A Gas Fired Heat-Pipe Reformer for Small-Scale Hydrogen Production567
  • AUTHOR INDEX573
Book details
  • Vendor Elsevier S & T
  • SKU 9780444823526
  • ISBN-13 9780080537320
  • Author de Pontes, M.; Espinoza, R.L.; Nicolaides, C.P.; Scholtz, J.H.; Scurrell, M.S.
  • Category Science
  • Subject Energy

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The Fourth International Natural Gas Conversion Symposium was attended by 180 delegates from 25 countries. Representation was evenly balanced between industry and academia. The opening address was delivered by Mr Roy Pithey, Chairman of South Africa's Central Energy Fund, who dealt with the importance and utilisation of natural gas in sub-Saharan Africa. Plenary lectures were presented by Professors E. Iglesia (Catalyst design and selectivity for F-T synthesis) and E.E. Wolf (Oxidative Coupling Methane). A number of keynote addresses were delivered:

- Dr T. Fleisch (Amoco) described the use of DME as a transport fuel and the work which has been carried out in this area in collaboration with Haldor Topsoe

- Professor L.D. Schmidt (Univ. of Minnesota) explained his work on the direct conversion of methane at high velocities

- Dr B. Jager (SASTECH R & D) reported on the recent developments in slurry and fluidized bed F-T reactors as SASOL

- Dr J. Rostrup-Nielsen (Haldor Topsoe) discussed the role of catalysis in the conversion of natural gas for power generation.

Areas signalled for further research were: direct conversion of methane to intermediate monomers; methanol conversion to higher alcohols; CO/H2 conversion in a commercially viable route to higher alcohols; and CO/H2 conversion to high quality gasoline. It is obvious that such developments would fit into the energy cycle which has moved from wood, to coal, to oil, to gas, and will most probably move to hydrogen.