
| Renewable biological systems for alternative sustainable energy production. (FAO Agricultural Services Bulletin - 128) (1997) |
| (introduction...) |
| Acknowledgments |
| Contributors |
| Foreword |
| Summary |
| Chapter 1 - Biological energy production |
![]() | 1.1 Energy and environmental issues |
![]() | 1.2 Photosynthesis and biomass |
![]() | 1.2.1 Photosynthetic efficiency |
![]() | 1.2.2 Biomass wastes and their conversion |
![]() | 1.2.3 Fuel production via microalgal CO2 fixation |
![]() | 1.3 General problems |
![]() | References |
| Chapter 2 - Energy conversion by photosynthetic organisms |
![]() | (introduction...) |
![]() | 2.1 Photosynthetic capture of solar energy |
![]() | 2.1.1 Solar energy |
![]() | 2.1.2 Why is biotechnology now applied to energy technology? |
![]() | 2.2 Photosynthesis mechanisms |
![]() | (introduction...) |
![]() | 2.2.1 Plant photosynthesis |
![]() | 2.2.2 Bacterial photosynthesis |
![]() | 2.3 Hydrogen production through solar energy conversions |
![]() | (introduction...) |
![]() | 2.3.1 Cyanobacterial hydrogen production (plant-type photosynthesis) |
![]() | 2.3.2 Bacterial hydrogen production (bacterial-type photosynthesis) |
![]() | 2.3.3 Use of photosynthesized proteins in photoelectric conversion elements |
![]() | References |
| Chapter 3 - Production of fuel alcohol from cellulosic biomass |
![]() | 3.1 Introduction |
![]() | 3.2 Cellulase production |
![]() | 3.2.1 Cellulase |
![]() | 3.2.2 Screening of cellulase-producing microorganisms |
![]() | 3.2.3 Strain improvement for cellulase production |
![]() | (introduction...) |
![]() | 3.2.3.1 Development of a process for high-titer cellulase production |
![]() | 3.2.3.2 Cellulase production at low cost |
![]() | 3.2.3.3 Potential for mass production of cellulase |
![]() | 3.3 Saccharification of cellulosic waste materials |
![]() | 3.3.1 Pre-treatment of cellulosic waste |
![]() | 3.3.2 Saccharification of cellulosic waste |
![]() | 3.3.2.1 Saccharification |
![]() | 3.3.2.2 Recovery and re-use of cellulase |
![]() | 3.3.2.3 Sugar concentration using reverse osmosis |
![]() | 3.4 Use of immobilized yeast cells in alcohol fermentation's |
![]() | (introduction...) |
![]() | 3.4.1 Preparation of immobilized yeast cells |
![]() | 3.4.2 Continuous plant operation using immobilized yeast cells |
![]() | 3.4.3 Fermentation processes used in ethanol production |
![]() | 3.4.4 Flash fermentation using immobilized yeast cells |
![]() | 3.5 Alcohol production using an integrated pilot plant |
![]() | (introduction...) |
![]() | 3.5.1 Outline |
![]() | 3.5.2 Pre-treatment of cellulosic biomass |
![]() | 3.5.3 Cellulase production |
![]() | 3.5.4 Saccharification of biomass |
![]() | 3.5.5 Enzyme recovery from biomass |
![]() | 3.5.6 Concentration of sugar solutions |
![]() | 3.5.7 Alcohol fermentation |
![]() | 3.5.8 Alcohol recovery |
![]() | 3.6 Feasibility study |
![]() | 3.7 Conclusion |
![]() | References |
| Chapter 4 - Methane production |
![]() | (introduction...) |
![]() | 4.1 Microbial consortia and biological aspects of methane fermentation |
![]() | (introduction...) |
![]() | 4.1.1 Hydrolysis and acidogenesis |
![]() | 4.1.2 Acetogenesis and dehydrogenation |
![]() | 4.1.3 Methanogenesis |
![]() | 4.2 Molecular biology of methanogens |
![]() | (introduction...) |
![]() | 4.2.1 Genetic markers |
![]() | 4.2.2 Molecular cloning of methanogenic genes |
![]() | 4.2.3 Genetic transformations |
![]() | 4.3 Developments in bioreactor technology |
![]() | (introduction...) |
![]() | 4.3.1 Upflow anaerobic sludge blanket (UASB) |
![]() | 4.3.2 Upflow anaerobic filter process (UAFP) |
![]() | 4.3.3 Anaerobic fluidized-bed reactor (AFBR) |
![]() | 4.3.4 Two-phase methane fermentation processes |
![]() | References |
| Chapter 5 - Hydrogen production |
![]() | 5.1 Introduction |
![]() | 5.2 Biophotolysis of water by microalgae and cyanobacteria |
![]() | (introduction...) |
![]() | 5.2.1 Hydrogenase-dependent hydrogen production |
![]() | 5.2.2 Nitrogenase-dependent hydrogen production |
![]() | 5.3 Hydrogen from organic compounds |
![]() | 5.3.1 Hydrogen production by photosynthetic bacteria |
![]() | 5.3.2 Combined photosynthetic and anaerobic and bacterial hydrogen production |
![]() | 5.4 Enhancement of hydrogen-producing capabilities through genetic engineering |
![]() | 5.5 Research and development on biological hydrogen production |
![]() | 5.6 Future prospects |
![]() | References |
| Chapter 6 - Oil production |
![]() | 6.1 Oil substitutes from biomass |
![]() | 6.2 Microalgae as biological sources of lipids and hydrocarbons |
![]() | 6.3 Thermochemical liquefaction of microalgae |
![]() | 6.3.1 Liquid fuels from microalgal biomass |
![]() | 6.3.2 Cultivation of microalgae |
![]() | 6.3.3 Liquefaction of microalgae |
![]() | 6.4 Algal hydrogenation |
![]() | 6.5 Future prospects |
![]() | References |
| Chapter 7 - The future of renewable biological energy systems |
![]() | 7.1 Introduction |
![]() | 7.2 Biomass production potential and efficiencies |
![]() | 7.3 Fuel alcohol production from biomass |
![]() | 7.4 Methane fermentations |
![]() | 7.5 Fuels derived from microalgae |
![]() | 7.6 Conclusions |
![]() | References |
| FAO technical papers |
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1. |
McCarty, P.L., In "Anaerobic Digestion 1981" Eds. Hughes, D.E. et.al., 3-22 (1982) Elsevier Biomedical Press, Amsterdam, New York, Oxford. |
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2. |
Zeikus, J.G., Ann. Rev. Microbiol, 34, 423-464 (1980). |
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3. |
Boone, D.R. et al., Appl. Environ. Microbiol., 40, 626-632 (1980). |
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4. |
McInerney, M.J. et al., Appl. Environ. Microbiol., 41, 1029-1039 (1981). |
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5. |
Thauer, R.K. et al., Bact. Rev., 41, 100-180 (1977). |
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6. |
Hungate, R.E., Methods in Microbiol., 3B, 117-132 (1969). |
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7. |
Wolfe, R.S., Trends in Biochem. Sci., 10, 396-399 (1985). |
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8. |
Thauer, R.K. et.al., Ann. Rev. Microbiol., 43, 43-67 (1989). |
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9. |
Leisinger, T. et.al., In "Genetics and Molecular Biology of Anaerobic Bacteria" Ed. Sebald, M., 1-12 (1993) Springer-Verlag, New York, Berlin, Heidelberg, London, Paris, Tokyo, Hong Kong, Barcelona, Budapest. |
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10. |
Gernhardt, P. et.al., Mol. Gen. Genet., 221, 273-279 (1990). |
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11. |
Sandbeck, K.A. et.al., Appl. Environ. Microbiol., 57, 2762-2763 (1991). |
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12. |
Micheletti, P.A. et.al., J. Bacteriol, 173, 3414-3418 (1991). |
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13. |
Lettinga, G. et.al., Biotech. Bioeng., 22, 699-734 (1980). |
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14. |
Young, J.C. et.al., J. Wat. Poll. Contr. Fed., 41, 160-173 (1969). |
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15. |
Jeris, J.S., Wat. Sci. Technol., 15, 167-187 (1983). |
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16. |
Pohland, F.G. et.al., Environ. Lett., 1, 255-266 (1971). |
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17. |
Bowker, R.P.G., Environ. Progress, 2, 235-242 (1983). |
Reviews recommended
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1. |
Nagai, S. and Nishio, N., In "Handbook of Heat and Mass Transfer, vol. 3 Catalysis, Kinetics and Reactor Engineering" Ed. Cheremisinoff, N.P., 701-752 (1986) Gulf Publishing Corn., Houston, London, Paris, Tokyo. |
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2. |
Kida, K. et al., In "Handbook of Heat and Mass Transfer, vol.3 Catalysis, Kinetics and Reactor Engineering" Ed. Cheremisinoff, N.P., 773-787 (1986) Gulf Publishing Corn., Houston, London, Paris, Tokyo. |
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3. |
Palmer, J.R. and Reeve, J.N., In "Genetics and Molecular Biology of Anaerobic Bacteria" Ed. Sebald, M., 13-35 (1993) Springer-Verlag, New York, Berlin, Heidelberg, London, Paris, Tokyo, Hong Kong, Barcelona, Budapest. |