Microbial BioEnergy: Hydrogen Production [electronic resource] /
Zannoni, Davide.editor.
De Philippis, Roberto.editor.
Solar energy is the source of most of the living organisms on Earth so that the overall efficiency of oxygenic and/or non-oxygenic photosynthesis, when used to generate biomass, bioenergy and biofuels, is a critical point to be considered. This volume in the Advances in Photosynthesis and Respiration series, however, not only provides a comprehensive view of the current understanding of the photosynthetic mechanisms linked to bio-hydrogen production but also extends this view to the anaerobic-dark processes involved in transforming the solar-generated biomass into biogas along with a deep coverage of both structural and functional aspects of the main enzymes involved, such as nitrogenases and hydrogenases. The fifteen chapters of this book offer a broad coverage of this emerging research field and, it is hoped, will be accessible to most advanced undergraduates, graduate students, PhD students and researchers looking to broaden their knowledge on the photosynthetic and fermentation processes applied to hydrogen gas generation. For biologists, biochemists, biophysicists and microbiologists, this volume will provide a solid and quick starting base to get into biotechnological problems of “ microbial bioenergy”. This volume will also be of interest to advanced undergraduates in chemical engineering and biotechnology teachers wanting a single reference book on the latest understanding of the critical aspects of microbial bioenergy production. This volume is dedicated to both Hans Gaffron (1902-1979), who discovered H2-production by green algae under sulfur starvation in 1942, and Howard Gest (1921-2012), who first described H2-production by purple non-photosynthetic bacteria in 1949.
Description based upon print version of record.
Includes bibliographical references and index.
Preface.– 1. Bioenergy from Micro-organisms: an overview; Patrick C. Hallenbeck -- 2. Structural foundations for O2 sensitivity and O2 tolerance in [NiFe]-hydrogenases; Anne Volbeda, Juan C. Fontecilla-Camps.– 3. Engineering hydrogenases for H2 Production: Bolts and Goals; Marc Rousset, Pierre-Pol Liebgott.– 4. H2 production using cyanobacteria/cyanobacterial hydrogenases: from classical to synthetic biology approaches; Catarina C. Pacheco et al -- 5. Hydrogen Production by Water Biophotolysis; Maria L. Ghirardi et al -- 6. Nitrogenase-dependent Hydrogen Production by Cyanobacteria; Hermann Bothe, William E. Newton.– 7. Systems biology of photobiological hydrogen production by purple non-sulfur bacteria; James B. McKinlay.– 8. The Extremely Thermophilic Genus Caldicellulosiruptor: Physiological and Genomic Characteristics for Complex Carbohydrate Conversion to Molecular Hydrogen; Jeffrey V. Zurawski et al.– 9. Members of the Order Thermotogales: From Microbiology to Hydrogen Production; Martina Cappelletti et al.– 10. Bioelectrochemical Systems for Indirect Biohydrogen Production; John M. Regan, Hengjing Yan.– 11. Applications of photofermentative hydrogen production; Inci Eroglu et al.– 12. Photosynthesis and hydrogen production in purple non sulfur bacteria: fundamental and applied aspects; Alessandra Adessi, Roberto De Philippis.– 13. Photobioreactors design for hydrogen production; Fernández-Sevilla José M. Et al -- 14. Immobilization of photosynthetic microorganisms for efficient hydrogen production; Anatoly Tsygankov, Sergey Kosourov.– 15. Hydrogen Production and Possible Impact on Global Energy Demand: Open Problems and Perspectives; Davide Zannoni et al.– Subject Index.– Author Index.
Solar energy is the source of most of the living organisms on Earth so that the overall efficiency of oxygenic and/or non-oxygenic photosynthesis, when used to generate biomass, bioenergy and biofuels, is a critical point to be considered. This volume in the Advances in Photosynthesis and Respiration series, however, not only provides a comprehensive view of the current understanding of the photosynthetic mechanisms linked to bio-hydrogen production but also extends this view to the anaerobic-dark processes involved in transforming the solar-generated biomass into biogas along with a deep coverage of both structural and functional aspects of the main enzymes involved, such as nitrogenases and hydrogenases. The fifteen chapters of this book offer a broad coverage of this emerging research field and, it is hoped, will be accessible to most advanced undergraduates, graduate students, PhD students and researchers looking to broaden their knowledge on the photosynthetic and fermentation processes applied to hydrogen gas generation. For biologists, biochemists, biophysicists and microbiologists, this volume will provide a solid and quick starting base to get into biotechnological problems of “ microbial bioenergy”. This volume will also be of interest to advanced undergraduates in chemical engineering and biotechnology teachers wanting a single reference book on the latest understanding of the critical aspects of microbial bioenergy production. This volume is dedicated to both Hans Gaffron (1902-1979), who discovered H2-production by green algae under sulfur starvation in 1942, and Howard Gest (1921-2012), who first described H2-production by purple non-photosynthetic bacteria in 1949.
Life sciences.
Biotechnology.
Energy.
Renewable energy resources.
Microbiology.
Life Sciences, general.
Biotechnology.
Energy, general.
Renewable and Green Energy.
Microbiology.
Applied Microbiology.