Results 151 to 160 of about 6,694 (211)
Waste-to-energy approach by transforming municipal solid waste into biohydrogen and biomethane through dark fermentation with the yield of biofertilizer. [PDF]
Sci RepSreedharan KV +5 more
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Formate addition enhanced hydrogen production by <i>Thermococcus paralvinellae</i> when grown on brewery wastewater. [PDF]
Front MicrobiolSistu H, Holden JF.
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Process intensification of anaerobic digestion for biohydrogen and methane production from crude glycerol and dairy wastewater using cavitation techniques. [PDF]
RSC AdvIkram MM, Carpenter J, Saharan VK.
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Enzymatic production of biohydrogen
Nature, 2000Although in theory the amount of hydrogen that could be generated from renewable sources of energy such as cellulose (a polymer of glucose) is vast1, only 16–24% of the maximum stoichiometric yield of hydrogen from glucose (about 12 mol H2 per mol glucose) is typically achieved by biological methods2.
J, Woodward +3 more
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Recent advances in biohydrogen research
Pflügers Archiv - European Journal of Physiology, 2000A fundamental and principal difficulty of the future energy supply is that the formation of fossil fuels is much slower than the rate of their exploitation. Therefore the reserves which can be recovered in an energetically feasible manner are shrinking parallel with an increasing world-wide energy demand. Among the alternative energy carriers, hydrogen
K L, Kovács +14 more
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Biohydrogenation in germ-free rats
Journal of Atherosclerosis Research, 1963Summary [1-14C]-Elaidic acid was fed to 5 germ-free rats and 2 control rats. Percent distribution of radioactivity determined by degradation of stearic acid isolated from liver lipids of germ-free animals clearly showed that biohydrogenation of elaidic acid to stearic acid occurred in the germ-free rats.
R, BLOMSTRAND +2 more
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2007
The importance of biological solar energy conversion to hydrogen is discussed from the viewpoint of energy and entropy. The historical view of the nature of the present system clarifies its limitations and the necessity for a brand-new energy accumulation technology, replacing the Industrial Revolution-based one.
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The importance of biological solar energy conversion to hydrogen is discussed from the viewpoint of energy and entropy. The historical view of the nature of the present system clarifies its limitations and the necessity for a brand-new energy accumulation technology, replacing the Industrial Revolution-based one.
openaire +1 more source
2007
Hydrogen produced by microalgae and bacteria is biohydrogen. There are currently no practical biohydrogen production processes. However, several concepts have promise for near- to long-term process development.
openaire +1 more source
Hydrogen produced by microalgae and bacteria is biohydrogen. There are currently no practical biohydrogen production processes. However, several concepts have promise for near- to long-term process development.
openaire +1 more source