Jarry, Bruno; Caseau, Paul; Fillet, Pierre; Charentenay, Francois de; Frybourg, Michel; Lunel, Jean; Choux, Gerard; Girard, Michel; Grenier, Jean; Zagraib, Azid
Academie des Technologies, 75 - Paris (France)2007
Academie des Technologies, 75 - Paris (France)2007
AbstractAbstract
[en] This report presents an overview of the technologies which are currently used or presently developed for the production of bio-fuels in Europe and more particularly in France. After a brief history of this production since the beginning of the 20. century, the authors describe the support to agriculture and the influence of the Common Agricultural Policy, outline the influence of the present context of struggle against the greenhouse effect, and present the European legislative context. Data on the bio-fuels consumption in the European Union in 2006 are discussed. An overview of the evolution of the activity related to bio-fuels in France, indicating the locations of ethanol and bio-diesel production facilities, and the evolution of bio-fuel consumption, is given. The German situation is briefly presented. Production of ethanol by fermentation, the manufacturing of ETBE, the bio-diesel production from vegetable oils are discussed. Second generation bio-fuels are then presented (cellulose enzymatic processing), together with studies on thermochemical processes and available biomass resources
[fr]
Dans un contexte previsible de rarefaction et par consequent d'augmentation du prix des carburants d'origine fossile, les biocarburants presentent le double avantage d'une production renouvelable et d'un gain energetique net. De plus, de par leur origine vegetale, ces biocarburants permettent une reduction nette des rejets de gaz a effet de serre par rapport aux produits fossiles correspondants. La France s'est engagee de facon volontariste des le debut du XXIe siecle dans la construction de filieres industrielles completes, du champ a l'usine. Celles-ci integrent les cultures et le stockage des cereales et de betteraves pour la production d'ethanol et celles du colza et du tournesol pour la production de l'huile vegetale, ces matieres premieres d'origine agricole qui apres transformation chimique se substituent respectivement a l'essence et au fuel. Afin d'elargir la palette des matieres premieres utilisables et en particulier de pouvoir utiliser des dechets agricoles, sylvicoles ou menagers qui de par leur nature n'entreront plus en competition avec des produits agricoles utilises egalement dans l'alimentation, de nouvelles technologies sont actuellement en phase de developpement dans plusieurs pays dont la France. L'Academie des technologies fait l'etat de l'avancement de ces developpements et esquisse les scenarios qui, d'ici 2030, au moment ou le prix des carburants fossiles deviendra reellement problematique, positionneront les biocarburants comme un element important mais surement partiel du bouquet energetique dedie aux transports terrestresOriginal Title
Les biocarburants - Communication a l'Academie des Technologies. Commission Energie et Developpement Durable Groupe de travail 'biocarburants', Decembre 2007
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Dec 2007; 79 p; 32 refs.; Available from the INIS Liaison Officer for France, see the INIS website for current contact and E-mail addresses
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Miscellaneous
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AGRICULTURE, BIODIESEL FUELS, BIOGAS PROCESS, BIOMASS CONVERSION PLANTS, BIOMASS PLANTATIONS, CELLULOSE, ENERGY SOURCE DEVELOPMENT, ENZYMATIC HYDROLYSIS, ETHANOL FUELS, FERMENTATION, FINANCIAL INCENTIVES, GASIFICATION, HEMICELLULOSE, INTERNATIONAL COOPERATION, LAND USE, PYROLYSIS, RESEARCH PROGRAMS, VEGETABLE OILS
ALCOHOL FUELS, ALTERNATIVE FUELS, ANAEROBIC DIGESTION, BIOCONVERSION, BIOFUELS, CARBOHYDRATES, CHEMICAL REACTIONS, COOPERATION, DECOMPOSITION, DIGESTION, FUELS, HYDROLYSIS, INDUSTRIAL PLANTS, LIQUID FUELS, LYSIS, OILS, ORGANIC COMPOUNDS, OTHER ORGANIC COMPOUNDS, POLYSACCHARIDES, SACCHARIDES, SOLVOLYSIS, SYNTHETIC FUELS, THERMOCHEMICAL PROCESSES
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Caseau, Paul; Causse, Jean-Pierre; Castillon, Pierre; Charentenay, Francois de; Dhers, Jean; Fillet, Pierre; Frybourg, Michel; Guillaumont, Robert; Jarry, Bruno; Maigne, Yves; Mongon, Alain; Mudry, Francois; Pelegrin, Marc; Pouchard, Michel; Ruelle, Gilbert; Tardieu, Bernard; Tissot, Bernard; Babusiaux, Denis; Bacher, Pierre; Bauquis, Pierre-Rene; Beraud-Dufour, Patrice; Bourrelier, Paul-Henri; Choux, Gerard; Claverie, Maurice; Darthenay, Alain; Decroocq, Daniel; Debiais, Louis; Ducroux, Rene; Equer, Bernard; Girard, Michel; Orselli, Jean; Andre, Jean-Claude; Bamberger, Yves; Borde, Christian; Boudet, Alain; Candel, Sebastien; Galle, Pierre; Gaset, Antoine; Giraud, Pierre-Noel; Grunblatt, Gerard; Jeanbaptiste, Philippe; Lunel, Jean; Marsily, Ghislain de; Masse, Roland; Minster, Jean-Francois; Mordchelles-Regnier, Georges; Panet, Marc; Poulain, Michel; Quinet, Emile; Rondreux, Michel; Slodzian, Georges; Benech, Michel; Douaud, Andre; Hourcade, Jean-Charles; Jancovici, Jean-Marc; Morin, Xavier
Academie des technologies, Le Ponant, 19, rue Leblanc, 75015 Paris (France)2008
Academie des technologies, Le Ponant, 19, rue Leblanc, 75015 Paris (France)2008
AbstractAbstract
[en] We are some forty years away from 2050. To appreciate the modesty with which we must approach energy forecasts for this date, a look back at the energy landscape of the 1960's sheds light on the power of the changes that can occur in less than half a century in the fields of energy and society: the world's population has doubled, its energy consumption has tripled, and the nature of physical and geopolitical risks has profoundly changed. In 1960, coal was still the world's leading source of energy, while oil, at only half its current level of consumption, was already beginning to equal coal with the development of transport. Natural gas was in its infancy, and nuclear power in its infancy too. Hydropower was the only renewable energy, but the word was not yet in use. The big absentee from the landscape was climate change, that giant parameter that now dominates our energy future and introduces the new constraint of the necessary reduction in carbon emissions. Today's energy landscape has profoundly changed and has taken on a global geopolitical dimension: coal still exists for another 200 years (outside Europe), but pollutes too much; oil and gas have a much more limited horizon, but have taken the lead in terms of convenience of use; the potential of hydropower is fully exploited in developed countries; nuclear power is the only mature carbon-free energy and the most economical, but still raises fears among the public. Energy savings are required everywhere, and renewable energies remain at a low level. The carbon constraint will force us to halve global emissions by 2050, and will be the essential determinant of energy choices. This update of the 2004 edition of the 'Prospective on energy in the 21. century', the fruit of three years of additional work within the Academy of technologies, aims to provide the public with objective scientific information, enabling them to become aware of the real energy issues facing us within this century
[fr]
Une quarantaine d'annees nous separent de 2050. Pour apprecier la modestie avec laquelle nous devons aborder les previsions energetiques pour cette date, un regard en arriere sur le paysage energetique des annees 1960 nous eclaire sur la puissance des changements qui peuvent intervenir en moins d'un demi-siecle dans les domaines de l'energie et de la societe: la population mondiale a double, sa consommation energetique a triple, et la nature des risques physiques et geopolitiques a profondement change. Le charbon etait encore en 1960 la premiere source d'energie, le petrole, qui n'etait pourtant qu'a la moitie de sa consommation actuelle, commencait deja a egaler le charbon avec le developpement des transports. Le gaz naturel n'etait qu'a ses debuts et le nucleaire embryonnaire. L'hydraulique etait la seule energie renouvelable, mais ce mot n'etait pas encore employe. Le grand absent du paysage etait le changement climatique, ce parametre geant qui domine maintenant notre futur energetique et introduit la nouvelle contrainte de la reduction necessaire des emissions de carbone. Aujourd'hui le paysage de l'energie a profondement change et pris une dimension geopolitique mondiale, le charbon existe encore pour 200 ans (hors d'Europe), mais pollue trop, le petrole et le gaz ont leur horizon beaucoup plus limite mais ont pris la tete par leur commodite d'emploi, le potentiel de l'hydraulique est entierement exploite dans les pays developpes, le nucleaire est la seule energie mature sans carbone et la plus economique, mais souleve encore des craintes dans le public. Les economies d'energie sont partout requises et les energies renouvelables restent a un faible niveau. La contrainte carbone obligera a diviser par deux les emissions mondiales d'ici a 2050 et sera le determinant essentiel des choix energetiques. Cette mise a jour de l'edition 2004, fruit de trois annees de travail supplementaire au sein de l'Academie des technologies, a pour objectif de livrer au public une information scientifique objective lui permettant de prendre conscience des vrais problemes de l'energie qui vont se poser au cours de ce siecleOriginal Title
Prospective sur l'energie au XXIe siecle - Communication a l'Academie des technologies, Octobre 2008
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5 Oct 2008; 176 p; 56 refs.; Available from the INIS Liaison Officer for France, see the INIS website for current contact and E-mail addresses
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Miscellaneous
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Country of publication
CARBON SEQUESTRATION, ENERGY CONSERVATION, ENERGY CONSUMPTION, ENERGY POLICY, ENERGY SOURCE DEVELOPMENT, ENVIRONMENTAL IMPACTS, ETHICAL ASPECTS, FOSSIL FUELS, FUEL SUBSTITUTION, GREENHOUSE EFFECT, INTERNATIONAL AGREEMENTS, NEGOTIATION, NUCLEAR ENERGY, PUBLIC ANXIETY, RADIOACTIVE WASTE MANAGEMENT, RENEWABLE ENERGY SOURCES, RESEARCH PROGRAMS, RISK ASSESSMENT
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INIS VolumeINIS Volume
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Bugat, Alain; Bost, Pierre-Etienne; Boudet, Alain Michel; Bourlioux, Pierre; Combarnous, Michel; Feillet, Pierre; Galle, Pierre; Guillou, Marion; Jarry, Bruno; Le Buanec, Bernard; Lunel, Jean; Tardieu, Bernard; Thomas, Daniel; Toulouse, Gerard; Trystram, Gilles; Costa, Cyrille; Antonini, Gerard; Bloquet, Carole; Brestesche, Jean Louis; Cheverry, Marc; Couzy, Sebastien; Frederic, Sylvain; Guerrini, Olivier; Marchais, Caroline; Poitrenaud, Maelenn; Rivera, Rodrigo; Steyer, Jean-Philippe; Pin, Dominique
Academie des technologies, Grand Palais des Champs Elysees, Porte C, Avenue Franklin D. Roosevelt, 75008 Paris (France)2017
Academie des technologies, Grand Palais des Champs Elysees, Porte C, Avenue Franklin D. Roosevelt, 75008 Paris (France)2017
AbstractAbstract
[en] This report first gives an overview of the different technological aspects of the industrial production of biogas: history of biogas production, extraction of biogas from landfills of non-hazardous wastes, industrial anaerobic fermentation, case of sewage plant sludge, biogas purification, by-products (digestates), risks related to biogas production, thermochemical technologies such as methanation. Then, it gives an overview of direct energy production and of other uses of biogas. It discusses the place of biogas in the world, in the USA and in Europe, and proposes a focus on the German model. It comments the French situation (reasons for a delayed interest in biogas, present situation)
Original Title
Le biogaz. Rapport de l'Academie des technologies
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2017; 61 p; Available from the INIS Liaison Officer for France, see the INIS website for current contact and E-mail addresses
Record Type
Miscellaneous
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INIS VolumeINIS Volume
INIS IssueINIS Issue