Listing 1 - 10 of 28 | << page >> |
Sort by
|
Choose an application
The world needs an accelerated energy transition to meet sustainable development goals. Energy planning has a critical role in providing the information that can guide decision-makers, and energy planning methods continue to evolve rapidly. This Special Issue provides new insights for long-term energy planning, drawing on the Clean Energy Ministerial Long Term Energy Planning Scenarios initiative and the IRENA LTES network.
Technology: general issues --- History of engineering & technology --- climate change --- Paris Agreement --- 100% renewable energy --- 1.5 °C mitigation pathway --- energy transition --- energy scenario --- GHG mitigation --- CO2 emission --- non-energy emission --- open access book --- chemical and petrochemical sector --- decarbonisation --- renewable energy --- circular economy --- electrification --- material flow analysis --- hydropower --- electric transport --- energy modeling --- ELENA --- urbs --- Ecuador --- decarbonization --- INDC --- LEAP --- long-term scenarios --- GHG inventory --- power system expansion --- co-optimization of energy and reserve --- associated natural gas --- multi-stage stochastic programming --- electricity-gas integration --- regulation --- Brazil --- Mexico --- renewables --- reliability --- generation system expansion --- efficient energy planning --- energy systems modelling --- scenario analysis --- TIMES-Ukraine --- paris agreement --- energy efficiency --- I-LTS --- energy scenarios --- 2050 carbon neutrality --- energy planning --- TIMES model --- net-zero emission --- decomposition analysis --- mitigation --- integrated assessment --- shared socioeconomic pathways --- scenarios --- climate adaptation --- adaptive capacity --- solar power plants --- thematic analysis --- long-term energy scenarios (LTES) --- site selection --- power purchase agreement --- greenhouse gas emissions --- Ghana road transport --- energy demand model --- biofuel integration --- arable land requirement --- lifestyle --- climate change mitigation --- LTES --- long-term energy scenarios --- energy modelling --- clean energy transition --- climate scenarios --- climate change --- Paris Agreement --- 100% renewable energy --- 1.5 °C mitigation pathway --- energy transition --- energy scenario --- GHG mitigation --- CO2 emission --- non-energy emission --- open access book --- chemical and petrochemical sector --- decarbonisation --- renewable energy --- circular economy --- electrification --- material flow analysis --- hydropower --- electric transport --- energy modeling --- ELENA --- urbs --- Ecuador --- decarbonization --- INDC --- LEAP --- long-term scenarios --- GHG inventory --- power system expansion --- co-optimization of energy and reserve --- associated natural gas --- multi-stage stochastic programming --- electricity-gas integration --- regulation --- Brazil --- Mexico --- renewables --- reliability --- generation system expansion --- efficient energy planning --- energy systems modelling --- scenario analysis --- TIMES-Ukraine --- paris agreement --- energy efficiency --- I-LTS --- energy scenarios --- 2050 carbon neutrality --- energy planning --- TIMES model --- net-zero emission --- decomposition analysis --- mitigation --- integrated assessment --- shared socioeconomic pathways --- scenarios --- climate adaptation --- adaptive capacity --- solar power plants --- thematic analysis --- long-term energy scenarios (LTES) --- site selection --- power purchase agreement --- greenhouse gas emissions --- Ghana road transport --- energy demand model --- biofuel integration --- arable land requirement --- lifestyle --- climate change mitigation --- LTES --- long-term energy scenarios --- energy modelling --- clean energy transition --- climate scenarios
Choose an application
The world needs an accelerated energy transition to meet sustainable development goals. Energy planning has a critical role in providing the information that can guide decision-makers, and energy planning methods continue to evolve rapidly. This Special Issue provides new insights for long-term energy planning, drawing on the Clean Energy Ministerial Long Term Energy Planning Scenarios initiative and the IRENA LTES network.
Technology: general issues --- History of engineering & technology --- climate change --- Paris Agreement --- 100% renewable energy --- 1.5 °C mitigation pathway --- energy transition --- energy scenario --- GHG mitigation --- CO2 emission --- non-energy emission --- open access book --- chemical and petrochemical sector --- decarbonisation --- renewable energy --- circular economy --- electrification --- material flow analysis --- hydropower --- electric transport --- energy modeling --- ELENA --- urbs --- Ecuador --- decarbonization --- INDC --- LEAP --- long-term scenarios --- GHG inventory --- power system expansion --- co-optimization of energy and reserve --- associated natural gas --- multi-stage stochastic programming --- electricity-gas integration --- regulation --- Brazil --- Mexico --- renewables --- reliability --- generation system expansion --- efficient energy planning --- energy systems modelling --- scenario analysis --- TIMES-Ukraine --- paris agreement --- energy efficiency --- I-LTS --- energy scenarios --- 2050 carbon neutrality --- energy planning --- TIMES model --- net-zero emission --- decomposition analysis --- mitigation --- integrated assessment --- shared socioeconomic pathways --- scenarios --- climate adaptation --- adaptive capacity --- solar power plants --- thematic analysis --- long-term energy scenarios (LTES) --- site selection --- power purchase agreement --- greenhouse gas emissions --- Ghana road transport --- energy demand model --- biofuel integration --- arable land requirement --- lifestyle --- climate change mitigation --- LTES --- long-term energy scenarios --- energy modelling --- clean energy transition --- climate scenarios --- n/a
Choose an application
The world needs an accelerated energy transition to meet sustainable development goals. Energy planning has a critical role in providing the information that can guide decision-makers, and energy planning methods continue to evolve rapidly. This Special Issue provides new insights for long-term energy planning, drawing on the Clean Energy Ministerial Long Term Energy Planning Scenarios initiative and the IRENA LTES network.
climate change --- Paris Agreement --- 100% renewable energy --- 1.5 °C mitigation pathway --- energy transition --- energy scenario --- GHG mitigation --- CO2 emission --- non-energy emission --- open access book --- chemical and petrochemical sector --- decarbonisation --- renewable energy --- circular economy --- electrification --- material flow analysis --- hydropower --- electric transport --- energy modeling --- ELENA --- urbs --- Ecuador --- decarbonization --- INDC --- LEAP --- long-term scenarios --- GHG inventory --- power system expansion --- co-optimization of energy and reserve --- associated natural gas --- multi-stage stochastic programming --- electricity-gas integration --- regulation --- Brazil --- Mexico --- renewables --- reliability --- generation system expansion --- efficient energy planning --- energy systems modelling --- scenario analysis --- TIMES-Ukraine --- paris agreement --- energy efficiency --- I-LTS --- energy scenarios --- 2050 carbon neutrality --- energy planning --- TIMES model --- net-zero emission --- decomposition analysis --- mitigation --- integrated assessment --- shared socioeconomic pathways --- scenarios --- climate adaptation --- adaptive capacity --- solar power plants --- thematic analysis --- long-term energy scenarios (LTES) --- site selection --- power purchase agreement --- greenhouse gas emissions --- Ghana road transport --- energy demand model --- biofuel integration --- arable land requirement --- lifestyle --- climate change mitigation --- LTES --- long-term energy scenarios --- energy modelling --- clean energy transition --- climate scenarios --- n/a
Choose an application
Why are some controversial issues covered in TV soaps and dramas and not others? How are decisions really made 'behind the scenes'? How do programme makers push boundaries without losing viewers? What do audiences take away from their viewing experience? Does TV fiction have a greater impact on public understandings than TV news? This exciting new book draws on unique empirical data to examine the relationship between popular television fiction and wider society. The book gives lively and engaging insights into how and why socially sensitive story lines were taken up by different TV programmes
Television plays --- Television viewers --- Television --- Social problems in mass media. --- Mass media --- Radio vision --- TV --- Artificial satellites in telecommunication --- Electronic systems --- Optoelectronic devices --- Telecommunication --- Astronautics --- Audiences, Television --- Television audiences --- Television fans --- Television watchers --- Viewers, Television --- Plays, Television --- Scenarios, Television --- Television drama --- Drama --- Television programs --- Television scripts --- Themes, motives. --- Attitudes. --- Social aspects. --- Optical communication systems --- Audiences
Choose an application
Les réalisations de Michel Audiard, un des plus grands scénaristes et dialoguistes du cinéma français, demeurent méconnues. Pourtant, la singularité de ces neuf films frappe dans le cinéma français de la fin des années 1960 et du début des années 1970, par leur ton et par leur style, par leur mise en scène et par leur écriture. Dans une filmographie de plus de 130 films, leur place s'avère d'autant plus spécifique que, durant une période de six ans (1968-1974), Audiard va y consacrer presque toute son énergie et son talent avec pour ambition de faire rire un public populaire, faire rire des moeurs de son époque, en développant un regard provocateur et grinçant. Il va montrer la faillite de la « Nouvelle Société » voulue par Pompidou, dans une galerie de portraits de pleurnichards et de paumés, de vindicatifs et de rêveurs. Cette « petite boutique » de Michel Audiard réalisateur s'est construite en collaboration avec un apprenti devenu artisan : Jean-Marie Poiré. Le futur réalisateur des Visiteurs débute avec Michel Audiard dès son premier film. Finalement, il travaillera au scénario de cinq films du metteur en scène. Après Audiard-Simenon puis Audiard-Simonin, ce troisième volume se concentre sur le duo formé par Michel Audiard et Jean-Marie Poiré, découvrant une nouvelle facette d'Audiard avec l'étude de trois films : Faut pas prendre les enfants du bon Dieu pour des canards sauvages (1968), joyeux acte de naissance de Michel Audiard réalisateur ; Le Cri du cormoran le soir au-dessus des jonques (1971), série noire humoristique qui sera son premier échec commercial ; et Comment réussir quand on est con et pleurnichard (1974), satire sociale vacharde et avant-dernier projet mis en chantier par Michel Audiard. Le présent recueil a pour ambition de montrer les auteurs au travail : les scénarios, qui divergent parfois sensiblement du film, sont accompagnés d'un appareil critique et d'une présentation qui permettent de retracer le cheminement du projet, depuis le choix du sujet jusqu'au film achevé. Des photographies et les revues de presse de l'époque viennent compléter l'ensemble. L'édition est établie par Thibaut Bruttin, qui a participé au commissariat de l'exposition consacrée à Louis de Funès à la Cinémathèque française, a dirigé avec Alain Kruger l'ouvrage Louis de Funès, à la Folie (La Martinière, 2020) et publiera prochainement une monographie sur La Soupe aux choux (Yellow Now).
Réalisateurs de cinéma français --- Audiard, Michel, --- Faut pas prendre les enfants du bon Dieu pour des canards sauvages --- Le cri du cormoran le soir au-dessus des jonques --- Comment réussir ... quand on est con et pleurnichard --- Scénarios --- Motion picture producers and directors --- Motion picture plays, French
Choose an application
This reprint is related to land-use change and non-urban and urban relationships at all spatiotemporal scales and also focuses on land-use planning and regulatory strategies for a sustainable future. Spatiotemporal dynamics, socioeconomic implication, water supply problems and deforestation land degradation (e.g., increase of imperviousness surfaces) produced by urban expansion and their resource requirements are of particular interest. The Guest Editors expect that this reprint will contribute to sustainable development in non-urban and urban areas.
Research & information: general --- Geography --- land use/land cover change --- water recharge --- flooding --- meteorological forecast --- hydrological response --- IWRM --- best management practices --- watershed management --- experimental watershed study design --- municipal watershed --- adaptive management --- functional urban land --- urban space --- urban land use/cover change --- urbanization --- Changchun --- urban hydrology --- impervious surfaces --- land use scenarios --- urban surface growth --- hydrological model --- flood flows --- construction land development intensity --- construction land use benefit --- coupling and coordination relationship --- spatiotemporal evolution --- Lanzhou-Xining urban agglomeration --- land cover --- land use change --- downscaling approach --- Switzerland --- geographic information system --- aerial photo interpretation --- topographic map --- inverse distance weighting --- expert system --- village --- strategy --- development priorities --- land use --- land take --- urban agriculture --- land use planning --- zoning --- GI products --- integrated water resources management --- territory management --- future scenarios --- prospective analysis --- decision support system --- urban growth boundaries (UGBs) --- LULC change simulation --- multi-source big data --- SD model --- PLUS model --- county area --- Xinxing County
Choose an application
For a sustainable future, the need to use renewable sources to produce electricity is inevitable. Some of these sources—particularly the widely available solar power—are weather-dependent; therefore, utility-scale energy storage will be more and more important. These solar and wind power fluctuations range from minutes (passing cloud) to whole seasons (winter/summer differences). Short-term storage can be solved (at least theoretically) with batteries; however, seasonal storage—due to the amount of storable energy and the self-discharging of some storage methods—is still a challenge to be solved in the near future. We believe that biological Power-to-Methane technology—especially combined with biogas refinement—will be a significant player in the energy storage market within less than a decade. The technology produces high-purity methane, which can be considered—by using green energy and carbon dioxide of biological origin—as a Renewable Natural Gas, or RNG. The ease of storage and use of methane, as well as the effective carbon-freeness, can make it a competitor for batteries or hydrogen-based storage, especially for storage times exceeding several months.
Technology: general issues --- History of engineering & technology --- seasonal energy storage --- power-to-methane --- wastewater treatment plants --- techno-economic assessment --- power-to-gas --- regulation --- energy storage --- biogas --- biomethane --- disruptive technology --- decarbonization --- innovation --- Power-to-Gas --- Power-to-Fuel --- P2M --- P2G --- P2F --- biomethanization --- biomethanation --- competitiveness --- hydrogen utilization --- Hungary --- Power-to-X --- Power-to-Hydrogen --- Power-to-Methane --- hydrogen --- methanation --- sector coupling --- sectoral integration --- energy transition --- eFuels --- electric fuels --- 100% renewable energy scenarios --- thermophilic biogas --- fed-batch reactor --- Methanothermobacter --- metagenome --- starvation --- H2 and CO2 conversion --- methane --- acetate --- seasonal energy storage --- power-to-methane --- wastewater treatment plants --- techno-economic assessment --- power-to-gas --- regulation --- energy storage --- biogas --- biomethane --- disruptive technology --- decarbonization --- innovation --- Power-to-Gas --- Power-to-Fuel --- P2M --- P2G --- P2F --- biomethanization --- biomethanation --- competitiveness --- hydrogen utilization --- Hungary --- Power-to-X --- Power-to-Hydrogen --- Power-to-Methane --- hydrogen --- methanation --- sector coupling --- sectoral integration --- energy transition --- eFuels --- electric fuels --- 100% renewable energy scenarios --- thermophilic biogas --- fed-batch reactor --- Methanothermobacter --- metagenome --- starvation --- H2 and CO2 conversion --- methane --- acetate
Choose an application
For a sustainable future, the need to use renewable sources to produce electricity is inevitable. Some of these sources—particularly the widely available solar power—are weather-dependent; therefore, utility-scale energy storage will be more and more important. These solar and wind power fluctuations range from minutes (passing cloud) to whole seasons (winter/summer differences). Short-term storage can be solved (at least theoretically) with batteries; however, seasonal storage—due to the amount of storable energy and the self-discharging of some storage methods—is still a challenge to be solved in the near future. We believe that biological Power-to-Methane technology—especially combined with biogas refinement—will be a significant player in the energy storage market within less than a decade. The technology produces high-purity methane, which can be considered—by using green energy and carbon dioxide of biological origin—as a Renewable Natural Gas, or RNG. The ease of storage and use of methane, as well as the effective carbon-freeness, can make it a competitor for batteries or hydrogen-based storage, especially for storage times exceeding several months.
seasonal energy storage --- power-to-methane --- wastewater treatment plants --- techno-economic assessment --- power-to-gas --- regulation --- energy storage --- biogas --- biomethane --- disruptive technology --- decarbonization --- innovation --- Power-to-Gas --- Power-to-Fuel --- P2M --- P2G --- P2F --- biomethanization --- biomethanation --- competitiveness --- hydrogen utilization --- Hungary --- Power-to-X --- Power-to-Hydrogen --- Power-to-Methane --- hydrogen --- methanation --- sector coupling --- sectoral integration --- energy transition --- eFuels --- electric fuels --- 100% renewable energy scenarios --- thermophilic biogas --- fed-batch reactor --- Methanothermobacter --- metagenome --- starvation --- H2 and CO2 conversion --- methane --- acetate --- n/a
Choose an application
This book focuses on the contemporary challenges faced by rural areas across the globe. These include common efforts to address food production and security; engaging with climate change and the fundamental transformations in everyday practices that this requires; the exodus of young people from rural areas; an ageing farming population; and the growth of rural poverty. The common goal throughout is one of exploring ways in which environmental, economic and social goals need to be addressed in a cohesive way while being cognizant of the diversity of people, environments, economies and traditions that exist across rural space.
Humanities --- Education --- family farm --- ageing farmers --- retirement --- succession --- emotions --- decision making --- belonging --- respect --- rural sustainability --- Northern Ireland --- multi-scale scenarios --- participatory scenario planning --- social-ecological system --- poverty alleviation --- land use change --- nature’s contributions to people --- Mozambique --- organics --- viability farm collaboration --- rural exodus --- rural livelihood --- rural migration --- rural youth --- generational renewal --- sustainability --- education --- Hungary --- access to land --- farming traditions --- older farmers --- wellbeing --- identity --- social gerontology --- age-friendly environments --- innovation --- rural development --- quality of life --- migration balance --- Eastern Moravia --- cross-border projects --- smallholder farmer --- input sourcing --- Tanzania --- poverty reduction --- grounded theory --- rural agriculture --- Special Areas of Conservation --- designation --- results-based payments --- farmer participation --- n/a --- nature's contributions to people
Choose an application
For a sustainable future, the need to use renewable sources to produce electricity is inevitable. Some of these sources—particularly the widely available solar power—are weather-dependent; therefore, utility-scale energy storage will be more and more important. These solar and wind power fluctuations range from minutes (passing cloud) to whole seasons (winter/summer differences). Short-term storage can be solved (at least theoretically) with batteries; however, seasonal storage—due to the amount of storable energy and the self-discharging of some storage methods—is still a challenge to be solved in the near future. We believe that biological Power-to-Methane technology—especially combined with biogas refinement—will be a significant player in the energy storage market within less than a decade. The technology produces high-purity methane, which can be considered—by using green energy and carbon dioxide of biological origin—as a Renewable Natural Gas, or RNG. The ease of storage and use of methane, as well as the effective carbon-freeness, can make it a competitor for batteries or hydrogen-based storage, especially for storage times exceeding several months.
Technology: general issues --- History of engineering & technology --- seasonal energy storage --- power-to-methane --- wastewater treatment plants --- techno-economic assessment --- power-to-gas --- regulation --- energy storage --- biogas --- biomethane --- disruptive technology --- decarbonization --- innovation --- Power-to-Gas --- Power-to-Fuel --- P2M --- P2G --- P2F --- biomethanization --- biomethanation --- competitiveness --- hydrogen utilization --- Hungary --- Power-to-X --- Power-to-Hydrogen --- Power-to-Methane --- hydrogen --- methanation --- sector coupling --- sectoral integration --- energy transition --- eFuels --- electric fuels --- 100% renewable energy scenarios --- thermophilic biogas --- fed-batch reactor --- Methanothermobacter --- metagenome --- starvation --- H2 and CO2 conversion --- methane --- acetate --- n/a
Listing 1 - 10 of 28 | << page >> |
Sort by
|