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Cited by 98Integrated Energy Systems OptimizationRenewable Energy and SustainabilityPower Systems and Renewable Energy

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Integration of Renewable Energy into Present and Future Energy Systems

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Sims, Ralph, Mercado, Pedro, Krewitt, Wolfram, Bhuyan, Gouri, Flynn, Damian, Holttinen, Hannele, Jannuzzi, Gilberto, Khennas, Smail, Liu, Yongqian, Nilsson, Lars J., Ogden, Joan, Ogimoto, Kazuhiko, O'Malley, Mark, Outhred, Hugh, Ulleberg, Øystein, van Hulle, Frans, Bazilian, Morgan, Beerepoot, Milou, Demayo, Trevor, Denny, Eleanor, Infield, David, Keane, Andrew, Lee, Arthur, Milligan, Michael, Mills, Andrew, Power, Michael, Smith, Paul, Söder, Lennart, Tuohy, Aidan, Ueckerdt, Falko, Zhang, Jingjing, Skea, Jim, Strunz, Kai·2011·Renewable Energy Sources and Climate Change Mitigation
DOI 10.1017/cbo9781139151153.012
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Abstract

To achieve higher renewable energy (RE) shares than the low levels typically found in present energy supply systems will require additional integration efforts starting now and continuing over the longer term.These include improved understanding of the RE resource characteristics and availability, investments in enabling infrastructure and research, development and demonstrations (RD&D), modifi cations to institutional and governance frameworks, innovative thinking, attention to social aspects, markets and planning, and capacity building in anticipation of RE growth.In many countries, suffi cient RE resources are available for system integration to meet a major share of energy demands, either by direct input to end-use sectors or indirectly through present and future energy supply systems and energy carriers, whether for large or small communities in Organisation for Economic Co-operation and Development (OECD) or non-OECD countries.At the same time, the characteristics of many RE resources that distinguish them from fossil fuels and nuclear systems include their natural unpredictability and variability over time scales ranging from seconds to years.These can constrain the ease of integration and result in additional system costs, particularly when reaching higher RE shares of electricity, heat or gaseous and liquid fuels.Existing energy infrastructure, markets and other institutional arrangements may need adapting, but there are few, if any, technical limits to the planned system integration of RE technologies across the very broad range of present energy supply systems worldwide, though other barriers (e.g., economic barriers) may exist.Improved overall system effi ciency and higher RE shares can be achieved by the increased integration of a portfolio of RE resources and technologies.This can be enhanced by the fl exible cogeneration of electricity, fuels, heating and cooling, as well as the utilization of storage and demand response options across different supply systems.Real-world case studies outlined throughout the chapter exemplify how different approaches to integration within a specifi c context have successfully achieved RE deployment by means of a combination of technologies, markets, and social and institutional mechanisms.Examples exist of islands, towns and communities achieving high shares of RE, with some approaching 100% RE electricity penetration and over a 50% share of liquid fuels for their light duty vehicle fl eets.Several mature RE technologies, including wind turbines, small and large hydropower generators, geothermal systems, bioenergy cogeneration plants, biomethane production, fi rst generation liquid biofuels, and solar water heaters, have already been successfully integrated into the energy systems of some leading countries.Further integration could be encouraged by both national and local government initiatives.Over the longer term, integration of other less mature, pre-commercial technologies, including advanced biofuels, solar fuels, solar coolers, fuel cells, ocean energy technologies, distributed power generation, and electric vehicles, requires continuing investments in RD&D, infrastructure, capacity building and other supporting measures.To reach the RE levels being projected in many scenarios over future decades will require integration of RE technologies at a higher rate of deployment than at present in each of the electricity generation, heating/ cooling, gas and liquid fuel distribution, and autonomous energy supply systems.RE can be integrated into all types of electricity supply systems, from large, interconnected, continental-scale grids to on-site generation and utilization in small, autonomous buildings.Technically and economically feasible levels of RE penetration depend on the unique characteristics of a system.These include the status of infrastructure development and interconnections, mix of generation technologies, control and communication capability, demand pattern and geographic location in relation to the RE resources available, market designs, and institutional rules.The distribution, location, variability and predictability of the RE resources will also determine the scale of the integration challenge.Short time-variable wind, wave and solar resources can be more diffi cult to integrate than dispatchable reservoir hydro, bioenergy and geothermal resources, which tend to vary only over longer periods (years and decades).As variable RE penetration levels increase, maintaining system reliability becomes more challenging and costly.Depending on the specifi cs of a given electricity system, a portfolio of solutions to minimize the risks to the system and the costs of RE integration can include the development of complementary, fl exible generation; strengthening and extending the network infrastructure;

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Items 201–286 of 286

Research works printed but not linked: 242

  1. Bromley, 2006, Proceedings RE 2006, 1
  2. 2004, Electricity for More Efficiency: Electric Technologies and Their Energy Savings Potential
  3. Estanqueiro, 2010, 9th International Workshop on Large-Scale Integration of Wind Power into Power Systems as well as on Transmission Networks for Offshore Wind Power Plants, 34
  4. Delille, 2010, Innovative Smart Grid Technologies Conference Europe (ISGT Europe), IEEE PES
  5. 2006, Bioenergy Action Plan for California
  6. 2009, Small-Scale Finance for Modern Energy Services and the Role of Governments, 43
  7. Riis, 2006, Hydrogen Production and Storage – RandD Priorities and Gaps, 33
  8. 2010, Renewable Fuel Standard Program (RFS-2) Regulatory Impact Analysis, 62
  9. 2010, Special Report: Potential Reliability Impacts of Emerging Flexible Resources, 57
  10. Muller-Langer, 2009, Biomethane for transport: a worldwide overview
  11. Zinco, 2008, District Heating Distribution in Areas with Low Heat Demand Density, 117
  12. 2008, Study on the Comparative Merits of Overhead Electricity Transmission Lines versus Underground Cables, 234
  13. 2007, 50% Wind Power in Denmark in 2025, 12
  14. 2002, Energy for the Poor – Underpinning the Millennium Development Goals
  15. 2008, Combined Heat and Power: Evaluating the Benefits of Greater Global Investment
  16. 2009, Integrating Wind. Developing Europe's Power Market for the Large Scale Integration of Wind Power, 104
  17. 2009, Cogeneration and District Energy: Sustainable Energy Technologies for Today and Tomorrow, 24
  18. Rodriguez, 2010, IEEE Power and Energy Society General Meeting, 25
  19. 2009, Transforming the Market - Energy Efficiency in Buildings, 72
  20. Mohitpour, 2000, Pipeline Design and Construction: A Practical Approach
  21. 2007, System Plan 2007, 64
  22. 2006, Spain's New Building Energy Standards Place the Country among the Leaders in Solar Energy in Europe, 2
  23. 2010, State and Local Net Greenhouse Gas Emissions Reduction Programs
  24. 2009, Liquid Transportation Fuels from Coal and Biomass: Technological Status, Costs, and Environmental Impacts, 388
  25. 2008, The Smart Grid: An Introduction
  26. 2008, NETL Modern Grid Strategy – Powering Our 21st-Century Economy – Advanced Metering Infrastructure, 32
  27. Brown, 2010, The National Grid – Building for the Future, 48
  28. Axegård, 2002, The Eco-Cyclic pulp mill: Focus on closure, energy efficiency and chemical recovery development, Pulp and Paper Canada, 103, 26
  29. Breuer, 2004, International Council on Large Electric Systems, 2004 Session
  30. Haj Seyed Hadi, 2006, ATEF 2006 - Advanced Technology in the Environmental Field, 501
  31. 2008, Technical Report on the Future Expansion and Undergrounding of the Electricity Transmission Grid, Summary, 28
  32. 2008, Technical Conditions for Connection to the Medium-Voltage Network
  33. 2009, The Energy Access Situation in Developing Countries - A Review Focusing on the Least Developed Countries and Sub-Saharan Africa
  34. Bodmann, 2005, Solar unterstützte Nahwärme und Langzeit-Wärmespeicher (Februar 2003 bis Mai 2005), 159
  35. Smith, 2010, IEEE Power and Energy Society General Meeting, 1
  36. 2005, Energy Vision 2100, Strategic Technology Roadmap (Energy Sector), 42
  37. 2009, Grid Code Version 3.4, 316
  38. 2010, Programa de Incentivo às Fontes Alternativas de Energia Elétrica
  39. 2009, Danish Energy Agency
  40. Zah, 2007, Life Cycle Assessment of Energy Products: Environmental Assessment of Biofuels, 16
  41. Schäfer, 2010, 10th International Conference on Developments in Power System Protection
  42. Bajgain, 2005, The Nepal Biogas Support Program: A Successful Model of Public Private Partnership for Rural Household, 75
  43. Alakangas, 2001, Biomass CHP technologies, 62
  44. Abdelkader, 2009, European Wind Energy Conference (EWEC), 16
  45. Ericsson, 2009, Introduction and Development of the Swedish District Heating Systems – Critical Factors and Lessons Learned (Policy Paper)
  46. Johnston, 2007, Review of U.S. and European Regional Modeling Studies of Policies Intended to Reduce Highway Congestion, Fuel Use, and Emissions, 9
  47. Bajnóczy, 1999, Heat storage by twograde phase change material, Perodica Polytechnica Chemical Engineering, 43, 137
  48. 10.1088/1748-9326/2/1/014002 · DOI · Paper page
  49. Kamakate, 2009, Managing Motorcycles: Opportunities to Reduce Pollution and Fuel Use from Two- and Three-Wheeled Vehicles
  50. Matic, 2006, Global Opportunities for Natural Gas as a Transportation Fuel for Today and Tomorrow, 144
  51. Mills, 2009, Understanding Variability and Uncertainty of Photovoltaics for Integration with the Electric Power System
  52. 2008, The Renewable Energy House
  53. Huttenrauch, 2006, Assessment of repair And Rehabilitation Technologies relating to the Transport of hythane (hydrogenmethane- mixture), 63
  54. 2009, A um passo da cidadania: Projeto Piloto para Eletrificação de Favelas e Redução de Perdas, 94
  55. Lannoye, 2010, IEEE Power and Energy Society General Meeting
  56. 2007, Mind the Gap - Quantifying Principal-Agent Problems in Energy Efficiency, 160
  57. 2007, About U.S. Natural Gas Pipelines – Transporting Natural Gas, 76
  58. Brown, 1996, Energy Conversion Engineering Conference (IECEC 96), 1653
  59. Stetz, 2010, 25th European Photovoltaic Solar Energy Conference and Exhibition, 5000
  60. GMF (2008). Feeding the world: are new global agricultural policies needed? German Marshall Fund report on Wilton Park Conference 927, Steyning, UK, 24-26 November 2008. Available at: cap2020.ieep.eu/2009/4/14/feeding-the-world-are-new-global-agricultural-policies-needed.
  61. Stoft, 2002, Power Systems Economics – Designing Markets for Electricity, 496
  62. 2009, Transforming Europe's Electricity Supply – An Infrastructure Strategy for a Reliable, Renewable and Secure Power System, 41
  63. 2004, Capitalisation of the Sahelian experience in natural forest management for wood energy production. Regional workshop
  64. 2009, The Potential for Renewable Gas in the UK
  65. 2006, Matching Renewable Electricity Generation with Demand: Academic study: Full report, 77
  66. Wagner, 2009, Solarthermie 2009 - Heizen und Kühlen mit der Sonne, 121
  67. Cheung, 2010, White paper from Consortium on Digital Energy 2009-2010, 40
  68. Kirby, 2010, WindPower 2010
  69. 2009, Hydrogen Fuel Cell Vehicle and Station Deployment Plan: A Strategy for Meeting the Challenge Ahead. Action Plan
  70. 2010, Automakers' and Engine Manufacturers' Positions of Support for Biodiesel Blends
  71. 2007, Renewables for Heating And Cooling – Untapped Potential, 209
  72. Uchida, 2010, WHEC 2010 – 18th World Hydrogen Energy Conference, 16
  73. Gardiner, 2008, 3rd International Solar Energy Society Conference – Asia Pacific Region (ISES-AP-08), 11
  74. Vannoni, 2008, Potential for Solar Heat in Industrial Processes, 17
  75. 2006, World Energy Outlook 2006
  76. Bonhoff, 2009, Woher kommt der Wasserstoff in Deutschland bis 2050? [Where will the Hydrogen in Germany come from in 2050?], 62
  77. Kalhammer, 2007, Status and Prospects for Zero Emission Vehicle Technology, 207
  78. 2009, Northern Ireland Statistic and Research Agency. Population and Migration Estimates Northern Ireland (2009) – Statistical Report, 19
  79. 2010, Ten-Year Network Development Plan 2010-2020, 286
  80. Takada, 2007, A Review of Energy in National MDG Reports, 48
  81. Werner, 2006, ECOHEATCOOL Work package 1 - The European Heat Market Final Report, 18
  82. Davis, 2010, Transportation Energy Data Book
  83. 2010, Dena-Netzstudie II – Integration erneuerbarer Energien in die deutsche Stromversorgung im Zeitraum 2015 – 2020 mit Ausblick 2025, 620
  84. 2006, Diversified Renewable Energy Resources: An Assessment of an Integrated Wind, Wave and Tidal Stream Electricity Generating System in the UK, and the Reliability of Wave Power Forecasting, 42
  85. 1996, Annual Report, 64
  86. 2007, Impact of Intermittent Generation on Operation of California Power Grid, 242
  87. Miwa, 2010, CO2 ultimate reduction in steelmaking process by innovative technology for Cool Earth 50, Journal of the Japan Institute of Energy, 89, 28
  88. Gil, 2010, 9th International Workshop on Large-Scale Integration of Wind Power into Power Systems as well as on Transmission Networks for Offshore Wind Power Plants
  89. 2009, H2 Production Cost vs. Process Composite Data Product (CDP #15)
  90. Leighty, 2006, 23rd World Gas Conference, 5
  91. 2009, An Effective Load Carrying Capability Analysis for Estimating the Capacity Value of Solar Generation Resources on the Public Service Company of Colorado System, 13
  92. Heikkila, 2006, 45, 49
  93. 2010, Pipeline Products: Central Florida Pipeline Co
  94. 2007, District Heating and Cooling – Country by Country 2007 survey
  95. Bayem, 2009, IEEE PowerTech 2009, 1
  96. Kirby, 2007, Power Engineering Society General Meeting, IEEE, 1
  97. Wangdee, 2010, IEEE 11th International Conference on Probabilistic Methods Applied to Power Systems (PMAPS), 337
  98. 2008, University Research Commercialisation – Paying Dividends for New Zealand, 11
  99. 2009, Transport, Energy, and CO2 – Moving Towards Sustainability, 400
  100. Cheung, 2008, Electric Utility Deregulation and Restructuring and Power Technologies, 2008 (DRPT 2008), 66
  101. 2010, Annual Renewable Report: Powering a Sustainable Future, 32
  102. Croezen, 2010, A Long-Term View of CO2 Efficient Manufacturing in the European Region, 87
  103. 2010, Western Wind and Solar Integration Study Report (WWSIS), 536
  104. Notholt, 2008, Fault Ride Through Capabilities of Inverter-Based Distributed Generation Connected to Low and Medium Voltage Distribution Networks
  105. Tester, 2006, The Future of Geothermal Energy – Impact of Enhanced Geothermal Systems on the United States in the 21st Century, 358
  106. 2008, Grid upgrade plan 2008 Instalment 1, part III: Wairakei Ring Investment proposal, 43
  107. Castello, 2005, Techno-economic Assessment of Hydrogen Transmission and Distribution Systems in Europe in the Medium and Long Term, 137
  108. 2009, Balanço Energético Nacional 2009: Ano base 2008
  109. Jayamaha, 2003, Distributed Generation on Rural Electricity Networks – A Lines Company Perspective, 243
  110. 2005, Lake Source Cooling
  111. 2010, Renewable Energy Sources in Figures, 76
  112. 2008, The Net-Zero Energy Commercial Building Initiative
  113. Khennas, 2009, Review and Appraisal of Potential Transformative Rural Energy Interventions in the Congo Basin
  114. 2010, Transitions to alternative transportation technologies: plug-in hybrid vehicles
  115. 2008, The Midwest ISO Transmission Expansion Plan; Growing the grid across the Heartland, 402
  116. 2010, CREZ Progress Report No. 1, 95
  117. Duvall, 2010, Electrification of the Transportation System: An MIT Energy Initiative Symposium, 32
  118. Henry, 2010, Power and Energy Society General Meeting, 2010 IEEE, 1
  119. 2007, Well-to-wheels Analysis of Future Automotive Fuels and Powertrains in the European Context
  120. 2009, Energy for Sustainable Development: Policy Options for Africa
  121. 2007, Environmental Assessment of Plug-In Hybrid Electric Vehicles
  122. Moraes, 2006, Brazil Alcohol National Program. Relatório de pesquisa, 54
  123. Reynolds, 2000, The Current Fuel Ethanol Industry Transportation, Marketing, Distribution and Technical Considerations, 263
  124. 2006, Rural electrification policy, Resolution 44/26/05-RE, Gazette of India, Ministry of Power, II, 17
  125. Mangold, 2007, Solare Nahwärme und Langzeit-Wärmespeicher, 66
  126. 2009, Cummins Approves B20 Biodiesel for 19- to 78-Litre High Horsepower Engines
  127. Eriksen, 2008, 7th International Workshop on Large Scale Integration of Wind Power and on Transmission Networks for Offshore Wind Farms, 7
  128. Kurani, 2009, Learning from Consumers: Plug-In Hybrid Electric Vehicle (PHEV) Demonstration and Consumer Education, Outreach, Market Research Program
  129. Bandivadekar, 2008, On the Road in 2035: Reducing Transportation's Petroleum Consumption and GHG Emissions
  130. 2010, 100 % Biogas for Urban Transport in Linköping, Sweden
  131. Strauss, 2009, Einfluss des Frequenzverhaltens kleiner Generatoren und lasten auf Stromnetze unter besonderer Berücksichtigung großer Netzstörungen, 128
  132. 2010, International Energy Outlook 2010, 338
  133. Nicholas, 2010, An Analysis of Near-Term Hydrogen Vehicle Rollout Scenarios for Southern California
  134. Epp, 2009, Dänemark: Solare Nahwärme ist wirtschaftlich, Solarthemen, 17, 312
  135. 2008, World Energy Outlook 2008, 578
  136. Miller, 2010, Proceedings of the 9th International Workshop on Large Scale Integration of Wind Power and on Transmission Networks for Offshore Wind Farms, 371
  137. 2010, Oahu Wind Integration and Transmission Study: Summary Report, 28
  138. 2010, Country report Sweden IEA Bioenergy Task 37, Energy from Biogas
  139. Sims, 2008, From 1st-to2nd-Generation Biofuel Technologies - An Overview of Current Industry and RDandD Activities, 120
  140. 2008, Hydro Energy on Your Farm, Technical Guide 5.0
  141. 2009, Hybrid Power Systems Based on Renewable Energies: A Suitable and Cost-Competitive Solution for Rural Electrification, 7
  142. 2010, World Energy Outlook 2010, 736
  143. 2006, Final Report: System Disturbance on 4 November 2006, 85
  144. 2010, An Introduction to Australia's National Electricity Market, 28
  145. Smith, 2010, EWEC 2010 – European Wind Energy Conference, 20
  146. 2010, All Island TSO Facilitation of Renewable Studies, 77
  147. Gronich, 2006, USDOE Hydrogen Transition Analysis Workshop
  148. 2010, Towards a Successful Integration of Large Scale Wind Power into European Electricity Grids, Final Report, 182
  149. Christidis, 2003, Dynamics of the Introduction of New Passenger Car Technologies: The IPTS Transport Technologies Model
  150. Sebastian, 2008, SmartGrids for Distribution. IET-CIRED. CIRED Seminar, 1
  151. 2010, Technology Roadmap: Concentrating Solar Power, 52
  152. Ciferno, 2002, Benchmarking Biomass Gasification Technologies for Fuels, Chemicals and Hydrogen Production, 58
  153. 2006, Biogas as transport fuel, 46
  154. Takada, 2006, Energizing Poverty Reduction: A Review of the Energy-Poverty Nexus in Poverty Reduction Strategy Papers, 117
  155. DiPippo, 2008, Geothermal Power Plants: Principles, Applications, Case Studies and Environmental Impact, 493
  156. 1997, Renewable Energy Technology Characterizations, 283
  157. Krüger, 2009, 15th International SolarPACES Symposium, 15
  158. 2008, Perfil dos Municípios Brasileiros 2008
  159. Meenual, 2010, 2010 Proceedings of the International Conference on Energy and Sustainable Development (ESD): Issues and Strategies, 1
  160. 2007, World Urbanization Prospects: The 2007 Revision, 230
  161. White, 2009, An Updated Assessment of Geothermal Direct Heat Use in New Zealand, 36
  162. Jiang, 2010, China's heat pumps technology review (in Chinese), China Construction, 2010, 68
  163. 2009, Special Report: Accommodating High Levels of Variable Generation, 95
  164. 2009, Production of Electricity and Heat 2009, 14
  165. 2008, Transitions to Alternative Transportation Technologies: A Focus on Hydrogen, 142
  166. 2010, Biodiesel Support
  167. Vittal, 2009, Impact of Increased DFIG Wind Penetration on Power Systems and Markets: Final Project Report, 221
  168. 2008, Efficient Heat and Power for One Million People (ABB Case Study), 5
  169. 2009, World Energy Outlook 2009, 696
  170. 2009, Strategic justification of the NATURALHY project
  171. 2010, Elektrizitat: Schlüssel zu einem nachhaltigen und klimaverträglichen Energiesystem, 144
  172. Pehnt, 2009, Energiebalance - Optimale Systemlösungen für erneuerbare Energien und Energieeffizienz (Energy Balance – Optimum System Solutions for Renewable Energy and Energy Efficiency), 440
  173. 2007, Sustainable Bioenergy: A Framework for Decision Makers, 64
  174. Meah, 2007, IEEE Power Engineering Society General Meeting, 24
  175. 2007, Bioenergy Project Development and Biomass Supply – Good Practice Guidelines, 66
  176. Khan, 2009, Potential Opportunities and Differences Associated with Integration of Ocean Wave and Marine Current Energy Plants in Comparison to Wind Energy, 64
  177. 2007, Task Force on Biofuel Infrastructure
  178. 2007, White paper on Internationally Compatible Biofuel Standards (Tripartite task force: Brazil, European Union and United States of America), 93
  179. 2010, NERC IVGTF Task 2.1 Report Variable Generation Power Forecasting for Operations, 35
  180. Levine, 2007, Climate Change 2007: Mitigation of Climate Change. Contribution of Working Group III to the Fourth Assessment Report of the Intergovernmental Panel on Climate Change, 387
  181. 2008, Energy Technology Perspectives 2008. Scenarios and Strategies to 2050, 646
  182. Nelson, 2009, EVS-24 Conference, 2009, 12
  183. Heidemann, 2006, International Conference on Renewable Energies and Water Technologies, 6
  184. Shiu, 2006, California Renewables Portfolio Standard Renewable Generation Integration Cost Analysis: Multiyear analysis results and recommendations, 134
  185. 2010, Eastern Wind Integration and Transmission study (EWITS), 242
  186. Tyll, 2009, Power Systems Conference and Exposition, 1
  187. 2010, Energy Technology Perspectives 2010. Scenarios and Strategies to 2050, 708
  188. Persson, 2003, Utvärdering av uppgraderingstekniker för biogas (Study of Biogas Upgrading Techniques), 69
  189. 2009, Energy Visions 2050 – Summary
  190. 2008, Deploying Renewables: Principles for Effective Policies, 250
  191. Murray, 2005, Designing Sustainable Distributed Generation Systems for Rural Communities
  192. 2008, Grid 25: A Strategy for the Development of Ireland's Electricity Grid for a Sustainable and Competitive Future, 47
  193. 2009, International Association for Natural Gas Vehicles
  194. Mangold, 2006, EuroSun 2006, 27
  195. 2010, Fifth Replacement FERC Electric Tariff, Appendix V Large Generator Interconnection Agreement (LGIA), 68
  196. 2009, Richtlinien zur Förderung von Maßnahmen zur Nutzung erneuerbarer, 25
  197. Kang, 2008, Study on current status, barriers and recommendations for China's CHP/DHC market development, Energy of China (In Chinese), 30, 8
  198. Hasche, 2010, Capacity credit of wind power, calculation and data requirements: The Irish power system case, IEEE Transactions on Power Systems, 26, 1
  199. 2005, Energiewirtschaftliche Planung für die Netzintegration von Windenergie in Deutschland an Land und Offshore bis zum Jahr 2020, 380
  200. Wasseige, 2009, Etat des Forêts 2008, 426

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Authors
Sims, R., Mercado, P., Krewitt, W., Bhuyan, G., Flynn, D., Holttinen, H., Jannuzzi, G., Khennas, S., Liu, Y., Nilsson, L. J., Ogden, J., Ogimoto, K., O'Malley, M., Outhred, H., Ulleberg, Ø., van Hulle, F., Bazilian, M., Beerepoot, M., Demayo, T., Denny, E., Infield, D., Keane, A., Lee, A., Milligan, M., Mills, A., Power, M., Smith, P., Söder, L., Tuohy, A., Ueckerdt, F., Zhang, J., Skea, J., & Strunz, K.
Affiliations
  • Potsdam Institute for Climate Impact Research (DE)
  • Cambridge University Press (GB)
ORCID
Venue
Renewable Energy Sources and Climate Change Mitigation
Publisher
Cambridge University Press
Published
2011-11-21
Pages
609-706
DOI
10.1017/cbo9781139151153.012
OpenAlex
W1608021527
Cited by
98
References
288
Citations by year
2026: 2 · 2025: 5 · 2024: 5 · 2023: 5 · 2022: 2 · 2021: 4 · 2020: 4 · 2019: 3 · 2018: 6 · 2017: 6 · 2016: 13 · 2015: 6 · 2014: 11 · 2013: 16 · 2012: 7
FWCI
45.58
Type
book chapter
Language
en
Open access
Licence
www.cambridge.org/core/terms (unspecified, 14 d)
Locations
  • Cambridge University Press eBooks (publishedVersion)
  • Publication Database PIK (Potsdam Institute for Climate Impact Research (PIK)) (submittedVersion)
  • Lund University Publications (Lund University) (submittedVersion)
Topics
  • Physical Sciences › Engineering › Electrical and Electronic Engineering › Integrated Energy Systems Optimization
  • Physical Sciences › Energy › Renewable Energy, Sustainability and the Environment › Renewable Energy and Sustainability
  • Physical Sciences › Energy › Energy Engineering and Power Technology › Power Systems and Renewable Energy
Keywords
renewable energy integration, renewable energy share, energy flexibility, combined heat and power, energy storage, demand response, renewable energy market, renewable energy deployment, 100% renewable electricity, biofuels, solar fuels, ocean energy, distributed generation, electric vehicles, capacity building, OECD countries, non-OECD countries

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