Desertec: the Renewable Energy Grab?1
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Good Governance of the Energiewende in Germany: Wishful Thinking Or Manageable?
Good Governance of the Energiewende in Germany: wishful thinking or manageable? By Claudia Kemfert and Jannic Horne, Hertie School of Governance, July 2013 Germany has decided to phase out nuclear power and increase the share of renewable energy for electricity production to 80 % by 2050. The energy system transformation, the Energiewende, also aims to improve energy efficiency in the industry and buildings sector as well as to direct the transportation sector towards sustainability. The transition of the whole energy sector in an industrialized country like Germany is a complex issue which affects many sectors, interests of companies, citizens and residents, as well as politicians. The governance of the Energiewende in Germany can currently be described as very fragmented, not well structured, and heavily influenced by different lobbying groups and coalitions. Good governance should comprise clear long-term goals, a distinct allocation of responsibilities to one institution, more and better participation processes, and full transparency as well as better cooperation. Good governance can lead to much more efficient and effective progress of the Energiewende. Energy Transition in Germany: the Energiewende The German term “Energiewende” is about to become an international synonym for a major energy system transformation. Germany intends to change its overall energy system by shutting down all nuclear power plants by 2022 and reducing greenhouse gas emissions by at least 80% by 2050 (BMWi and BMU 2012: 15f). The contribution of 1 renewables to the total power production in Germany will be increased to 35% by 2020 and 80% by 2050 and their contribution to the total final energy consumption will rise to 18% by 2020 and 60% by 2050. -
Energies for the 21St Century
THE collEcTion 1 w The atom 2 w Radioactivity 3 w Radiation and man 4 w Energy 5 w Nuclear energy: fusion and fission 6 w How a nuclear reactor works 7 w The nuclear fuel cycle 8 w Microelectronics 9 w The laser: a concentrate of light 10 w Medical imaging 11 w Nuclear astrophysics 12 w Hydrogen 13 w The Sun 14 w Radioactive waste 15 w The climate 16 w Numerical simulation 17 w Earthquakes 18 w The nanoworld 19 w Energies for the 21st century © French Alternative Energies and Atomic Energy Commission, 2010 Communication Division Head Office 91191 Gif-sur-Yvette cedex - www.cea.fr ISSN 1637-5408. w Low-carbon energies for a sustainable future FROM RESEARCH TO INDUSTRY 19 w energies for the 21st century InnovatIng for nuclear energy DomestIcatIng solar power BIofuel proDuctIon DevelopIng BatterIes anD fuel cells thermonuclear fusIon 2 w contents century © Jack Star/PhotoLink st Innovating for nuclear ENERgY 6 The beginnings of nuclear energy in France 7 The third generation 8 Generation IV: new concepts 10 DEveloping batteries and fuel cells 25 Domesticating solar Lithium-ion batteries 26 pOwer 13 A different application for Thermal solar power 15 each battery 27 Photovoltaic solar power 16 Hydrogen: an energy carrier 29 Concentrated solar power 19 Thermonuclear fusion 31 BIOFUEL production 20 Tokamak research 33 Biomass 21 ITER project 34 Energies for the 21 2nd generation biofuels 22 Designed and produced by: MAYA press - Printed by: Pure Impression - Cover photo: © Jack Star/PhotoLink - Illustrations : YUVANOE - 09/2010 Low-carbon energies for a sustainable future 19 w Energies for the 21st century w> IntroIntroDuctIon 3 The depletion of fossil resources and global warming are encoura- ging the development of research into new energy technologies (on the left, Zoé, France’s first nuclear reactor, on the right, the national institute for solar power). -
Desertec Industries Enabling Desertec in EUMENA
Desertec Industries Enabling Desertec in EUMENA 13. Kölner Sonnenkolloquium Paul van Son Desertec Industries Cologne, 29.06.2010 = 300 x 300 km © Dii GmbH June 2010 2 Plans to utilize desert power are not new Solar history Frank Shuman (pioneer in applying parabolic trough technology in desert): 'One thing I am sure of and that is that the human race must finally utilize direct sun power or revert to barbarism' 1912 first installed parabolic trough collector by Shuman in Meadi, Egypt (produced the equivalent of 55 horsepower) Shuman planned to install no less than 20,250 square miles of reflectors in the Sahara World War I and the discovery of new oil fields stopped his plans © Dii GmbH June 2010 3 Dii to create conditions for a gradual use of energy from the MENA deserts Setup, mission & objectives of Dii Setup Mission Dii was founded in October 2009 as Pave the way for the Desertec private sector initiative by 12 industrial concept companies and the Desertec Create broad acceptance in MENA foundation countries In March 2010, four additional Long-term target of the Desertec shareholders joined Dii concept: Cover a substantial part of Broad and diverse international the MENA electricity demand and expertise throughout EUMENA 15% of the European demand by 2050 Based on broad acceptance Pragmatic approach, step-by-step Timeline: Three years © Dii GmbH June 2010 4 Dii has broad basis in international industry: 17 Shareholders and 20 Associated Partners Shareholders and Associated Partners of Dii 17 Shareholders 20 Associated Partners In cooperation with associations and other industrial initiatives: ENTSO-E, ESTELA, OME, TRANSGREEN, MEDRING, MSP, etc. -
Fulfilling the Promise of Concentrating Solar Power Low-Cost Incentives Can Spur Innovation in the Solar Market
AGENCY/PHOTOGRAPHER ASSOCIATED PRESS ASSOCIATED Fulfilling the Promise of Concentrating Solar Power Low-Cost Incentives Can Spur Innovation in the Solar Market By Sean Pool and John Dos Passos Coggin June 2013 WWW.AMERICANPROGRESS.ORG Fulfilling the Promise of Concentrating Solar Power Low-Cost Incentives Can Spur Innovation in the Solar Market By Sean Pool and John Dos Passos Coggin May 2013 Contents 1 Introduction and summary 3 6 reasons to support concentrating solar power 5 Concentrating solar power is a proven zero-carbon technology with high growth potential 6 Concentrating solar power can be used for baseload power 7 Concentrating solar power has few impacts on natural resources 8 Concentrating solar power creates jobs Concentrating solar power is low-cost electricity 9 Concentrating solar power is carbon-free electricity on a budget 11 Market and regulatory challenges to innovation and deployment of CSP technology 13 Low-cost policy solutions to reduce risk, promote investment, and drive innovation 14 Existing policy framework 15 Policy reforms to reduce risk and the cost of capital 17 Establish an independent clean energy deployment bank 18 Implement CLEAN contracts or feed-in tariffs Reinstate the Department of Energy’s Loan Guarantee Program 19 Price carbon Policy reforms to streamline regulation and tax treatment 20 Tax reform for capital-intensive clean energy technologies Guarantee transmission-grid connection for solar projects 21 Stabilize and monetize existing tax incentives 22 Further streamline regulatory approval by creating an interagency one-stop shop for solar power 23 Regulatory transparency 24 Conclusion 26 About the authors 27 Endnotes Introduction and summary Concentrating solar power—also known as concentrated solar power, concen- trated solar thermal, and CSP—is a cost-effective way to produce electricity while reducing our dependence on foreign oil, improving domestic energy-price stabil- ity, reducing carbon emissions, cleaning our air, promoting economic growth, and creating jobs. -
Analysis of Solar Community Energy Storage for Supporting Hawaii's 100% Renewable Energy Goals Erin Takata [email protected]
The University of San Francisco USF Scholarship: a digital repository @ Gleeson Library | Geschke Center Master's Projects and Capstones Theses, Dissertations, Capstones and Projects Spring 5-19-2017 Analysis of Solar Community Energy Storage for Supporting Hawaii's 100% Renewable Energy Goals Erin Takata [email protected] Follow this and additional works at: https://repository.usfca.edu/capstone Part of the Natural Resources Management and Policy Commons, Oil, Gas, and Energy Commons, and the Sustainability Commons Recommended Citation Takata, Erin, "Analysis of Solar Community Energy Storage for Supporting Hawaii's 100% Renewable Energy Goals" (2017). Master's Projects and Capstones. 544. https://repository.usfca.edu/capstone/544 This Project/Capstone is brought to you for free and open access by the Theses, Dissertations, Capstones and Projects at USF Scholarship: a digital repository @ Gleeson Library | Geschke Center. It has been accepted for inclusion in Master's Projects and Capstones by an authorized administrator of USF Scholarship: a digital repository @ Gleeson Library | Geschke Center. For more information, please contact [email protected]. This Master's Project Analysis of Solar Community Energy Storage for Supporting Hawaii’s 100% Renewable Energy Goals by Erin Takata is submitted in partial fulfillment of the requirements for the degree of: Master of Science in Environmental Management at the University of San Francisco Submitted: Received: ...................................……….. ................................…………. -
Recent Developments in Heat Transfer Fluids Used for Solar
enewa f R bl o e ls E a n t e n r e g Journal of y m a a n d d n u A Srivastva et al., J Fundam Renewable Energy Appl 2015, 5:6 F p f p Fundamentals of Renewable Energy o l i l ISSN: 2090-4541c a a n t r i DOI: 10.4172/2090-4541.1000189 o u n o s J and Applications Review Article Open Access Recent Developments in Heat Transfer Fluids Used for Solar Thermal Energy Applications Umish Srivastva1*, RK Malhotra2 and SC Kaushik3 1Indian Oil Corporation Limited, RandD Centre, Faridabad, Haryana, India 2MREI, Faridabad, Haryana, India 3Indian Institute of Technology Delhi, New Delhi, India Abstract Solar thermal collectors are emerging as a prime mode of harnessing the solar radiations for generation of alternate energy. Heat transfer fluids (HTFs) are employed for transferring and utilizing the solar heat collected via solar thermal energy collectors. Solar thermal collectors are commonly categorized into low temperature collectors, medium temperature collectors and high temperature collectors. Low temperature solar collectors use phase changing refrigerants and water as heat transfer fluids. Degrading water quality in certain geographic locations and high freezing point is hampering its suitability and hence use of water-glycol mixtures as well as water-based nano fluids are gaining momentum in low temperature solar collector applications. Hydrocarbons like propane, pentane and butane are also used as refrigerants in many cases. HTFs used in medium temperature solar collectors include water, water- glycol mixtures – the emerging “green glycol” i.e., trimethylene glycol and also a whole range of naturally occurring hydrocarbon oils in various compositions such as aromatic oils, naphthenic oils and paraffinic oils in their increasing order of operating temperatures. -
Comparison Between Concentrated Solar Power and Gas-Based Generation in Terms of Economic and Flexibility-Related Aspects in Chile
energies Article Comparison between Concentrated Solar Power and Gas-Based Generation in Terms of Economic and Flexibility-Related Aspects in Chile Catalina Hernández Moris 1 , Maria Teresa Cerda Guevara 1,* , Alois Salmon 1 and Alvaro Lorca 2 1 Fraunhofer Chile Research Foundation, Santiago 7820436, Chile; [email protected] (C.H.M.); [email protected] (A.S.) 2 Department of Electrical Engineering, Department of Industrial and Systems Engineering, UC Energy Research Center, Pontificia Universidad Católica de Chile, Santiago 7820436, Chile; [email protected] * Correspondence: [email protected] Abstract: The energy sector in Chile demands a significant increase in renewable energy sources in the near future, and concentrated solar power (CSP) technologies are becoming increasingly competitive as compared to natural gas plants. Motivated by this, this paper presents a comparison between solar technologies such as hybrid plants and natural gas-based thermal technologies, as both technologies share several characteristics that are comparable and beneficial for the power grid. This comparison is made from an economic point of view using the Levelized Cost of Energy (LCOE) metric and in terms of the systemic benefits related to flexibility, which is very much required due to the current decarbonization scenario of Chile’s energy matrix. The results show that the LCOE of the four hybrid plant models studied is lower than the LCOE of the gas plant. A solar hybrid plant configuration composed of a photovoltaic and solar tower plant (STP) with 13 h of storage Citation: Hernández Moris, C.; and without generation restrictions has an LCOE 53 USD/MWh, while the natural gas technology Cerda Guevara, M.T.; Salmon, A.; Lorca, Á.G. -
Neo-Colonial Continuities in the Mediterranean Infrastructure Projects of Atlantropa and Desertec
Ardeth A magazine on the power of the project 7 | 2020 Europe Neo-colonial Continuities in the Mediterranean Infrastructure Projects of Atlantropa and Desertec Alexander Stumm Electronic version URL: https://journals.openedition.org/ardeth/1883 ISSN: 2611-934X Publisher Rosenberg & Sellier Printed version Date of publication: 1 December 2020 Number of pages: 127-140 ISSN: 2532-6457 Electronic reference Alexander Stumm, “Neo-colonial Continuities in the Mediterranean Infrastructure Projects of Atlantropa and Desertec”, Ardeth [Online], 7 | 2020, Online since 01 June 2021, connection on 29 July 2021. URL: http://journals.openedition.org/ardeth/1883 CC BY-NC-ND 4.0 Neo-colonial Continuities in the Mediterranean Infrastructure Projects of Atlantropa and Desertec Alexander Stumm Abstract Affiliatio Herman Sörgel’s gigantic project “Atlantropa” is a Technische Universität Berlin, prominent European project in terms of infrastruc- Institut für ture and territory in the first half of the 20th century. Architektur It is an example of a modernity that is necessarily Contacts: believing in progress through technology – as will stumm [at] tu-berlin be shown the first section of this essay, but it is also [dot] de profitable in that it historically locates Europe’s cur- Received: rent energy policy infrastructure projects in Africa, 8 July 2020 to which the second section of the essay is dedicated. The vision pursued under the name Destertec envis- Accepted: 23 February 2021 ages the large-scale implementation of renewable energy power plants, especially solar thermal power DOI: plants in Northern Africa. Both projects share an 10.17454/ARDETH07.08 unshakeable belief in ecomodernist ideas, meaning ARDETH #07 the solution of socio-economic and ecological chal- lenges through technology (Gall, 2014). -
DESERTEC – Clean Power from Deserts
In 2050, the world´s population will need 3 planets to cover it´s demand for resources DESERTEC – Clean Power from Deserts A concept for energy security and climate protection for a world with 10 billion people Hani El Nokraschy [email protected] 2 How can 10 billion people live peacefully together on just one planet? Desert Potential: 3000 PWh/y Energy is abundant 290 126 ~1100 144 PWh 700 95 11 125 ~200 ~200 Annual economic potential, in PWh (= 1000 TWh) Global demand (2008): 18 PWh/y Source: Trieb et.al.,DLR, 2009 3 4 4 MED-CSP EU-MENA ... a rapidly growing region Potential DESERTEC regions 4500 Turkey Historical Data MED-CSP Scenario ~4000 TWh/y Spain 4000 Portugal Malta Turkey Italy 3500 Greece This is a second Europe Tunisia 3000 Morocco How can it be achieved? Libya Egypt 2500 Algeria Yemen 2000 Egypt UAE Syria Saudi Arabia 1500 Qatar Oman Gross Electricity Consumption TWh/y Consumption Electricity Gross 1000 Lebanon Kuwait Jordan 500 Israel Iran Iraq 0 Iran Source: Gerhard Knies 1980 1990 2000 2010 2020 2030 2040 2050 Cyprus Bahrain Year 5 6 Vision for 2050 The DESERTEC Concept for EU‐MENA 3 Samples out of 20 EU-MENA HVDC DLR Studies: renewable energy potential in the EU and in MENA interconnections each line transmitting 5 Giga Watt Biomass: 1,350 TWh/y Electricity demand in EU‐MENA Geothermal: in the year 2050: 7,500 TWh/y 1,100 TWh/y Windpower: 1,950 TWh/y Hydropower: 1,350 TWh/y Solar power: 630,000 TWh/y Transmission losses 10-15% 7 8 Situation 2010 with 220/400 kV AC Lines 1400 MW __ 450 MW 350 MW 240 MW Under -
The Future of Renewable Energy in the Mediterranean. Translating Potential Into Reality
Table of content Introduction……………………………………………………………………………………………………….….. 2 1. The Southern and Eastern Mediterranean Energy Landscape…………………………... 4 1.1 Energy Demand and Supply……………………………………………………………………….……… 4 1.2 Energy Consumption and Efficiency……………………………………………………………....…. 6 1.3 Energy Production…………………………………………………..………………………………….…….. 9 1.4 The Crucial Role of Electricity……………………………………………………………………………. 15 2. The Regional Renewable Energy Potential and the Rise of Large-Scale Projects 17 2.1 The Renewable Energy Potential of the Region…………………………………………….…… 17 2.2 The Potential Benefits of Renewable Energy in the Region……………………………….. 25 2.3 The Evolution of Desertec and Other Large-Scale Renewable Energy Projects….. 30 2.4 The Emergence of National Renewable Energy Plans……………………………………….. 38 3. Rethinking Renewable Energy in the Region: The Need for a New Approach to Translate Potential into Reality…………………………………………………………………………. 43 3.1 Barriers to the Development of Renewable Energy in the Region……………….…….. 43 3.2 The Commercial Barrier: Reforming Energy Subsidies……………………………….……… 43 3.3 The Infrastructural Barrier: The Key Role of MED-TSO………………………………………. 49 3.4 The Regulatory Barrier: The Key Role of MEDREG……………………………….……………. 54 3.5 The Financial Barrier: The Key Role of Institutional Investors……………………………. 58 Conclusions: Towards a New “Euro-Med Renewable Energy Platform”………………… 68 Bibliography………………………………………………………………..………………………………….………. 70 Annex………………………………………………………………………………………………………………….…… 76 The rise of Turkey and the new Mediterranean Research project Introduction This study seeks to provide a clear and comprehensive overview on the various aspects related to the current status and the future prospects of renewable energy in the Southern and Eastern Mediterranean region (Morocco, Algeria, Tunisia, Libya, Egypt, Israel, Palestinian Territories, Jordan, Lebanon, Syria and Turkey). For the sake of simplicity and given the region’s natural endowment, this study exclusively focuses on solar energy (i.e. -
DESERTEC Principles, Criteria and Indicators for the Evaluation Of
DESERTEC Foundation Principles, Criteria and Indicators for the Evaluation of Renewable Energy Power Plants Version 1.0 Preamble A major objective of the DESERTEC Foundation is the global transformation towards a green economy with a particular emphasis on the use of renewable energies. The DESERTEC concept identifies areas with particularly sunny conditions as preferred sites for solar and solar-thermal power plants. Its originators suggest employing huge solar-thermal power plants for the provision of societies and industries in the respective countries with clean electricity. They furthermore point out that a fraction of the electricity demand of highly industrialised countries should be covered by imports from sun-rich regions to compensate for fluctuations of locally available renewable resources. Solar-thermal power plants are particularly suitable because they offer the option to store energy with minimal loss and thus to provide dispatchable electricity also at night. A number of organisations have pointed out that large-scale electricity production in sunny and arid regions must contribute to the energy supply and socio-economic development within these regions (KLAWITTER & SCHINKE 2011; also: Technology Roadmap, see box below). “Such projects need to result in win-win situations. It would seem unacceptable, for example, if all solar electricity were exported overseas while local populations and economies lacked sufficient power resources. Newly built plants will have to fulfil the needs of the local population and help develop local economies. Meanwhile, the returns from exporting clean, highly valued renewable electricity to industrialised countries could help cover the high initial investment costs of CSP beyond the share devoted to exports.” Technology Roadmap Concentrating Solar Power, OECD/IEA, 2010, Web Link. -
Supporters of Desert Energy
Hydrogen in the European Green Deal A new vector for international cooperation Thursday, 18th June 2020 “Desertec 3.0”: MENA to become a prosperous “Powerhouse” of Emission Free Energy Great Idea! It works! First Harvest! Acceleration! 2004 2009 2015 Pre-phase Conceptphase Implementationphases Green Electrons and green molecules Desertec 1.0 Desertec 2.0 Desertec 3.0 Development phases of emission free energy from the deserts of MENA ©Dii Desert Energy 2 Dii Desert Energy Industry Network … Current Status of Associated Partners (June 2020) ©Dii Desert Energy 3 ... it’s all about international cooperation 0 ‘Dii Desert Energy’ Maintaining a network of associations, industrial initiatives, development banks &NGOs ©Dii Desert Energy 4 Rock bottom LCoE for solar and wind game changer for green hydrogen. Development will go fast 10 Declining PV price 2013-2020 9 8 7 Solar PV in MENA 2020: 1.3-2.5 USD cents/kWh 6 5 4 Wind in MENA 2020: 3 2-3 USD cents/kWh 2 1 0 New Mexico (First Texas (Recurrent Dubai (Acwa Saudi Mexico (EGP Dubai (ALJ+ Abu Dhabi Mexico (NEOEN Dubai (ACWA Abu Dhabi (EDF Solar 2013) Energy 2014) Power 2014) Arabia(Taqnia 2016) Masdar 2016) (Marubeni 2017) 2018) 2019) 2020) Energy 2015) Unsubsidized (cents/kWh) ©Dii Desert Energy Source: Clean Technica Note: Prices not strictly comparable due to a number of different factors 5 Main sensitivity for green hydrogen remains the price of electricity and sufficient full load hours 6 The MENA Hydrogen Alliance What role does hydrogen play in the energy transition? Decarbonize transportation