A Sustain Able Future
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FEL 2019 Booklet
FEL 2019 Booklet 1 2 Participants ___________________________________________________________________ 3 4 All Participants Ulrike Hinz Strategy Development Manager 50Hertz Transmission GmbH Germany Meriem Bellizim Senior Manager - Business ACWA Power Algeria Development, Business Development Department Ilona Valimaa Environmental Expert ÅF Finland Eduardo Cisneros Business Development Manager Aggreko Peru Peru & Bolivia Alena Fargere Economist, Strategy & Marketing Air Liquide France team, Hydrogen Energy World Business Unit Umesh Bhutoria Chief Operating Officer Algo EnergyTech Ventures India Private Limited Olga Bogdanova Supervisory Board Member AS Augstsprieguma tīkls Latvia Yuri Cavero Zonal Coordinator - Learning Barefoot College Peru Communities Project Arwa Guesmi Energy Innovation Fellow CleanChoice Energy Tunisia David Munoz CEO Diurna Energy, Inc. Mexico Andrade Aaesha Alnuaimi senior researcher Dubai Electricity and Water United Arab Emirates Authority James Carton Principal Investigator Dublin City University Ireland Adeola Adebiyi Programme Officer ECOWAS Centre for Renewable Cape Verde Energy and Energy Efficiency Pedro Ernesto Eletrical Enginner EDP Portugal Ferreira Nuno Silva Technology and Innovation EFACEC Energy Portugal Director 5 Mihai Toader-Pasti Cofounder & General Manager EFdeN, energiaTa Romania Salwa El- Senior Performance Evaluation and Egyptian Electricity Holding Egypt (Arab Rep.) Samanoudy Power Projects Follow up Engineer Company Felix Khembo Senior Economist Electricity Generation Company Malawi Malawi -
Passivhaus in the UK: the Challenges of an Emerging Market a Case Study of Innovation Using Mixed Methods Research
UCL Passivhaus in the UK: The Challenges of an Emerging Market A Case Study of Innovation using Mixed Methods Research Henrietta Lynch I would like to thank everybody who has helped me with this thesis. Personal Statement Henrietta has a multi-disciplinary built environment design background. She has degree and masters level academic qualifications in Fine Art, Architecture, Lighting Design and Environmental Design and Engineering. During her career she has worked with designers, architects and engineers in the UK and Germany. In addition to this she has also taught in UK higher education as a visiting lecturer at the University of Westminster, School of Architecture and the Built Environment (SABE), University College London (UCL) and as a lecturer at The Centre for Alternative Technology (CAT) and at the University of Hertfordshire. 1 ‘The principle lesson perhaps being that, while it is all too easy for me to carp on about what is wrong with the Passivhaus standard, or why it is not quite the dog’s bollocks (try translating that!), they have built loads of them. And the more they build, the less theoretical it becomes and the more practical it appears. Whereas we may be full of good intentions, the Germans (and the Austrians, who seem to be even more enamoured of Passivhaus than the Germans) have now built around 6,000’ (Brinkley, 2007) 2 Abstract In 2006 the UK government announced policy intentions and introduced associated building design standards and up-dated Building Regulations for all new housing to be ‘zero carbon’ by 2016 and all new non-domestic buildings to be ‘zero carbon’ by 2019. -
Energiewende 2030: the Big Picture
Energiewende 2030: The Big Picture Megatrends, Targets, Strategies and a 10-Point Agenda for the Second Phase of Germany’s Energy Transition IMPULSE Denmark Norway Sweden Power System in 2030 1 4 3 11 3 8 New underground cables and long-distance transmission lines Existing high-voltage lines Schleswig- Gross power Holstein generation* O shore wind Mecklenburg- Vorpommern Onshore wind Photovoltaic Biomass Hamburg Poland Hydropower Netherlands Nuclear 10 6 14 4 Bremen Lignite Berlin Hard coal Natural gas Pumped storage Lower Branden- Saxony burg Power demand* North Rhine- Industry Westphalia Saxony- Transport Belgium Anhalt Buildings 5 1 International electricity trading** Saxony Gross power production TWh Power imports (TWh) Nuclear 0 Power exports (TWh) Lignite ~ 60 Hesse Thuringia * Each symbol generally Hard coal ~ 80 represents 5 terawatt-hours of Luxembourg Natural gas ~ 70 generation and consumption. In 4 0 the case of smaller German states, ~ 10 the symbols may represent a little Czech Republic Pumped storage less than this amount for depictive Misc. ~ 20 reasons. 7 4 Onshore wind ~ 170 ** International electricity trade flows have been estimated using Rhineland- O shore wind ~ 80 a scenario that models a Palatinate European-wide transition to Photovoltaic ~ 70 renewables (assumptions: ~ 30 European/national renewable France Biomass expansion targets are met, share of renewables > 50 %, stable Hydropower ~ 20 power demand despite integration 12 6 Saarland of energy sectors, expansion of Total ~ 610 international grid connections). -
Powerfuels in a Renewable Energy World - Global Volumes, Costs, and Trading 2030 to 2050
Pin a Renewable WERFUELS Energy World Global Volumes, Costs, and Trading 2030 to 2050 – + Publisher: Deutsche Energie-Agentur GmbH (dena) German Energy Agency Chausseestraße 128 a 10115 Berlin, Germany Tel.: + 49 (0)30 66 777-0 Fax: + 49 (0)30 66 777-699 E-mail: [email protected] www.dena.de Authors: LUT: Manish Ram, Tansu Galimova, Dmitrii Bogdanov, Mahdi Fasihi, Ashish Gulagi, Christian Breyer dena: Matteo Micheli, Kilian Crone Conception & design: Heimrich & Hannot GmbH Date: 12/2020 All rights reserved. Any use is subject to consent by dena. Please cite this report as: Ram M., Galimova T., Bogdanov D., Fasihi M., Gulagi A., Breyer C., Micheli M., Crone K. (2020). Powerfuels in a Renewable Energy World - Global volumes, costs, and trading 2030 to 2050. LUT University and Deutsche Energie-Agentur GmbH (dena). Lappeenranta, Berlin. ISBN: 978-952-335-551-4 Lappeenranta-Lahti University of Technology Research Reports Serial Number: 112. ISSN-L 2243-3376 ISSN: 2243-3376 Lappeenranta, Berlin, 2020 Content Executive Summary .............................................................................................................................4 1 Introduction .................................................................................................................................... 10 2 Methods and Data: Modelling the global energy system transition with powerfuels ............................................................................................................................. 13 Industrial fuel production .......................................................................................................................................... -
World Energy Outlook 2019 Executive Summary Executive Summary
World Energy Outlook 2019 Executive Summary Executive Summary The energy world is marked by a series of deep disparities. The gap between the promise of energy for all and the fact that almost one billion people still do not have access to electricity. The gap between the latest scientific evidence highlighting the need for ever- more-rapid cuts in global greenhouse gas emissions and the data showing that energy- related emissions hit another historic high in 2018. The gap between expectations of fast, renewables-driven energy transitions and the reality of today’s energy systems in which reliance on fossil fuels remains stubbornly high. And the gap between the calm in well- supplied oil markets and the lingering unease over geopolitical tensions and uncertainties. More than ever, energy decision makers need to take a hard, evidence-based look at where they stand and the implications of the choices they make. The World Energy Outlook does not provide a forecast of what will happen. Instead, it provides a set of scenarios that explore different possible futures, the actions – or inactions – that bring them about and the interconnections between different parts of the system. Understanding our scenarios The Current Policies Scenario shows what happens if the world continues along its present path, without any additional changes in policy. In this scenario, energy demand rises by 1.3% each year to 2040, with increasing demand for energy services unrestrained by further efforts to improve efficiency. While this is well below the remarkable 2.3% growth seen in 2018, it would result in a relentless upward march in energy-related emissions, as well as growing strains on almost all aspects of energy security. -
World Energy Scenarios 2019
World Energy Scenarios 2019 Exploring Innovation Pathways to 2040 In Collaboration with Accenture Strategy and the Paul Scherrer Institute ABOUT THE WORLD ENERGY COUNCIL ABOUT THE REPORT The World Energy Council is the principal impartial Scenarios provide an inclusive and strategic framework network of energy leaders and practitioners promoting that enables big-picture thinking. They are designed an affordable, stable and environmentally sensitive to be used as a set to explore and navigate what might energy system for the greatest benefit of all. happen and support a better-quality global strategic dialogue on the future of energy systems. Formed in 1923, the Council is the UN-accredited global energy body, representing the entire energy spectrum, In 2016, the World Energy Council and its scenarios with over 3,000 member organisations in over 90 partners, Accenture Strategy Energy and the Paul countries, drawn from governments, private and state Scherrer Institute, introduced the World Energy corporations, academia, NGOs and energy stakeholders. Scenarios which explore three plausible pathways for We inform global, regional and national energy strategies energy transition to 2060. by hosting high-level events including the World Energy Over the last three years this scenario framework has Congress and publishing authoritative studies, and work been validated by input from the Council’s extensive through our extensive member network to facilitate the energy expert member community. The three scenarios world’s energy policy dialogue. are perceived to be more relevant than ever. Further details at www.worldenergy.org In this scenarios refresh, the Council has adopted a and @WECouncil medium-term time horizon of 2040 and focused on the Published by the World Energy Council 2019 implications of broader and disruptive innovation for the energy industry. -
Renewable Energy: Bonn, Germany Vs. Los Angeles, California
Renewable Energy: Bonn, Germany vs. Los Angeles, California By: Caroline Chavos, Julian Cordon, Ashley Leroi, Hannah Newkirk and Ryan Steffens December 17, 2020 Page | 1 Table of Contents Executive Summary 3 The Renewable Energy Industry 4 Market Drivers 5 Growth Rates & Patterns 5 Future Trends 6 Economic Dynamics 6 Cost Structure 7 Energiewende 7 Paris Climate Agreement 8 Germany Steps Down as the International Climate Champions 9 Germany and US Policies in Renewable Energy 10 Environmental Taxes 11 Climates 122 Photovoltaics and Solar Panels 12 Challenges within the Photovoltaic Sector 13 Energy Consumption by Country 14 Case Study: Germany at the Forefront 17 Recommendations 20 Bibliography Error! Bookmark not defined. Page | 2 Executive Summary This paper will discuss the similarities and differences of the renewable energy industry in the cities of Bonn, Germany, and Los Angeles, California. Bonn has been a global leader in the fight against climate change but their high ranking has been compromised. This report discusses the reasons for this negative shift and delves into the positive impacts in the overall renewable energy trend that Germany has made. Bonn is compared to Los Angeles, one of the lower-ranked cities when it comes to the topic of climate change, due to the pollution and nonrenewable energy the city uses. Recommendations are made for each city based on the research conducted. Topics that will be discussed in this paper include: • Analysis of the renewable energy industry • Germany’s Engeriewende policy • The Paris Climate Agreement & criticism of Germany • Differences and similarities in energy policies between the United States and Germany • Climates of each country • Energy consumption by country (Germany vs. -
World Energy Trilemma Index 2020
World Energy Trilemma Index In partnership with Oliver Wyman ABOUT WORLD ENERGY TRILEMMA INDEX 2020 The World Energy Council is the principal impartial The World Energy Council’s definition of energy sus- network of energy leaders and practitioners tainability is based on three core dimensions: Energy promoting an affordable, stable and environmentally Security, Energy Equity, and Environmental Sustainability sensitive energy system for the greatest benefit of all. of Energy Systems. Formed in 1923, the Council represents the entire Balancing these three goals constitutes a ‘Trilemma’ and energy spectrum, with over 3,000 member balanced systems enable prosperity and competitiveness organisations in over 80 countries, drawn from of individual countries. governments, private and state corporations, academia, NGOs and energy stakeholders. The World Energy Trilemma Index has been prepared We inform global, regional and national energy annually since 2010 by the World Energy Council in strategies by hosting high-level events including the partnership with global consultancy Oliver Wyman, along World Energy Congress and publishing authoritative with Marsh & McLennan Advantage of its parent Marsh studies, and work through our extensive member & McLennan Companies. It presents a comparative network to facilitate the world’s energy ranking of 128 countries’ energy systems. It provides an policy dialogue. assessment of a country’s energy system performance, reflecting balance and robustness in the three Trilemma Further details at www.worldenergy.org dimensions. and @WECouncil Access the complete Index results, national Trilemma WORLD ENERGY COUNCIL ENERGY WORLD Published by the World Energy Council 2020 profiles and the interactive Trilemma Index tool to find out more about countries’ Trilemma performance and Copyright © 2020 World Energy Council. -
Renewable Energy Technologies CHAPTER 7
renewable energy technologies CHAPTER 7 Wim C. Turkenburg (Netherlands) LEAD AUTHORS: Jos Beurskens (Netherlands), André Faaij (Netherlands), Peter Fraenkel (United Kingdom), Ingvar Fridleifsson (Iceland), Erik Lysen (Netherlands), David Mills (Australia), Jose Roberto Moreira (Brazil), Lars J. Nilsson (Sweden), Anton Schaap (Netherlands), and Wim C. Sinke (Netherlands) CONTRIBUTING AUTHORS: Per Dannemand Andersen (Denmark), Sheila Bailey (United States), Jakob Björnsson (Iceland), Teun Bokhoven (Netherlands), Lex Bosselaar (Netherlands), Suani Teixeira Coelho (Brazil), Baldur Eliasson (Switzerland), Brian Erb (Canada), David Hall (United Kingdom), Peter Helby (Sweden), Stephen Karekezi (Kenya), Eric Larson (United States), Joachim Luther (Germany), Birger Madson (Denmark), E.V.R. Sastry (India), Yohji Uchiyama (Japan), and Richard van den Broek (Netherlands) ABSTRACT In 1998 renewable energy sources supplied 56 ± 10 exajoules, or about 14 percent of world primary energy consumption. The supply was dominated by traditional biomass (38 ± 10 exajoules a year). Other major contributions came from large hydropower (9 exajoules a year) and from modern biomass (7 exajoules). The contribution of all other renewables—small hydropower, geothermal, wind, solar, and marine energy—was about 2 exajoules. That means that the energy supply from new renewables was about 9 exajoules (about 2 percent of world consumption). The commercial primary energy supply from renewable sources was 27 ± 6 exajoules (nearly 7 percent of world consumption), with 16 ± 6 exajoules from biomass. Renewable energy sources can meet many times the present world energy demand, so their potential is enormous. They can enhance diversity in energy supply markets, secure long-term sustainable energy supplies, and reduce local and global atmospheric emissions. They can also provide commercially attractive options to meet specific needs for energy services (particularly in developing countries and rural areas), create new employment opportunities, and offer possibilities for local manufacturing of equipment. -
Integrationcriteriaan Dguidelines
S O L A R E N E R G Y S Y S T E M S I N A R C H I T E C T U R E in t e g r a t i o n c r i t e r i a an d g u i d e l i n e s T.41.A.2 I Task 41 ‐ Solar energy & Architecture International Energy Agency ‐ Solar Heating and Cooling Programme Report T.41.A.2: IEA SHC Task 41 Solar energy and Architecture SOLAR ENERGY SYSTEMS IN ARCHITECTURE integration criteria and guidelines Keywords Solar energy, architectural integration, solar thermal, photovoltaics, active solar systems, solar buildings, solar architecture, solar products, innovative products, building integrability, integration examples. Editors MC Munari Probst, C Roecker September 2012 AUTHORS AND CONTRIBUTORS AFFILIATIONS (IN ALPHABETICAL ORDER): Marja Edelman (contributor) Marja Lundgren (contributor) Kim Nagel (contributor) Formerly of EPFL‐LESO White Arkitekter Formerly of SUPSI, Institute for Applied Bâtiment LE P.O. Box 4700 Sustainability to the Built Environment Station 18 Östgötagatan 100 (ISAAC) CH‐1015 Lausanne SE‐116 92 Stockholm Swiss BiPV Centre of competence SWITZERLAND SWEDEN Campus Trevano [email protected] [email protected] CH ‐ 6952 Canobbio SWITZERLAND [email protected] Francesco Frontini (author) Maria Cristina Munari Probst Alessandra Scognamiglio (author) University of Applied Sciences and Arts (editor/author) ENEA (Italian National Agency for New of Southern Switzerland (SUPSI) Subtask co‐leader, Subtask A Technologies, Energy and Sustainable Institute for Applied Sustainability to Laboratoire d’Energie Solaire (LESO) Economic Development) UTTP Portici the Built Environment (ISAAC) Ecole Polytechnique Fédérale Lausanne Piazzale E. -
A U Tu MN 2007 Issu E
TOPIC: MILTON KEYNES 104 AT 40 E U SS FRANCIS TIBBALDS AWARD PROJECTS SHORTLIST: 2007 I HOLT TOWN MN GRAHAME PARK U T U A PRICE £5.00 ISSN 1750 712X UDG UPDATE Ben van Bruggen, the UDG’s Chair reflects on its role 30 years on As Milton Keynes is forty years of age, voice for urban design in this country, ways of being professional in urban we are able to view it with a degree of for professionalism in urban design design. objectivity. The Urban Design Group and for raising standards. Our current I’m not sure what the UDG will is approaching a more youthful thirty Executive – a mix of enthusiastic look like in ten years’ time when it too years, and while it may not be the time educators, architects, urban designers, hits forty, but I believe that it will still to settle down just yet, we can think of town planners, both retired and be growing and prospering, enticing ourselves as grown-up and mature. It practising – and the broad range of a younger generation to participate seems legitimate to ask too whether the interests that make up the membership through its membership, and promoting UDG is still as relevant today as it was are well equipped to provide this. debate about good urban design and thirty years ago. Do we still need it? One outcome of the recent Executive quality of life - much like Milton Keynes. My view is yes. Simply put, if the Awayday was not that we need to invent UDG did not exist today we would want a new profession (a new town, if you Ben van Bruggen to invent it. -
Wind Power Energy in Québec and in Sweden Justin Rouillard Can the Province of Québec (Canada) Learn from Sweden in the Field of Wind Power Energy?
Wind Power Energy in Québec Examensarbete i Hållbar Utveckling 88 and in Sweden Can the province of Québec (Canada) learn from Sweden in the field of wind power energy? Wind Power Energy in Québec and in Sweden Justin Rouillard Can the province of Québec (Canada) learn from Sweden in the field of wind power energy? Justin Rouillard Uppsala University, Department of Earth Sciences Master Thesis E, in Sustainable Development, 30 credits Printed at Department of Earth Sciences, Master’s Thesis Geotryckeriet, Uppsala University, Uppsala, 2012. E, 30 credits Examensarbete i Hållbar Utveckling 88 Wind Power Energy in Québec and in Sweden Can the province of Québec (Canada) learn from Sweden in the field of wind power energy? Justin Rouillard Supervisor: Mikael Höök Evaluator: Kjell Aleklett Content 1. Introduction ……………………………………………………………………………………….5 1.1 Aims and Scope …………………………………………………………………………………….5 1.2 Comparing Québec and Sweden ………………………………………………………………….. 6 1.3 Layout ……………………………………………………………………………………………....7 1.4 Limitations ……………………………………………………………………………………….....8 2. Pollution and Energy Systems …………………………………………………………………....9 2.1 The Situation in Québec …………………………………………………………………………....9 2.2 The Situation in Sweden ………………………………………………………………………….12 2.3 Comparison between Québec and Sweden ……………………………………………………….20 3. Wind Power Energy ……………………………………………………………………………..23 3.1 History of Wind Power Energy …………………………………………………………………...23 3.2 Wind Power in Québec ……………………………………………………………………………25 3.3 Wind Power in Sweden …………………………………………………………………………...27 3.4 Comparison between Québec and Sweden ……………………………………………………….29 3.5 Advantages and Disadvantages of Wind Power ………………………………………………….29 4. Government Regulations and Incentives to Wind Power ……………………………………..34 4.1 Québec’s Strategy …………………………………………………………………………………34 4.2 Sweden’s Strategy ………………………………………………………………………………...36 4.3 Comparison between Québec and Sweden ………………………………………………………..39 4.4 Other Examples in the World ……………………………………………………………………. 39 4.5 Wind Economics ………………………………………………………………………………..