Direct Utilization of Geothermal Energy 2020 Worldwide Review
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Microgeneration Potential in New Zealand
Prepared for Parliamentary Commissioner for the Environment Microgeneration Potential in New Zealand A Study of Small-scale Energy Generation Potential by East Harbour Management Services ISBN: 1-877274-33-X May 2006 Microgeneration Potential in New Zealand East Harbour Executive summary The study of the New Zealand’s potential for micro electricity generation technologies (defined as local generation for local use) in the period up to 2035 shows that a total of approximately 580GWh per annum is possible within current Government policies. If electricity demand modifiers (solar water heating, passive solar design, and energy efficiency) are included, there is approximately an additional 15,800GWh per annum available. In total, around 16,400GWh of electricity can be either generated on-site, or avoided by adopting microgeneration of energy services. The study has considered every technology that the authors are aware of. However, sifting the technologies reduced the list to those most likely to be adopted to a measurable scale during the period of the study. The definition of micro electricity generation technologies includes • those that generate electricity to meet local on-site energy services, and • those that convert energy resources directly into local energy services, such as the supply of hot water or space heating, without the intermediate need for electricity. The study has considered the potential uptake of each technology within each of the periods to 2010, 2020, and 2035. It also covers residential energy services and those services for small- to medium-sized enterprises (SMEs) that can be obtained by on-site generation of electricity or substitution of electricity. -
Verordnung Ried Im Innkreis.Pdf
Verordnung des Bundesdenkmalamtes betreffend den pol. Bezirk Ried im Innkreis, Oberösterreich Auf Grund des § 2a des Denkmalschutzgesetzes, BGBl. I Nr. 170/1999, wird verordnet: § 1. Folgende unbewegliche Denkmale des (pol. und Ger.-) Bezirkes Ried im Innkreis, die gemäß § 2 oder § 6 Abs. 1 leg.cit. kraft gesetzlicher Vermutung unter Denkmalschutz stehen, werden unter die Bestimmungen des § 2a Denkmalschutzgesetz gestellt: Bezeichnung Adresse EZ Gst.Nr. KG Gemeinde 4754 Andrichsfurt Friedhof 46 839 46101 Andrichsfurth Kriegerdenkmal 94 843 46101 Andrichsfurth Bildstock Pötting 139 811/2 46101 Andrichsfurth Kath. Pfarrkirche Hl. Dreifaltigkeit 139 .120 46101 Andrichsfurth Bründlkapelle Hl. Dreifaltigkeit Pötting 139 .97 46101 Andrichsfurth Gemeinde 4980 Antiesenhofen Reichersberger Pfarrhof Straße 3 547 3115 46002 Antiesenhofen Kath. Pfarrkirche hl. Ägi- Reichersberger dius und Friedhof Straße OG 3158 548 .250, 3158 46002 Antiesenhofen Gemeinde 4971 Aurolzmünster Pfarrhof Rieder Straße 6 350 127/1 46104 Aurolzmünster Kath. Pfarrkirche hl. Mauritius 351 169/1 46104 Aurolzmünster Marktbrunnen Marktplatz, vor Nr. 32 370 270/10 46104 Aurolzmünster Gemeinde 4906 Eberschwang Pfarrhof, ehem. Tratten- bachsches Schlössl Eberschwang 8 8 310 46108 Eberschwang Elisabethkapelle 77 167 46108 Eberschwang Kath. Pfarrkirche Eberschwang hl. Michael OG. 18 384 .18 46108 Eberschwang Gemeinde 4971 Eitzing Pfarrhof, Kindergarten Eitzinger Pl. 4 126 .36 46109 Eitzing Kath. Pfarrkirche Mariä Kirchenplatz Himmelfahrt und Friedhof OG. 52 392 .52, 713 46109 Eitzing Gemeinde 4922 Geiersberg Kath. Pfarrkirche hl. Leonhard 331 .1 46113 Geiersberg Brunnenkapelle Geiersberg 367 2096/2 46113 Geiersberg Pestkapelle Pramerdorf 383 .204 46113 Geiersberg Gemeinde 4943 Geinberg Pfarrhof, ehem. Gemeinde- amt Kirchenplatz 4 221 536/10 46010 Geinberg Kath. Pfarrkirche hl. Michael, Friedhof und Friedhofsmauer Kirchenplatz 1 482 526 46010 Geinberg Rotes Kreuz 493 1790 46010 Geinberg Gemeinde 4942 Gurten Bezeichnung Adresse EZ Gst.Nr. -
Geothermal Energy
Geothermal energy Adele Manzella CNR - Institute of Geosciences and Earth Resources Via Moruzzi 1 – 56124 PISA, Italy [email protected] Geothermal Energy Pros Cons Research What is How is used frontiers Status and perspectives What is the source of geothermal energy? What part is used? What is Geothermal Energy IGG – Institute of Geosciences and Earth Resources National Research Council of Italy WHAT is Geothermal energy Geothermal Energy The basis of geothermal energy is the From Greek gêo (earth) e immense heat content of the earth’s thermòs (heat) interior: the Earth is slowly cooling down. Since billions of years the heat in the Earth Crust is constantly supplied by Heat inside the Earth the decay of natural radioactive isotopes or the cooling of hot, shallow magmatic ~ 30 °C/km bodies. > 1000 °C > 3000 °C The resource is vast and ubiquitous and > 5000 °C has a corresponding large potential for utilization. WHAT is Geothermal energy Temperature in the ground has a daily (few cm) and seasonal (few meters) fluctuations, becoming essentially constant and equal to the average air temperature at about 18-20 m depth. Below this depth, it essentially increases with depth (geothermal gradient). Shallow geothermal: exploits the underground constant T= average air T The resource is vast and ubiquitous and has a corresponding large potential for Deep geothermal: exploits the utilization. underground heat at T>> air T WHAT is Geothermal energy The temperature increase with depth, as well as volcanoes, geysers, hot springs etc., are in a sense the visible or tangible expression of the heat in the interior of the Earth, but this heat also engenders other phenomena that are less discernable by man, but of such magnitude that the Earth has been compared to an immense "thermal engine”. -
Provision of Technical Support/Services for an Economical
A project financed by the Ministry of Foreign Affairs of Denmark Provision of Technical Support/Services for an Economical, Technological and Environmental Impact Assessment of National Regulations and Incentives for Renewable Energy and Energy Efficiency Country Report Yemen January 2010, revised April 2010 Norsk-Data-Str. 1 Döppersberg 19 61352 Bad Homburg, Germany 42103 Wuppertal, Germany Tel: +49-6172-9460-103, Fax. +49-6172-9460-20 Tel: +49-202-2492-0, Fax: +49-202-2492-108 eMail: [email protected] eMail: [email protected] http://www.mvv-decon.com http://www.wupperinst.org Table of Contents Page 1. Project Synopsis 1 2. Summary of Energy Situation in Yemen 2 3. Comparison of Yemeni Practice with International Practice in Energy Efficiency 4 3.1 Strategy 4 3.2 Legal Reform 6 3.3 Price Reform 6 3.4 An Agency 8 3.5 Standards and / or Labels 9 3.6 Financial Incentives 10 3.7 Obligations 11 3.8 Audits and the Promotion of ESCOs 12 3.9 Transport and Spatial Planning 12 3.10 Dissemination of Information 13 4. Comparison of Yemeni Practice with International Practice in Renewable Energy 14 4.1 Targets and Strategy 14 4.2 Legal Reform 16 4.3 An Agency 18 4.4 Standards and /or Labels 19 4.5 Financial Incentives (Capital Support) 19 4.6 Feed-in Tariffs and Obligations 20 4.7 CDM Finance 21 4.8 Information 22 4.9 Industrial Policy 22 5. Case Studies 24 5.1 Case Study 1 - Efficient Lighting in Public Buildings 24 5.1.1 Background and Context 24 5.1.1.1 Programme of Activities 24 5.1.1.2 The Lighting market in Yemen 25 -
Successful Experience of Renewable Energy Development in Several Offshore Islands
Available online at www.sciencedirect.com ScienceDirect Energy Procedia 100 ( 2016 ) 8 – 13 3rd International Conference on Power and Energy Systems Engineering, CPESE 2016, 8-12 September 2016, Kitakyushu, Japan Successful experience of renewable energy development in several offshore islands Jhih-Hao Lina, Yuan-Kang Wub*, Huei-Jeng Lina aDepartment of Engineering Science and Ocean Engineering, National Taiwan University, No. 1, Sec. 4, Roosevelt Rd., Taipei 10617, Taiwan bDepartment of Electrical Engineering, National Chung Cheng University, No.168, Sec. 1, University Rd., Chiayi 62102, Taiwan Abstract Islands incur more difficult and expensive energy supplies; many offshore islands, therefore, develop renewable energy to supply energy and reduce CO2 emissions. However, most of renewable energy sources, such as wind and solar, are intermittent and variable sources of power. To overcome the integration problems, numerous islands have utilized several useful methods. For instance, the island of Gran Canaria applied the pumped storage systems to reutilize energy, and the island of Lolland developed renewable hydrogen community. The operation experience of these islands is extremely worthy to appreciate. This article introduces eight offshore islands and discusses about their present situations, policies, successful experience and challenges about renewable energy development. Those islands include Samso, Reunion, Cyprus, Crete, King Island, Agios Efstratios, Utsira and El Hierro. The successful experience on those islands can provide useful information for other islands for developing renewable energy. ©© 20162016 The The Authors. Authors. Published Published by Elsevierby Elsevier Ltd. LtdThis. is an open access article under the CC BY-NC-ND license (Peer-http://creativecommons.org/licenses/by-nc-nd/4.0/review under responsibility of the organizing). -
And Geothermal Power in Iceland a Study Trip
2007:10 TECHNICAL REPORT Hydro- and geothermal power in Iceland A study trip Ltu and Vattenfall visit Landsvirkjun May 1-5, 2007 Isabel Jantzer Luleå University of Technology Department of Civil, Mining and Environmental Engineering Division of Mining and Geotechnical Engineering 2007:10|: 102-1536|: - -- 07⁄10 -- Hydro- and geothermal power in Iceland A study trip Ltu and Vattenfall visit Landsvirkjun May 1 – 5, 2007 Iceland is currently constructing the largest hydropower dam in Europe, Kárahnjúkar. There are not many possibilities to visit such construction sites, as the opportunity to expand hydropower is often restricted because of environmental or regional regulations limitations. However, the study trip, which was primarily designed for the visitors from Vattenfall, gave a broad insight in the countries geology, energy resources and production, as well as industrial development in general. This report gives an overview of the trip, summarizes information and presents pictures and images. I want to thank Vattenfall as organization, as well as a large number of individuals at Vattenfall, for giving me the opportunity for participation. Further, I want to express my sincere gratitude to the Swedish Hydropower Center, i.e. Svensk Vattenkraft Centrum SVC, Luleå University of Technology, and individuals at Elforsk for providing me the possibility to take part in this excursion. It has been of great value for me as a young person with deep interest in dam design and construction and provided me with invaluable insights. Luleå, May 2007 Isabel Jantzer Agenda During three days we had the possibility to travel over the country: After the first day in Reykjavik, we flew to Egilstadir in the north eastern part of the country, from where we drove to the Kárahnjúkar dam site and visited the Alcoa aluminium smelter at Reydarfjördur Fjardaál afterwards. -
Renewable Energy in Small Islands
Renewable Energy on Small Islands Second edition august 2000 Sponsored by: Renewable Energy on Small Islands Second Edition Author: Thomas Lynge Jensen, Forum for Energy and Development (FED) Layout: GrafiCO/Ole Jensen, +45 35 36 29 43 Cover photos: Upper left: A 55 kW wind turbine of the Danish island of Aeroe. Photo provided by Aeroe Energy and Environmental Office. Middle left: Solar water heaters on the Danish island of Aeroe. Photo provided by Aeroe Energy and Environmental Office. Upper right: Photovoltaic installation on Marie Galante Island, Guadeloupe, French West Indies. Photo provided by ADEME Guadeloupe. Middle right: Waiah hydropower plant on Hawaii-island. Photo provided by Energy, Resource & Technology Division, State of Hawaii, USA Lower right: Four 60 kW VERGNET wind turbines on Marie Galante Island, Guadeloupe, French West Indies. Photo provided by ADEME Guadeloupe. Printing: Vesterkopi Printing cover; Green Graphic No. printed: 200 ISBN: 87-90502-03-5 Copyright (c) 2000 by Forum for Energy and Development (FED) Feel free to use the information in the report, but please state the source. Renewable Energy on Small Islands – Second Edition August 2000 Table of Contents Table of Contents Foreword and Acknowledgements by the Author i Introduction iii Executive Summary v 1. The North Atlantic Ocean Azores (Portugal) 1 Canary Island (Spain) 5 Cape Verde 9 Faeroe Islands (Denmark) 11 Madeira (Portugal) 13 Pellworm (Germany) 17 St. Pierre and Miquelon (France) 19 2. The South Atlantic Ocean Ascension Island (UK) 21 St. Helena Island (UK) 23 3. The Baltic Sea Aeroe (Denmark) 25 Gotland (Sweden) 31 Samsoe (Denmark) 35 4. -
Autumn 1997 of Proportional Representation for a Term of Four Years
The Economy of Iceland CENTRAL BANK OF ICELAND The Economy of Iceland October 1997 Published semi-annually by the International Department of the Central Bank of Iceland, 150 Reykjavík, Iceland ISSN 1024 - 0039 REPUBLIC OF ICELAND People Population.......................................269,735 (December 1, 1996) Capital.............................................Reykjavík, 105,487 (December 1, 1996) Language........................................Icelandic; belongs to the Nordic group of Germanic languages Religion...........................................Evangelical Lutheran (95%) Life expectancy...............................Females: 81 years , Males: 75 years Governmental System Government ....................................Constitutional republic Suffrage ..........................................Universal, over 18 years of age Legislature ......................................Alþingi (Althing); 63 members Election term...................................Four years Economy Monetary unit ..................................Króna (plural: krónur); currency code: ISK Gross domestic product..................487 billion krónur (US$ 7.3 billion) in 1996 International trade...........................Exports 36% and imports 36% of GDP in 1996 Per capita GDP...............................1,760 thousand krónur (US$ 26.900) in 1996 Land Geographic size..............................103,000 km2 (39,768 mi2) Highest point...................................2,119 m (6,952 ft) Exclusive economic zone ...............200 nautical miles (758,000 km2 -
Legal Framework and National Policy for Geothermal Development in Iceland
Proceedings World Geothermal Congress 2015 Melbourne, Australia, 19-25 April 2015 Legal Framework and National Policy for Geothermal Development in Iceland Jonas Ketilsson, Harpa Th. Petursdottir, Skuli Thoroddsen, Anna L. Oddsdottir, Erna R. Bragadottir, Maria Gudmundsdottir, Gudni A. Johannesson Orkustofnun, Grensasvegi 9, IS-108 Reykjavik, Iceland Corresponding author: [email protected] Keywords: Legal, law, energy, regulatory, official, monitoring, geothermal, statistics, policy, Master Plan, Iceland, Europe. ABSTRACT In this paper, a description is given of the national policy, legal framework, official monitoring and accumulation of geothermal energy statistics in Iceland in a global context. The legal framework and amendments to the energy legal framework since 2010 will be reviewed. In particular the effect of Act for the Master Plan for the Utilization and Protection of Energy Resources no. 48/2011 which sets up the legal framework for the Master Plan which has been in preparation since 1999, where geothermal and hydro resources are categorized to be exploited, protected or further researched. It is the policy of the Government of Iceland to increase the utilization of energy resources and hence governmental support was increased for new geothermal based heat utilities by 50% even though 9 out of 10 households are heated with geothermal energy. The Icelandic National Renewable Energy Action Plan was published in year 2012 in accordance with Directive 2009/28/EC which outlines the strategy for 2020 and goals of geothermal utilization. In accordance with the plan, electricity generation from geothermal sources is estimated to increase by 12% from 5.2 TWh in year 2014 to 5.8 TWh in year 2020 and geothermal heat use from 28.1 PJ in year 2014 to 34 PJ in year 2020. -
A New Model for Defeating Al Qaeda in Yemen
A New Model for Defeating al Qaeda in Yemen Katherine Zimmerman September 2015 A New Model for Defeating al Qaeda in Yemen KATHERINE ZIMMERMAN SEPTEMBER 2015 A REPORT BY AEI’S CRITICAL THREATS PROJECT TABLE OF CONTENTS Executive Summary ....................................................................................................................................... 1 Introduction ................................................................................................................................................. 3 Part I: Al Qaeda and the Situation in Yemen ................................................................................................. 5 A Broken Model in Yemen ...................................................................................................................... 5 The Collapse of America’s Counterterrorism Partnership ........................................................................ 6 The Military Situation in Yemen ........................................................................................................... 10 Yemen, Iran, and Regional Dynamics ................................................................................................... 15 The Expansion of AQAP and the Emergence of ISIS in Yemen ............................................................ 18 Part II: A New Strategy for Yemen ............................................................................................................. 29 Defeating the Enemy in Yemen ............................................................................................................ -
Geothermal Gradient Calculation Method: a Case Study of Hoffell Low- Temperature Field, Se-Iceland
International Research Journal of Geology and Mining (IRJGM) (2276-6618) Vol. 4(6) pp. 163-175, September, 2014 DOI: http:/dx.doi.org/10.14303/irjgm.2014.026 Available online http://www.interesjournals.org/irjgm Copyright©2014 International Research Journals Full Length Research Paper Geothermal Gradient Calculation Method: A Case Study of Hoffell Low- Temperature Field, Se-Iceland Mohammed Masum Geological Survey of Bangladesh, 153, Pioneer Road, Segunbagicha, Dhaka-1000, BANGLADESH E-mail: [email protected] ABSTRACT The study area is a part of the Geitafell central volcano in southeast Iceland. This area has been studied extensively for the exploration of geothermal resources, in particular low-temperature, as well as for research purposes. During the geothermal exploration, geological maps should emphasize on young corresponding rocks that could be act as heat sources at depth. The distribution and nature of fractures, faults as well as the distribution and nature of hydrothermal alteration also have to known. This report describes the results of a gradient calculation method which applied to low-temperature geothermal field in SE Iceland. The aim of the study was to familiarize the author with geothermal gradient mapping, low-temperature geothermal manifestations, as well as studying the site selection for production/exploration well drilling. Another goal of this study was to make geothermal maps of a volcanic field and to analyse if some relationship could be established between the tectonic settings and the geothermal alteration of the study area. The geothermal model of the drilled area is consistent with the existence of a structurally controlled low-temperature geothermal reservoir at various depths ranging from 50 to 600 m. -
Feedback Loop Report
FEEDBACK LOOP REPORT Progress in energy efficiency policies in the EU Member States Findings from the Energy Efficiency Watch 3 Project 2016 Stefan Thomas, Felix Suerkemper, Thomas Adisorn, Dorothea Hauptstock, Carolin Schäfer-Sparenberg, Lena Tholen, Florin Vondung (Wuppertal Institut) Daniel Becker, Lucie Tesniere, Sonja Förster (Ecofys) Christiane Egger (OÖ Energiesparverband) Jan Geiss, Roxane Roth, Lucia Bayer (Eufores) Peter Schilken, Kristina Dely (Energy Cities) Dominique Bourges (Fedarene) Nils Borg (eceee) Energy Efficiency Watch 3 – Feedback Loop Report Disclaimer: The sole responsibility for the content of this publication lies with the authors. It does not necessarily reflect the opinion of the European Union. Neither the EASME nor the European Commission are responsible for any use that may be made of the information contained therein. Energy Efficiency Watch 3 – Feedback Loop Report ii Executive Summary The core objective of Energy Efficiency Watch 3 (EEW3) is to establish a constant feedback loop on the implementation of European and national energy efficiency policies and thus enable both compliance monitoring and mutual learning on effective policy making across the EU. The project team applied a mixed-method approach to assess energy efficiency policy developments in EU Member States. EEW3 analysed the progress made in the implementation of energy efficiency policies in European Member States since the publication of the second National Energy Efficiency Action Plans (NEEAPs) in 2011 by screening official documents, sought experts’ knowledge via an EU-wide survey and has been creating new consultation platforms with a wide spectrum of stakeholders including parliamentarians, regions, cities and business stakeholders. Results are presented in Country Reports for each of the 28 Member States, the Expert Survey Report, 10 Case Studies presenting outstanding energy efficiency policies in Europe, the Key Policy Conclusions, the project summary report in brochure format and this Feedback Loop Report, which summarises the overall EEW3 portfolio.