Go.Rleben International Review
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Statusbericht Zur Kernenergienutzung in Der Bundesrepublik Deutschland 2019
Statusbericht zur Kernenergienutzung in der Bundesrepublik Deutschland 2019 Abteilung Nukleare Sicherheit und atomrechtliche Aufsicht in der Entsorgung Ines Bredberg Johann Hutter Andreas Koch Kerstin Kühn Katarzyna Niedzwiedz Klaus Hebig-Schubert Rolf Wähning BASE-KE-01/20 Bitte beziehen Sie sich beim Zitieren dieses Dokumentes immer auf folgende URN: urn:nbn:de:0221-2020092123025 Zur Beachtung: Die BASE-Berichte und BASE-Schriften können von den Internetseiten des Bundesamtes für die Sicherheit der nuklearen Entsorgung unter http://www.base.bund.de kostenlos als Volltexte heruntergeladen werden. Salzgitter, September 2020 Statusbericht zur Kernenergie- nutzung in der Bundesrepublik Deutschland 2019 BASE Abteilung Nukleare Sicherheit und atomrechtliche Aufsicht in der Entsorgung Ines Bredberg Johann Hutter Andreas Koch Kerstin Kühn Katarzyna Niedzwiedz Klaus Hebig-Schubert Rolf Wähning Inhalt ABKÜRZUNGSVERZEICHNIS ......................................................................................................................... 6 1 ELEKTRISCHE ENERGIEERZEUGUNG IN DEUTSCHLAND .............................. 11 1.1 ALLGEMEINES .................................................................................................................................. 11 1.2 DAS ERNEUERBARE-ENERGIEN-GESETZ .................................................................................... 12 1.3 AUSSTIEG AUS DER STROMERZEUGUNG DURCH KERNENERGIE ......................................... 12 1.3.1 Stand der Atomgesetzgebung in Deutschland .................................................................................. -
This Article Was Published in an Elsevier Journal. the Attached Copy
This article was published in an Elsevier journal. The attached copy is furnished to the author for non-commercial research and education use, including for instruction at the author’s institution, sharing with colleagues and providing to institution administration. Other uses, including reproduction and distribution, or selling or licensing copies, or posting to personal, institutional or third party websites are prohibited. In most cases authors are permitted to post their version of the article (e.g. in Word or Tex form) to their personal website or institutional repository. Authors requiring further information regarding Elsevier’s archiving and manuscript policies are encouraged to visit: http://www.elsevier.com/copyright Author's personal copy Progress in Nuclear Energy 49 (2007) 365e374 www.elsevier.com/locate/pnucene Review Permanent underground repositories for radioactive waste Norbert T. Rempe* 1403 N. Country Club Circle, Carlsbad, NM 88220, USA Abstract Solid radioactive waste first entered a deep geologic repository in 1959. Liquid radioactive waste has been injected into confined underground reservoirs since 1963. Solid wastes containing chemically toxic constituents with infinite half lives have been isolated underground since 1972. Performance to date of these and other repositories has not caused any of their owners and operators to transfer or contemplate transferring the waste confined in them to presumably safer locations. Natural and engineered analogues offer sound evidence that deep geologic isolation is effective, safe, and compatible with responsible environmental stewardship. Underground isolation of dangerous, including radioactive, wastes is therefore increasingly being used as a safe and reliable method of final disposal. Ó 2007 Elsevier Ltd. All rights reserved. -
The German Energiewende – History and Status Quo
1 The German Energiewende – History and Status Quo Jürgen‐Friedrich Hake,1) Wolfgang Fischer,1) Sandra Venghaus,1) Christoph Weckenbrock1) 1) Forschungszentrum Jülich, Institute of Energy and Climate Research ‐ Systems Analysis and Technology Evaluation (IEK‐STE), D‐52425 Jülich, Germany Executive Summary Industrialized nations rely heavily on fossil fuels as an economic factor. Energy systems therefore play a special part in realizing visions of future sustainable societies. In Germany, successive governments have specified their ideas on sustainable development and the related energy system. Detailed objectives make the vision of the Energiewende – the transformation of the energy sector – more concrete. Many Germans hope that the country sets a positive example for other nations whose energy systems also heavily rely on fossil fuels. A glance at the historical dimensions of this transformation shows that the origins of German energy objectives lie more than thirty years in the past. The realization of these goals has not been free from tensions and conflicts. This article aims at explaining Germany’s pioneering role in the promotion of an energy system largely built on renewable energy sources by disclosing the drivers that have successively led to the Energiewende. To reveal these drivers, the historical emergence of energy politics in Germany was analyzed especially with respect to path dependencies and discourses (and their underlying power relations) as well as exogenous events that have enabled significant shifts in the political energy strategy of Germany. Keywords Energy transition, energy policy, energy security, nuclear power, renewables, Germany Contribution to Energy, 2nd revision 4/14/2015 2 I Introduction In light of the global challenges of climate change, increasing greenhouse gas emissions, air pollution, the depletion of natural resources and political instabilities, the transition of national energy systems has become a major challenge facing energy policy making in many countries [e.g., Shen et al., 2011, Al‐Mansour, 2011]. -
Realization of the German Repository Concept - Current Status and Future Prospects
WM'99 CONFERENCE, FEBRUARY 28 - MARCH 4, 1999 REALIZATION OF THE GERMAN REPOSITORY CONCEPT - CURRENT STATUS AND FUTURE PROSPECTS - Peter W. Brennecke/Helmut Röthemeyer/Bruno R. Thomauske Bundesamt für Strahlenschutz (BfS) Salzgitter, Germany ABSTRACT Since the early sixties, the radioactive waste disposal policy in the Federal Republic of Germany has been based on the decision that all types of radioactive waste are to be disposed of in deep geological formations. According to the 1979 German radioactive waste management and disposal concept the Gorleben salt dome is investigated to decide upon its suitability to host a repository for all types of radioactive waste. In addition, the licensing procedure for the Konrad repository project has practically been finished, i.e. a decision could be taken. Since German unification on October 03, 1990, the Morsleben repository has to be considered, too. From January 1994 through September 1998 short-lived low and intermediate level radioactive waste with alpha emitter concentrations up to 4,0 · 108 Bq/m3 was disposed of in this facility. On September 27, 1998, federal elections took place in Germany. As a result, a coalition of the Social Democrats and the Greens has come into power. Based on the coalition agreement of October 20, 1998, nuclear energy is intended to be phased out in Germany. Thus, the new radioactive waste management policy comprises important disposal-related alterations and changes. INTRODUCTION The status and future prospects of the Morsleben repository as well as the Konrad and Gorleben repository projects are strongly influenced by technical, legal and political aspects. At present, due to the decrease of radioactive waste amounts to be emplaced in a repository, there is no time pressure for the disposal of wastes. -
Disposal of Spent Fuel from German Nuclear Power Plants - Paper Work Or Technology?
DISPOSAL OF SPENT FUEL FROM GERMAN NUCLEAR POWER PLANTS - PAPER WORK OR TECHNOLOGY? R. GRAF GNS mbH Hollestrafie 7A, 45127 Essen - Germany W. FILBERT D5E 7ECHNOZOGT GmbH Eschenstrafie 55, 31224 Peine - Germany ABSTRACT The reference concept “direct disposal of spent fuel” was developed as an alternative to spent fuel reprocessing and vitrified HLW disposal. The technical facilities necessary for the implementation of this reference concept - the so called POLLUX-concept, e.g. interim storages for casks containing spent fuel, a pilot conditioning facility, and a special cask “POLLUX” for final disposal have been built. With view to a geological salt formation all handling procedures for the repository were tested aboveground in a test facility at a 1:1 scale. To optimise the concept all operational steps are reviewed for possible improvement. Most promising are a concept using canisters (BSK 3) instead of POLLUX casks, and the direct disposal of transport and storage casks (DIREGT-concept) which is the most recent one and has been designed for the direct disposal of large transport and storage casks. The final exploration of the pre-selected repository site is still pending, from the industries point of view due to political reasons only. The present paper describes the main concepts and their status as of today. 1. Introduction Since the late seventies the German industry has been developing an alternative to spent fuel reprocessing and vitrified HLW disposal. It is called "direct disposal of spent fuel". The feasibility was examined and safety aspects were evaluated. The Federal Government concluded that the technology of direct disposal had to be developed. -
The German Government's Environmental Report 2019
Draft: The German government’s Environmental Report 2019 (Environmental Status Report pursuant to Section 11 of the Environmental Information Act) Environment and nature – the basis of social cohesion 1 von 301 | www.bmu.de Table of contents Table of contents ...................................................................................................................... 2 Introduction: The integrity of nature and the environment as a basis for freedom, democracy and social cohesion .................................................................................................................. 5 A. Protecting the natural resources that sustain life ............................................................ 21 A.1 Water ....................................................................................................................... 21 A.1.1 Management of inland and coastal waters ....................................................... 21 A.1.2 Living by water – flood control .......................................................................... 29 A.1.3 Fracking ............................................................................................................ 31 A.1.4 Marine conservation and fisheries .................................................................... 32 A.1.5 International cooperation and global water protection policy ............................ 37 A.2 Soil ........................................................................................................................... 41 A.2.1 -
The Anti-Nuclear Movement in Germany
The Anti-Nuclear Movement in Germany Joachim Radkau translated by Lucas Perkins from a lecture delivered at the Université Paris 7—Denis Diderot on February 25, 2009 When I began researching the history of nuclear technol- ogy 35 years ago, it never occurred to me to give a lecture on today’s subject. At that time there was strong resistance, rooted in a broad swath of the French (or more precisely, Alsatian) population to nuclear energy projects, more read- ily recognizable than in Germany. This is important to re- member. Beyond that, I was also at that time an enthusiastic supporter of nuclear energy, and my original goal was to use the example of nuclear technology to expose the sluggish- ness of West Germany’s government, which wasn’t promot- ing the technology of the future energetically enough. As I gathered more and more information on the risks of nucle- ar technology soon thereafter, I came upon today’s subject. Then it all seemed so simple: nuclear technology is very risky, and thus it’s no wonder that heavy resistance was mounted against it. This doesn’t really require much explanation. What does need to be explained, on the contrary, is why re- sistance is weaker in other countries than it is in Germany. In the 70s and 80s, sociologists tended to subsume the anti- nuclear movement under the “new social movements” cate- gory—a concept then imported from the U.S.—and to throw it on the same pile with the new women’s movement, the new peace movement, and movements seeking the equality and inclusion of marginalized groups. -
Detaillierte Karte (PDF, 4,0 MB, Nicht
Neuwerk (zu Hamburg) Niedersachsen NORDSEE Schleswig-Holstein Organisation der ordentlichen Gerichte Balje Krummen- Flecken deich Freiburg Nordseebad Nordkehdingen (Elbe) Wangerooge CUXHAVEN OTTERNDORF Belum Spiekeroog Flecken und Staatsanwaltschaften Neuhaus Oederquart Langeoog (Oste) Cadenberge Minsener Oog Neuen- kirchen Oster- Wisch- Nordleda bruch Baltrum hafen NORDERNEY Bülkau Oberndorf Stand: 1. Juli 2017 Mellum Land Hadeln Wurster Nordseeküste Ihlienworth Wingst Osten Inselgemeinde Wanna Juist Drochtersen Odis- Hemmoor Neuharlingersiel heim HEMMOOR Großenwörden Steinau Hager- Werdum ESENS Stinstedt marsch Dornum Mittelsten- Memmert Wangerland Engelschoff Esens ahe Holtgast Hansestadt Stedesdorf BORKUM GEESTLAND Lamstedt Hechthausen STADE Flecken Börde Lamstedt Utarp Himmel- Hage Ochtersum Burweg pforten Hammah Moorweg Lütets- Hage Schwein- Lütje Hörn burg Berum- dorf Nenn- Wittmund Kranen-Oldendorf-Himmelpforten Hollern- bur NORDEN dorf Holtriem Dunum burg Düden- Twielenfleth Großheide Armstorf Hollnseth büttel Halbemond Wester- Neu- WITTMUND WILHELMS- Oldendorf Grünen- Blomberg holt schoo (Stade) Stade Stein-deich Fries- Bremer- kirchen Evers- HAVEN Cuxhaven Heinbockel Agathen- Leezdorf Estorf Hamburg Mecklenburg-Vorpommern meer JEVER (Stade) burg Lühe Osteel Alfstedt Mitteln- zum Landkreis Leer Butjadingen haven (Geestequelle) Guder- kirchen Flecken Rechts- hand- Marienhafe SCHORTENS upweg Schiffdorf Dollern viertel (zu Bremen) Ebersdorf Neuen- Brookmerland AURICH Fredenbeck Horneburg kirchen Jork Deinste (Lühe) Upgant- (Ostfriesland) -
Geophysical Methods to Detect Tunnelling at a Geological Repository Site Applicability in Safeguards
#2008207/ APRIL 2021 Geophysical methods to detect tunnelling at a geological repository site Applicability in safeguards Heikkinen Eero (AFRY) Radiation and Nuclear Safety Authority Report #2008207 Nuclear Waste and Material Regulation Heikkinen Eero (AFRY) April 6, 2021 Contents ABSTRACT ......................................................................................................................................................................................... 1 PREFAFE ............................................................................................................................................................................................ 3 1 Introduction ............................................................................................................................................................................ 5 1.1 Nuclear safeguards to geological disposal ........................................................................................................ 5 1.2 Monitoring for long term nuclear safety ........................................................................................................... 9 1.3 Active geophysical surveys .................................................................................................................................. 10 1.4 Olkiluoto spent nuclear fuel repository .......................................................................................................... 13 2 Possibilities to detect an undeclared activity ....................................................................................................... -
“Exploratory” Mine in Gorleben
Information on the “Exploratory” Mine in Gorleben Near Gorleben, a village of about 700 inhabitants on the Elbe River, lying in the far north-east of the state of Lower Saxony, are two surface interim repositories for radioactive waste. Further, there is a conditioning plant and a mine in a salt deposit partially explored for and planned as a final repository. By road, Gorleben lies 124 km southeast of Hamburg (Germany’s second largest city with 1.7 million inhabitants), 155 km northeast of Hanover (516,000). It was named as the location for a “nuclear disposal center”on 22 February 1977 . Imaginative resistance by locals and people from all over Germany scuttled the plan to build a nuclear reprcessing plant in the region known as Wendland. Since 1983 weakly and highly radioactive waste has been stored in the interim repositories, since 1995 highly radioactive waste (c) Federal Office for Radiation Protection has been brought there and parked in caskets called Castor (acronym for cask for storage and transport of radioactive material). Time Line ! 1977 Decision for a 12 km² Nuclear Disposal Center Gorleben. The site area had been "prepared" in 1975 by an arson causing a devastating forest fire. Two years later a proposed reprocessing unit was taken out the plans. ! 1983 Due to the negative results the federal government stops the exploration on the surface, excludes the exploration of alternative sites and starts the underground exploration. ! 1984 First reposition of atomic waste barrels to the above-ground interim storage (ALG) for low and medium level radioactive waste. ! 1987 Serious accident during the deepening of shaft 1 of the exploration mine. -
Kusmierz R/Voigt K/Scherb H
Dr. Hagen Scherb 12/21/2011 Dr. Kristina Voigt Dipl.-Ing. Ralf Kusmierz IBB/HMGU Birth Sex Odds (SO) and Sex Odds Ratios (SOR) around the TBL Gorleben – Spatial-temporal situation, replication of and comparison with the NLGA-study Content 1. Summary statistics 2. Temporal and spatial trends 3. Replication of and comparison with the NLGA-study 4. References 5. Abbreviations 6. List of municipalities, GK3 coordinates (BKG/GN250), distances form the TBL Gorleben, and Google Maps positions 7. Municipalities (areas and positions) and 10-km/35-km distance rings in GK3 coordinates 1. Summary statistics 1.1. 35-km (ATKIS/NLGA) around the TBL Gorleben Period total m f SO SOR ln(SOR) / SE p-value 1991-1995 6898 3477 3421 1.0164 1.0774 0.0745 0.0080 1996-2009 19209 10040 9169 1.0950 0.0281 Total 26107 13517 12590 p-value 0.0080 is two-sided, corresponds to one-sided 0.0040 by NLGA-study Theoretical deficit of female births: 709 1.2. 35-km (BKG/GN250) around the TBL Gorleben Period total m f SO SOR ln(SOR) / SE p-value 1981-1995 11570 5800 5770 1.0052 1.0843 0.0810 0.0006 1996-2010 18467 9631 8836 1.0900 0.0237 Total 30037 15431 14606 Theoretical deficit of female births: 745 1.3. 40-km (BKG/GN250) around the TBL Gorleben Period total m f SO SOR ln(SOR) / SE p-value 1981-1995 13861 6939 6922 1.0025 1.0838 0.0805 0.0002 1996-2010 23135 12047 11088 1.0865 0.0215 Total 36996 18986 18010 Theoretical deficit of female births: 929 2 2. -
Underground Waste Disposal Authors: Kemal Yildizdag & Prof
Underground waste disposal Authors: Kemal Yildizdag & Prof. Dr. habil. Heinz Konietzky (TU Bergakademie Freiberg, Geotechnical Institute) 1 Introduction to underground waste disposal ........................................................ 2 1.1 Radioactivity and radioactive waste types ..................................................... 2 1.2 Management, disposal and storage of radioactive wastes ............................ 5 2 Worldwide laws/regulations, applications and repositories .................................. 9 2.1 Repository design, multi-barrier concept & FEPs .......................................... 9 2.2 Host rocks for disposal and storage of radioactive wastes .......................... 13 2.3 Recent disposal and repository operations in Germany and worldwide ...... 18 3 Geotechnical aspects ........................................................................................ 21 3.1 Geotechnical terms and definitions concerning undergr. waste disposals ... 21 3.2 Geotechnical computations, experiments and measurements concerning underground waste disposals ............................................................................... 23 4 References ........................................................................................................ 32 5 Appendix ........................................................................................................... 37 Editor: Prof. Dr.-Ing. habil. Heinz Konietzky Layout: Angela Griebsch, Gunther Lüttschwager TU Bergakademie Freiberg, Institut für Geotechnik,