SKI Report 94:10 Geological Documentation of the Norrköping
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LIBRO GEOLOGIA 30.Qxd:Maquetaciûn 1
Trabajos de Geología, Universidad de Oviedo, 29 : 278-283 (2010) From ductile to brittle deformation – the structural development and strain variations along a crustal-scale shear zone in SW Finland T. TORVELA1* AND C. EHLERS1 1Åbo Akademi University, Department of geology and mineralogy, Tuomiokirkontori 1, 20500 Turku, Finland. *e-mail: [email protected] Abstract: This study demonstrates the impact of variations in overall crustal rheology on crustal strength in relatively high P-T conditions at mid- to lower mid-crustal levels. In a crustal-scale shear zone, along-strike variations in the rheological competence result in large-scale deformation partition- ing and differences in the deformation style and strain distribution. Keywords: shear zone, deformation, strain partitioning, terrane boundary, Finland, Palaeoproterozoic. The structural behaviour of the crustal-scale Sottunga- several orogenic periods from the Archaean to the Jurmo shear zone (SJSZ) in SW Finland is described. Caledonian orogen 450-400 Ma ago (Fig. 1; e.g. The shear zone outlines a significant crustal disconti- Nironen, 1997; Lahtinen et al., 2005). The bulk of nuity, and it probably also represents a terrain bound- the shield (central and southern Finland, central and ary between the amphibolite-to-granulite facies, dome- northern Sweden) was formed during the and-basin-style crustal block to the north and the Palaeoproterozoic orogeny, ca. 2.0-1.85 Ga ago, amphibolite facies rocks with dominantly steeply dip- which is often referred to in literature as the ping structures to the south. The results of this study Svecofennian orogeny (Gaál and Gorbatschev, 1987). also imply that the late ductile structures (~1.80-1.79 The main direction of convergence against the Ga) can be attributed to the convergence of an Archaean nucleus to the NE (Fig. -
The Time Travel Method – in the Service of Society and Its Development International Seminar in Kalmar, Sweden in the Honour of Ebbe Westergren
Newsletter May 2018 The Time Travel method – In the Service of Society and its Development International Seminar in Kalmar, Sweden in the honour of Ebbe Westergren In late February Kalmar county museum/ Bridging Ages, in cooperation with Linnaeus University and Nordic Centre for Heritage Learning, arranged a week in Kalmar, Sweden with seminars and workshops on the Time Travel method – the past and the future. The week was in honour of Ebbe Westergren, the founding father of the Time Travel method, Senior Curator at Kalmar county museum and Honorary President of Bridging Ages. Now also Honorary Doctor at Linnaeus University. The international seminar explored how the Time Travel method and Applied Heritage can meet the challenges in today´s society. Focus were on three key topics: 1/ social cohesion/ integration/ peace; 2/ education/ work; 3/ health/ environment. There were also university lectures, workshop on international collaboration between schools, a public program and several informal gatherings in the week. The week in February in Kalmar, Sweden was surrounded by a heavy snowstorm covering the ground with half a meter of snow, which made the experience magical and exotic. Here are some of the guests outside Kalmar county museum. WWW.BRIDGINGAGES.COM FOLLOW US ON FACEBOOK INSTAGRAM @BRIDGINGAGES The Time Travel method – The Past and the Future 1960s, 1970s, A world of change 1960s/ 1970s was a world of change in Sweden and in many parts of the world. There were slogans like: Power to the people! Education to the people! Culture to the people! Museum, Heritage and Society were tied closer together. -
Assembly, Configuration, and Break-Up History of Rodinia
Author's personal copy Available online at www.sciencedirect.com Precambrian Research 160 (2008) 179–210 Assembly, configuration, and break-up history of Rodinia: A synthesis Z.X. Li a,g,∗, S.V. Bogdanova b, A.S. Collins c, A. Davidson d, B. De Waele a, R.E. Ernst e,f, I.C.W. Fitzsimons g, R.A. Fuck h, D.P. Gladkochub i, J. Jacobs j, K.E. Karlstrom k, S. Lu l, L.M. Natapov m, V. Pease n, S.A. Pisarevsky a, K. Thrane o, V. Vernikovsky p a Tectonics Special Research Centre, School of Earth and Geographical Sciences, The University of Western Australia, Crawley, WA 6009, Australia b Department of Geology, Lund University, Solvegatan 12, 223 62 Lund, Sweden c Continental Evolution Research Group, School of Earth and Environmental Sciences, University of Adelaide, Adelaide, SA 5005, Australia d Geological Survey of Canada (retired), 601 Booth Street, Ottawa, Canada K1A 0E8 e Ernst Geosciences, 43 Margrave Avenue, Ottawa, Canada K1T 3Y2 f Department of Earth Sciences, Carleton U., Ottawa, Canada K1S 5B6 g Tectonics Special Research Centre, Department of Applied Geology, Curtin University of Technology, GPO Box U1987, Perth, WA 6845, Australia h Universidade de Bras´ılia, 70910-000 Bras´ılia, Brazil i Institute of the Earth’s Crust SB RAS, Lermontova Street, 128, 664033 Irkutsk, Russia j Department of Earth Science, University of Bergen, Allegaten 41, N-5007 Bergen, Norway k Department of Earth and Planetary Sciences, Northrop Hall University of New Mexico, Albuquerque, NM 87131, USA l Tianjin Institute of Geology and Mineral Resources, CGS, No. -
The Environmental and Rural Development Plan for Sweden
0LQLVWU\RI$JULFXOWXUH)RRGDQG )LVKHULHV 7KH(QYLURQPHQWDODQG5XUDO 'HYHORSPHQW3ODQIRU6ZHGHQ ¤ -XO\ ,QQHKnOOVI|UWHFNQLQJ 7,7/(2)7+(585$/'(9(/230(173/$1 0(0%(567$7($1'$'0,1,675$7,9(5(*,21 *(2*5$3+,&$/',0(16,2162)7+(3/$1 GEOGRAPHICAL AREA COVERED BY THE PLAN...............................................................................7 REGIONS CLASSIFIED AS OBJECTIVES 1 AND 2 UNDER SWEDEN’S REVISED PROPOSAL ...................7 3/$11,1*$77+(5(/(9$17*(2*5$3+,&$//(9(/ 48$17,),(''(6&5,37,212)7+(&855(176,78$7,21 DESCRIPTION OF THE CURRENT SITUATION...................................................................................10 (FRQRPLFDQGVRFLDOGHYHORSPHQWRIWKHFRXQWU\VLGH The Swedish countryside.................................................................................................................... 10 The agricultural sector........................................................................................................................ 18 The processing industry...................................................................................................................... 37 7KHHQYLURQPHQWDOVLWXDWLRQLQWKHFRXQWU\VLGH Agriculture ......................................................................................................................................... 41 Forestry............................................................................................................................................... 57 6XPPDU\RIVWUHQJWKVDQGZHDNQHVVHVWKHGHYHORSPHQWSRWHQWLDORIDQG WKUHDWVWRWKHFRXQWU\VLGH EFFECTS OF CURRENT -
Numerical Modelling of Mid-Crustal Flow Applied to Svecofennian Orogeny
NUMERICAL MODELLING OF MID-CRUSTAL FLOW APPLIED TO SVECOFENNIAN OROGENY Master's thesis University of Helsinki Department of Geosciences and Geography Division of Geology and Geochemistry Hannu Lammi May 2015 Tiedekunta/Osasto Fakultet/Sektion – Faculty Laitos/Institution– Department Faculty of Science Department of Geosciences and Geography Tekijä/Författare – Author Hannu Lammi Työn nimi / Arbetets titel – Title Numerical Modelling of Mid-Crustal Flow Applied to Svecofennian Orogeny Oppiaine /Läroämne – Subject Geology Työn laji/Arbetets art – Level Aika/Datum – Month and year Sivumäärä/ Sidoantal – Number of pages Master's thesis May 2015 92 Tiivistelmä/Referat – Abstract This work explores the lateral spreading of hot, thick, Paleoproterozoic crust via a series of 2D thermo- mechanical numerical models based on two geometrical a priori models of the thickened crust: plateau and plateau margin. High Paleoproterozoic radiogenic heat production is assumed. The material viscosity is temperature-dependent following the Arrhenius law. The experiments use two sets of rheological parameters for the crust: dry (granite/felsic granulite/mafic granulite) and wet (granite/diorite/mafic granulite). The results of the modeling are compared to seismic reflection sections and surface geological observations from the Paleoproterozoic Svecofennian orogen. Numerical modelling is performed with Ellipsis, a particle-in-cell finite element code suitable for 2D thermo-mechanical modelling of lithospheric deformation. It uses Lagrangian particles for tracking material interfaces and histories, which allow recording of material P-T-t paths. Plateau-models are based on a 480 km long section of 65 km-thick three-layer plateau crust. In the plateau margin-models, a transition from 65 km thick plateau to 40 km thick foreland is imposed in the middle of the model. -
Regeltillämpning På Kommunal Nivå Undersökning Av Sveriges Kommuner 2020
Regeltillämpning på kommunal nivå Undersökning av Sveriges kommuner 2020 Kalmar län Handläggningstid i veckor (Serveringstillstånd) Kommun Handläggningstid 2020 Handläggningstid 2016 Serveringstillstånd Borgholm 3 7 Kalmar 3 3 Hultsfred 4 5 Högsby 4 5 Emmaboda 6 8 Medelvärde Nybro 6 8 handläggningstid 2020 Torsås 6 6 Sverige: 5,7 veckor Vimmerby 6 Gruppen: 5,7 veckor Västervik 6 6 Medelvärde Mönsterås 8 6 handläggningstid 2016 Mörbylånga 8 5 Sverige: 6,0 veckor Oskarshamn 8 8 Gruppen: 6,1 veckor Handläggningstid i veckor (Bygglov) Kommun Handläggningstid 2020 Handläggningstid 2016 Bygglov Högsby 1 4 Nybro 1 4 Kalmar 2 2 Borgholm 4 3 Västervik 4 4 Medelvärde Emmaboda 5 8 handläggningstid 2020 Oskarshamn 5 5 Sverige: 4,0 veckor Mönsterås 6 5 Gruppen: 3,8 veckor Torsås 6 5 Medelvärde Hultsfred 5 handläggningstid 2016 Mörbylånga 3 Sverige: 4,0 veckor Vimmerby 5 Gruppen: 4,4 veckor Servicegaranti (Bygglov) Servicegaranti Dagar Digitaliserings- Servicegaranti Dagar Kommun Bygglov 2020 2020 grad 2020 2016 2016 Borgholm Nej 0,5 Ja Emmaboda Nej 0,5 Nej Hultsfred Nej Högsby Ja 42 0 Ja 42 Servicegaranti 2020 Kalmar Ja 28 1 Ja 28 Sverige: 19 % Ja Mönsterås Nej 1 Ja 28 Gruppen: 33 % Ja Mörbylånga Nej Digitaliseringsgrad 2020 Nybro Nej 0 Sverige: 0,52 Oskarshamn Ja 35 0 Nej Gruppen: 0,5 Torsås Nej 0,5 Nej Servicegaranti 2016 Vimmerby Nej Sverige: 30 % Ja Västervik Nej 1 Nej Gruppen: 36 % Ja Tillståndsavgifter (Serveringstillstånd) Kommun Tillståndsavgift 2020 Tillståndsavgift 2016 Serveringstillstånd Mönsterås 6 000 6 000 Oskarshamn 7 600 7 600 Hultsfred -
Bo Møller Stensgaard and Agnete Steenfelt
nl ree and G Exploration07 B Exploration in the new Millennium u r m e GeologicalGeological and StatisticalStatistical VValidationalidation of a GoldGold PredictionPrediction ModelModel u 5th Decennial International Conference a e u l o ro on Mineral Exploration f et M P inerals and based on low-density surface geochemistry and other geoscientific data, Nuuk region, West Greenland Toronto, Canada, Sept. 9 to 12, 2007 Bo Møller Stensgaard* and Agnete Steenfelt Geological Survey of Denmark and Greenland (GEUS), Geocenter Copenhagen, Denmark (*email: [email protected]) es es pl pl m m xa xa IntroductionIntroduction Gold Prediction Model Signatures of Gold Occurrences Geological Validation ExamplesE Inner Fiskefjord ExamplesE Southwest of Isua A prediction model for the favourability for gold is constructed by statistical analysis. Data signatures of gold occurrences and the background are established for each A statistical model is not valuable to the exploration geologist without a The Inner Fiskefjord area is predicted as being favourable for Isua gold occurrences. An area southwest of the well-known Isua greenstone belt, which host several Prediction models - are we able to predict group. Some of the most characteristic data signatures identified are given in the table geological validation that addresses questions like “Are the results veri- The favourable areas lie within greenstone belts and are proximal to the major Fiske- gold mineralized sites, is predicted as being favourable for both Isua and areas favourable for gold? fjord fault. No known gold occurrences have previously been reported from the area. Bjørneøen gold occurrences. No prior information on mineralization exists from All data are pixelated. -
Full Issue Vol. 2 No. 4
Swedish American Genealogist Volume 2 | Number 4 Article 1 12-1-1982 Full Issue Vol. 2 No. 4 Follow this and additional works at: https://digitalcommons.augustana.edu/swensonsag Part of the Genealogy Commons, and the Scandinavian Studies Commons Recommended Citation (1982) "Full Issue Vol. 2 No. 4," Swedish American Genealogist: Vol. 2 : No. 4 , Article 1. Available at: https://digitalcommons.augustana.edu/swensonsag/vol2/iss4/1 This Full Issue is brought to you for free and open access by Augustana Digital Commons. It has been accepted for inclusion in Swedish American Genealogist by an authorized editor of Augustana Digital Commons. For more information, please contact [email protected]. Swedish American Genea o ist A journal devoted to Swedish American biography, genealogy and personal history CONTENTS The Emigrant Register of Karlstad 145 Swedish American Directories 150 Norwegian Sailor Last Survivor 160 Norwegian and Swedish Local Histories 161 An Early Rockford Swede 171 Swedish American By-names 173 Literature 177 Ancestor Tables 180 Genealogical Queries 183 Index of Personal Names 187 Index of Place Names 205 Index of Ships' Names 212 Vol. II December 1982 No. 4 I . Swedish Americanij Genealogist ~ Copyright © I 982 S1tiedish Amerh·an Geneal,,gtst P. 0 . Box 2186 Winte r Park. FL 32790 !I SSN 0275-9314 ) Editor and P ub lisher Nils Will ia m Olsson. Ph.D .. F.A.S.G. Contributing Editors Glen E. Brolardcr. Augustana Coll ege . Rock Island. IL: Sten Carls,on. Ph.D .. Uppsala Uni versit y. Uppsala . Sweden: Carl-Erik Johans,on. Brigham Young Univ ersity.J>rovo. UT: He nn e Sol Ib e . -
Geologic Map of the Piedmont in the Savage and Relay Quadrangles, Howard, Baltimore, and Anne Arundel Counties, Maryland
U.S. DEPARTMENT OF THE INTERIOR U.S. GEOLOGICAL SURVEY Geologic Map of the Piedmont in the Savage and Relay Quadrangles, Howard, Baltimore, and Anne Arundel Counties, Maryland By Avery Ala Drake, Jr.1 Open-File Report 98-757 This report is preliminary and has not been reviewed for conformity with U.S. Geological Survey editorial standards or with the North American Stratigraphic Code. Any use of trade, product, or firm names is for descriptive purposes only and does not imply endorsement by the U.S. Government. 'Reston, VA 1998 GEOLOGIC MAP OF THE PIEDMONT IN THE SAVAGE AND RELAY QUADRANGLES, HOWARD, BALTIMORE, AND ANNE ARUNDEL COUNTIES, MARYLAND by Avery Ala Drake, Jr. INTRODUCTION The Piedmont in the Savage and Relay quadrangles (fig. 1) is largely in Howard County, Maryland. The northeasternmost part is in Baltimore County, Maryland and about 0.03 square miles is in Anne Arundel County. Most of the area is suburban and almost all outcrops are restricted to the Patapsco, Middle Patuxent, Little Patuxent, and other stream valleys. Crystalline rocks of the central Appalachian Piedmont within these quadrangles are overlain in many places by Coastal Plain deposits of Cretaceous age. Alluvium occurs along most streams. The geology of adjacent quadrangles on the west and south has been mapped by Drake (in press, unpublished data, 1991-1997) and J.N. Roen and A.A. Drake, Jr. (in press), and that to the north and east by Crowley (1976). The tectonics of the area were interpreted by Crowley (1976) and Drake (1995). Aeromagnetic and gravity surveys of the area were interpreted by Bromery (1968). -
Redalyc.Palaeoproterozoic Adakite- and TTG-Like Magmatism in the Svecofennian Orogen, SW Finland
Geologica Acta: an international earth science journal ISSN: 1695-6133 [email protected] Universitat de Barcelona España VÄISÄNEN, M.; JOHANSSON, Å.; ANDERSSON, U.B.; EKLUND, O.; HÖLTTÄ, P. Palaeoproterozoic adakite- and TTG-like magmatism in the Svecofennian orogen, SW Finland Geologica Acta: an international earth science journal, vol. 10, núm. 4, diciembre, 2012, pp. 351-371 Universitat de Barcelona Barcelona, España Available in: http://www.redalyc.org/articulo.oa?id=50524834003 How to cite Complete issue Scientific Information System More information about this article Network of Scientific Journals from Latin America, the Caribbean, Spain and Portugal Journal's homepage in redalyc.org Non-profit academic project, developed under the open access initiative Geologica Acta, Vol.10, Nº 4, December 2012, 351-371 DOI: 10.1344/105.000001761 Available online at www.geologica-acta.com Palaeoproterozoic adakite- and TTG-like magmatism in the Svecofennian orogen, SW Finland 2 3 4 5 M. VÄISÄNEN 1, * Å. JOHANSSON U.B. ANDERSSON O. EKLUND P. HÖLTTÄ 1 Department of Geography and Geology, University of Turku FI-20014 Turku, Finland. E-mail: [email protected] 2 Laboratory for Isotope Geology, Swedish Museum of Natural History Box 50007, SE-104 05 Stockholm, Sweden. E-mail: [email protected] 3 Department of Earth Sciences, Uppsala University Villavägen 16, SE-752 36 Uppsala, Sweden. E-mail: [email protected] 4 Department of Geology and Mineralogy, Åbo Akademi University FI-20500 Turku, Finland. E-mail: [email protected] 5 Geological Survey of Finland GTK P.O. Box 96, FI-02151 Espoo, Finland. E-mail: [email protected] * Corresponding author ABS TRACT The Palaeoproterozoic Svecofennian orogen in the Fennoscandian shield is an arc accretionary orogen that was formed at c. -
Isotopic Evidence on the Age of the Trysil Porphyries and Granites in Eastern Hedmark, Norway
ISOTOPIC EVIDENCE ON THE AGE OF THE TRYSIL PORPHYRIES AND GRANITES IN EASTERN HEDMARK, NORWAY by H. N. A. Priem1), R. H. Verschure1), E. A. Th. Verdurmen1), E. H. Hebeda1) and N. A. I. M. Boelrijk1) Abstract. Rocks from the (sub-Jotnian) acidic plutonic and volcanic basement complexes in the Trysil area, eastern Hedmark, yield a Rb—Sr isochron age of 1 541 ±69 million years. This agrees within the limits of error with the isochrom age of 1590 ±65 million years determined for the Dala porphyries and granites in Dalarna, Sweden, which are the continuation of the acidic igneous complexes in the Trysil area. The sub-Jotnian acidic magmatism in the eastern Hedmark—Dalarna region can thus be dated at 1570 ± 40 million years ago, i.e. some 100 million years younger than the termination of the Svecofennian orogcny. (Ages computed with A. = 1.47 x 10"11 yr"1 ; errors with 95 % confidence level). Chemically, this magmatism is characterized by a granitic to alkali granitic and alkali syenitic composition. The Trysil area has also been affected by a tectonothermal event in Sveconorwegian time, about 925 million years ago, as evidenced by the Rb—Sr and K—Ar ages of separated biotites. Introduction. Studies on the geology of the Trysil area in eastern Hedmark have been published by Schiøtz (1903), Reusch (1914), Holmsen (1915), Holtedahl (1921), Dons (1960) and Holmsen et al. (1966). The Quaternary deposits were mapped by Holmsen (1958, 1960). A geo logical sketch map of the area is shown in Fig. 1 (mainly after the Geo logisk Kart over Norge, 1960). -
Mid/Late Devonian-Carboniferous Collapse Basins on the Finnmark Platform and in the Southwesternmost Nordkapp Basin, SW Barents Sea
Solid Earth Discuss., https://doi.org/10.5194/se-2017-124 Manuscript under review for journal Solid Earth Discussion started: 7 November 2017 c Author(s) 2017. CC BY 4.0 License. Mid/Late Devonian-Carboniferous collapse basins on the Finnmark Platform and in the southwesternmost Nordkapp basin, SW Barents Sea 5 Jean-Baptiste Koehl1,2, Steffen G. Bergh1,2, Tormod Henningsen1, Jan-Inge Faleide2,3 1Department of Geosciences, University of Tromsø, N-9037 Tromsø, Norway. 2Research Centre for Arctic Petroleum Exploration (ARCEx), University of Tromsø, N-9037 Tromsø, Norway. 3Department of Geosciences, University of Oslo, P.O. Box 1047 Blindern, NO-0316 Oslo, Norway. Correspondence to: Jean-Baptiste Koehl ([email protected]) 10 Abstract. The SW Barents Sea margin experienced a pulse of extensional deformation in the Middle-Late Devonian through the Carboniferous, after the Caledonian Orogeny terminated. These events marked the initial stages of formation of major offshore basins such as the Hammerfest and Nordkapp basins. We mapped and analyzed three major fault complexes, i) the Måsøy Fault 15 Complex, ii) the Rolvsøya fault, iii) the Troms-Finnmark Fault Complex. We discuss the formation of the Måsøy Fault Complex as a possible extensional splay of an overall NE-SW trending, NW- dipping, basement-seated Caledonian shear zone, the Sørøya-Ingøya shear zone, which was partly inverted during the collapse of the Caledonides and accommodated top-to-the-NW normal displacement in Mid/Late Devonian-Carboniferous times. The Troms-Finnmark Fault Complex 20 displays a zigzag-shaped pattern of NNE-SSW and ENE-WSW trending extensional faults before it terminates to the north as a WNW-ESE trending, NE-dipping normal fault that separates the southwesternmost Nordkapp basin in the northeast from the Finnmark Platform west and the Gjesvær Low in the southwest.