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Dating Methods and the Quaternary
c01.fm Page 1 Wednesday, March 23, 2005 3:21 AM 1 Dating Methods and the Quaternary Whatever withdraws us from the power of our senses; whatever makes the past, the distant or the future, predominate over the present, advances us in the dignity of thinking beings. Samuel Johnson 1.1 Introduction The Quaternary is the most recent period of the geological record. Spanning the last 2.5 million years or so of geological time1 and including the Pleistocene and Holocene epochs,2 it is often considered to be synonymous with the ‘Ice Age’. Indeed, for much of the Quaternary, the earth’s land surface has been covered by greatly expanded ice sheets and glaciers, and temperatures during these glacial periods were significantly lower than those of the present. But the Quaternary has also seen episodes, albeit much shorter in duration, of markedly warmer conditions, and in these interglacials the temperatures in the mid- and high-latitude regions may have exceeded those of the present day. Indeed, rather than being a period of unremitting cold, the hallmark of the Quaternary is the repeated oscillation of the earth’s global climate system between glacial and interglacial states. Establishing the timing of these climatic changes, and of their effects on the earth’s environment, is a key element in Quaternary research. Whether it is to date a particular climatic episode, to estimate the rate of operation of past geological or geomorphological processes, or to determine the age of an artefact or cultural assemblage, we need to be able to establish a chronology of events. -
13. Late Pliocene-Pleistocene Glaciation
13. LATE PLIOCENE - PLEISTOCENE GLACIATION W. A. Berggren, Woods Hole Oceanographic Institution, Woods Hole, Massachusetts The discussion in this chapter is broken down into two increase in the former exceeding that of the latter; or parts: the first deals with glaciation in the North Atlantic as (v) less detritals, clay and carbonate deposited per unit time revealed in the data obtained on Leg 12; in the second part (that is, decreased sedimentation rate) with the decrease in an attempt is made to provide a chronologic framework of the latter exceeding the former. In view of the demon- Late Pliocene-Pleistocene glaciation and to correlate gla- strable increase in sedimentation rate above the preglacial/ cial/interglacial sequences as recorded in land and deep-sea glacial boundary at Sites 111, 112 and 116 due to increased sediments. amounts of detrital minerals and the fact that glacial periods in high latitudes are characterized by a carbonate GLACIATION IN THE NORTH ATLANTIC minimum (Mclntyre et al., in press) it can be seen that the One of the most significant aspects of Leg 12 was the correct explanation for the increase in natural gamma activ- various results which were obtained regarding glaciation in ity in the glacial part of the section is rather complex. Thin the North Atlantic. Glacial sediments were encountered at bands of carbonate were found at various levels intercalated all sites in the North Atlantic with the exception of Site with detrital-rich clays which indicates interglacial intervals, 117 (for the purpose of this discussion the North Atlantic so that the correct explanation probably lies with (iii) encompasses Sites 111 through 117; Sites 118 and 119 are above. -
Low-Carbon-Funding-Report-Mazovia
INDIVIDUAL REGIONAL BASELINE REPORTS ON LOW CARBON INVESTMENTS FUNDING MAZOVIA REGION Preface Present Individual Regional Baseline Reports on Low Carbon Investments Funding is a strategic document to be delivered for seven Partner Regions under the Project entitled “PROmoting regional Sustainable Policies on Energy and Climate change mitigation Towards 2030” funded by the Interreg CENTRAL EUROPE Programme. Partner Region: Mazovia Region Programme priority: 2. Cooperating on low-carbon strategies in CENTRAL EUROPE Specific objective: 2.2 To improve territorial based low-carbon energy planning stra- tegies and policies supporting climate change mitigation Project acronym: Prospect2030 Project index number: CE1373 Lead partner: Piemonte Region Project start date: 01.04.2019 Project end date: 30.09.2021 Deliverable number: D.T1.1.2 Prepared by: PP3 MAE Date: 28.11.2019 Table of Contents 1. Background ..........................................................................................1 2. Presentation of the target region ................................................................2 2.1. General presentation of the target region ................................................2 2.2. Potentials for low-carbon sector development ...........................................3 2.2.1. Energy efficiency ........................................................................3 2.2.2. Renewables ...............................................................................3 2.3. Regional low-carbon policies, institutional framework and policy -
Breeding Population of the Rook Corvus Frugilegus in the Mazovian Lowland: Current Status and Changes
Intern. Stud. Sparrows 2017, 41: 4-21 DOI: 10.1515/isspar-2017-0001 Sławomir CHMIELEWSKI 1, Andrzej DOMBROWSKI 2, Piotr JABŁOŃSKI3, Marcin ŁUKASZEWICZ 4, Łukasz NICEWICZ 5, Łukasz TRĘBICKI 6, Piotr PAGÓRSKI7, Jacek TABOR 8 1 Mazowiecko-Świętokrzyskie Towarzystwo Ornitologiczne, Rynek 12, 05-640 Mogielnica, Poland, e-mail: [email protected], 2 Mazowiecko-Świętokrzyskie Towarzystwo Ornitologiczne, Świerkowa 18, 08-110 Siedlce, Poland, e-mail: adomb@ wp.pl, 3 05-827 Grodzisk Mazowiecki, Na Laski 40E, Poland, 4 Mazowiecko-Świętokrzyskie Towarzystwo Ornitologicz- ne, Radomska 7, 26-670 Pionki, Poland, e-mail: [email protected], 5 University of Silesia in Katowice Depart- ment of Animal Phisiology and EcotoXicology, Bankowa 9, 40-007 Katowice, Poland, e-mail: [email protected], 6 Siedlce University of Natural Sciences and Humanities, Department of Zoology, Faculty of Natural Sciences, Prusa 2, 08-110 Siedlce, Poland, e-mail: [email protected], 7 06-500 Mława, Powstańców Wielkopolskich 3, Poland, 8Mazowiecko -Świętokrzyskie Towarzystwo Ornitologiczne, Królowa Wola 174, 97-215 Inowłódz, Poland, e-mail: [email protected], BREEDING POPULATION OF THE ROOK CORVUS FRUGILEGUS IN THE MAZOVIAN LOWLAND: CURRENT STATUS AND CHANGES ABSTRACT In 2012–2015 nests of the Rook Corvus frugilegus were counted in the Mazovian Lowland area (42,379 km 2). A total of 69,442 nests on 693 sites were found. !e over- 2 all population was estimated at 72,125-76,488 nests ( x = 74,307, 175 nests/100 km ). !e average rookery size reached 100.2 nests (SD = 192.4). !ere were #ve colonies (0.7%) with at least 1,000 nests, 368 (52.4%) small colonies with up to 25 nests, 32 (4.6%) sites with single nests and 103 (14.9%) with up to 3 nests. -
An Attempt at Correlation of Main Climatostratigraphic Units of the Quaternary in the Marginal Zones of Continental Glaciations in Europe
ANNALES UNIVERSITATIS MARIAE CURIE-SKŁODOWSKA LUBLIN - POLONIA VOL.XLVIII, 14_____________________________ SECTIOB_____________________________________ 1993 Instytut Geologii Uniwersytetu Warszawskiego Leszek LINDNER, Leszek MARKS An Attempt at Correlation of Main Climatostratigraphic Units of the Quaternary in the Marginal Zones of Continental Glaciations in Europe Próba korelacji głównych jednostek klimatostratygraficznego podziału czwartorzędu w brzeżnej strefie zasięgu zlodowaceń kontynentalnych w Europie INTRODUCTION Studies of the Quaternary palaeogeographical evolution in the marginal zone of conti nental glaciations in Europe must be based on good knowledge of rhythmus of climatic changes in that time. Such changes in most cases were expressed by coolings that favou red development of 8 continental glaciations (Fig. 1) and warmings which were typical of climatic conditions during 7 interglacials, all during this part of the Quaternary that is na med the Pleistocene (Figs 2-4). From a climatostratigraphic point of view these glacia tions and interglacials, together with preceding main coolings and warmings of the Early Quaternary (Prepleistocene) as well as the following - the youngest warming of the Holo cene, are considered to be the main units of the inland Quaternary (M. D. Baraniecka 1990; L. Li n d n e r 1991b). These units are more and more frequently correlated with the 18O stages that record the main Quaternary climatic changes in deep-sea sediments (D.Q. Bowen 1989; D.Q. Bowen etal. 1989; L.Lindner 1984,1988a,b, 1991 a, b;F. Wiegank 1982; 1987; L. N. Voznyachuk 1985; V. A. Zubakov 1986, 1988, 1990; V. A. Zubakov and 1.1. Borzenkova 1990), which enables their mu tual correlations (Table 1). -
Tourist Attractions 45 Partners, Talented Highly-Qualified Staff, Or Clients, but Also Friends
WARSAW YOUR PLACE WARSAW YOUR PLACE This publication has been prepared on the basis of source materials provided by the City of Warsaw, municipal organisational units, municipal companies and external institutions. The photographs are part of the collection of the City of Warsaw. Unless the authors have stated otherwise, the publication features data of 2020. DEAR READERS, TABLE OF CONTENTS Warsaw is an open, friendly and rapidly Capital 6 developing metropolis. High quality of life, General Information 7 qualified staff, a leading academic centre, and Practical information 9 a wide range of highest-quality real estate are Moving around the citye 12 only a few assets of the city. Warsaw – an open city 14 Thanks to its location in the central part of Official matters 17 the country, Warsaw is a major business hub Cost of living 19 and an unquestionable leader in the Central Health 21 and Eastern Europe area in terms of economic growth and the maturity of the office market. Education and science 22 Employers have a wide access to qualified staff. Culture & events 24 Food 26 The city has state-of-the-art and Sport 28 environmentally-friendly public transport Shopping 30 and an extensive network of cycle paths. The green character of Warsaw contributes to its uniqueness. Green areas account for nearly 40% Green city 32 of the city’s total area, including natural areas, Free time 34 unique at a European scale, along the Vistula river flowing across the city. Smart city 36 Warsaw is an extraordinary city which has a lot to offer to both those who come here as tourists Economic profile 38 and to those who think about staying here Business-friendly city 41 for some time, investing, opening a company branch or opening a new business. -
V. 2016A -Stages)
Global chronostratigraphical correlation table for the last 2.7 million years v. 2016a -stages) benthic δ18O records cores Vostok and Dome-C (EDC) Section Jingbian ChiLoPart time scale est European Stages 18 W American Stages normal reversed 78.47ºS 106.86ºE Magnetic susceptibility stack of 57 globally distributed Antarctic Isotope Record 37º40’54”N 53º41’48”N biozonation biozonation ItalianMediterranean Marine Stages Sea 75.10ºS 123.35ºE Coarse grained admixture 108º31’15”E BiogenicComposite Silica record Content collating108º21’06”E overlapping core segments System Series Subseries, ChronsStages Palaeomagnetic record Chinese Loess Sequence BDP-96-1 [4, 6, 7, 12-19, 22, 25-27, 29-33, 48-50]; Russian Plain StagesNorth New Zealand Stages Age Marine Isotope Stages Planktonic Foraminifera Calcareous Nannoplankton‘Standard Stages’ (supeAge r Lake Baikal Sequence BDP-96-2 [GC-1,1-49]; BDP-98 [4] North British Stages Age (Ma) Age Subchrons, (Ma) 18 -8 3 (Ma) (Ma) Excursion events Stage 5 4 Atlantic Indo-Pacific 1 0 Oatm.‰ -450 -400 0 SUS 10 m / kg 100 75% % weight D >63 µm 0% 0 10 20 30 40 50% 0 Holocene 0 0 0.5 km 0.5 km S0 depth composite 0.0117 L 0.041 Laschamp 2 Termination I - 14 ka down core depth section Valdaian a 1.0 km L1 Weichselian Devensian Wisconsinan 4 5a 1.0 km t S1 0.1 arantian 0.1 5 m_ 0.1 e | MD95-2042 Tyrrhenian Eemian Ipswichian Mikulinian Sangamonian 0.121 Blake 5e T Termination II - 130 ka NN21 CN15 CN15 2.0 km Warthe 6 2.0 km L2 Moscovian 14 m_ Drenthe ‘Tottenhill’ Haweran 0.188 Iceland Basin Illinoian 0.2 0.2 7a 0.2 2.5 km Dnieper 0.2 0.211 ? LR04 stack S2 0.239 Pringle Falls 7e 8 Termination III - 243 ka PRZ 9a L3 Saalian 0.3 0.3 3.0 km 2.5 km Wacken olstonian pre-Illinoian A 0.3 9e S3 W M 10 / Dömnitz Termination IV - 337 ka PT1b NN20 b Fuhne 0.4 i 0.4 S4 0.4 12 11 3.3 km 20 m_ Holsteinian Hoxnian Likhvinian d Termination V - 424 ka 2.8 km L5 Elsterian Anglian Okian pre-Illinoian B 0.5 d Gt. -
The Lichen Genus Opegrapha Sl in Poland
Monographiae Botanicae 107 Monographiae Botanicae 107 Anetta Wieczorek The lichen genus Opegrapha s. l. in Poland: morphological variability, ecology, and distribution Monographiae Botanicae 107 Monographiae Botanicae 107 Ofcial publication of the Polish Botanical Society Anetta Wieczorek The lichen genus Opegrapha s. l. in Poland: morphological variability, ecology, and distribution Wrocław 2018 Editor-in-Chief of the series Zygmunt Kącki, University of Wrocław, Poland Honorary Editor-in-Chief Krystyna Czyżewska, University of Łódź, Poland Chairman of the Editorial Council Jacek Herbich, University of Gdańsk, Poland Editorial Council Idoia Biurrun, University of the Basque Country, Spain Gian Pietro Giusso del Galdo, University of Catania, Italy Jan Holeksa, Adam Mickiewicz University in Poznań, Poland Czesław Hołdyński, University of Warmia and Mazury in Olsztyn, Poland Bogdan Jackowiak, Adam Mickiewicz University in Poznań, Poland Zbigniew Mirek, W. Szafer Institute of Botany, Polish Academy of Sciences, Poland Valentina Neshataeva, Komarov Botanical Institute of the Russian Academy of Sciences, Russian Federation Marcin Nobis, Jagiellonian University, Poland Arkadiusz Nowak, University of Opole, Poland Vilém Pavlů, Crop Research Institute, Czech Republic Agnieszka Anna Popiela, University of Szczecin, Poland Lucyna Śliwa, W. Szafer Institute of Botany, Polish Academy of Sciences, Poland Iveta Škodová, Slovak Academy of Sciences, Slovakia David Zelený, National Taiwan University, Taiwan Jan Żarnowiec, University of Bielsko-Biala, Poland Editorial Secretary Grzegorz Swacha, University of Wrocław, Poland Managing/Production Editor Piotr Otręba, Polish Botanical Society, Poland Reviewers of the volume Damien Ertz, Botanic Garden Meise, Belgium Laszlo Lőkös, Hungarian Natural History Museum, Hungary Lucyna Śliwa, W. Szafer Institute of Botany, Polish Academy of Sciences, Poland Editorial ofce University of Wrocław Botanical Garden H. -
Excursion Guide
IGU Commission on Frost Action Environments IPA Working Group on Periglacial Environments EXCURSION GUIDE Symposium periglacial environments in relation to climatic change Maastricht I Amsterdam, 3rd -6th May 1991 vrije Universiteit amsterdam EXCURSION SITE 8 EARLY PLEISTOCENE PERIGLACIAL ENVIRONMENTS IN BEERSE K. Kasse Introduction Excursion site Beerse is situated in northern Belgium, approximately 30 km east of Antwerp and 9 km west of Turnhout (fig. 8.1 ). The undulating coversand landscape is 25 to 30 m above sea level. In this region Early-Pleistocene deposits occur close to the surface. They dip towards the North Sea basin, where the base of the Quaternary deposits is found up to 900 m below the surface, which illustrates the rapid subsidence of the North Sea basin during the Quaternary (Zagwijn, 1989). South of the excursion site the Early-Pleistocene units have been eroded, because of uplift of Belgium. The Early Pleistocene units are covered by a thin layer (1-2 m) of mostly eolian sand from the Weichselian period. Late Early- and Middle-Pleistocene deposits are missing because of erosion, which is expressed at the excursion site by a gravel-bed on top of the Early-Pleistocene sediments (see excursion site 9: Meerle). Due to the Middle- and Late-Pleistocene uplift and erosion the so-called Campine microcuesta developed, which consists of Early-Pleistocene compact clay beds (De Ploey, 1961 ). The cuesta slope dips to the north (0.1 %), while the steeper cuesta front dips south (0.2-0.5%) towards the Nete river, which flows to the west and discharges into the Scheidt near Antwerp. -
Pleistocene Glaciations of the North Sea Basin 4 5 Alastair G.C
CORE Metadata, citation and similar papers at core.ac.uk Provided by NERC Open Research Archive 1 Submitted for publication, 14/02/2010 AG 1 Chapter for Ehlers, J. and Gibbard, P.L. (eds.): Quaternary Glaciations – Extent and Chronology, 2nd edition 2 3 The Pleistocene Glaciations of the North Sea basin 4 5 Alastair G.C. Graham1*, Martyn S. Stoker2, Lidia Lonergan3, Tom Bradwell2, Margaret A. Stewart3,4 6 7 1 Ice Sheets programme, British Antarctic Survey, High Cross, Madingley Road, Cambridge, UK. 8 CB3 0ET 9 2 British Geological Survey, Murchison House, West Mains Road, Edinburgh, UK. EH9 3LA. 10 3 Department of Earth Science and Engineering, Imperial College London, South Kensington 11 Campus, London, UK. SW7 2AZ. 12 4 Present address: Neftex Petroleum Consultants, 97 Milton Park, UK. OX14 4RY. 13 14 15 * author for correspondence, Tel: 01223221640, Fax: 01223221646, Email: [email protected] 16 17 18 Abstract 19 It has long been recognised that Quaternary glaciations had a major influence upon the geological 20 history of the North Sea basin, with at least three main phases of ice-sheet growth and decay over the 21 last 0.5 Ma. However recent investigations, often based on novel methods including the analysis of 22 commercial 3-D seismic datasets, have begun to add further detail to knowledge of the North Sea 23 Pleistocene succession. Here, we review the Quaternary geology of the North Sea area, summarising 24 the evidence for extents, configurations, and timing of former glacial activity, focusing attention on 25 key sites across the basin, and for the first time, integrating the stratigraphy with up-to-date 26 information on the geomorphic (morphological) framework of the Pleistocene sequence. -
Breeding Population of the Rook Corvus Frugilegus in the Mazovian Lowland: Current Status and Changes
Intern. Stud. Sparrows 2017, 41: 4-21 DOI: 10.1515/isspar-2017-0001 Sławomir CHMIELEWSKI1, Andrzej DOMBROWSKI2, Piotr JABŁOŃSKI3, Marcin ŁUKASZEWICZ4, Łukasz NICEWICZ5, Łukasz TRĘBICKI6, Piotr PAGÓRSKI7, Jacek TABOR8 1 Mazowiecko-Świętokrzyskie Towarzystwo Ornitologiczne, Rynek 12, 05-640 Mogielnica, Poland, e-mail: [email protected], 2 Mazowiecko-Świętokrzyskie Towarzystwo Ornitologiczne, Świerkowa 18, 08-110 Siedlce, Poland, e-mail: adomb@ wp.pl, 3 05-827 Grodzisk Mazowiecki, Na Laski 40E, Poland, 4 Mazowiecko-Świętokrzyskie Towarzystwo Ornitologicz- ne, Radomska 7, 26-670 Pionki, Poland, e-mail: [email protected], 5 University of Silesia in Katowice Depart- ment of Animal Phisiology and Ecotoxicology, Bankowa 9, 40-007 Katowice, Poland, e-mail: [email protected], 6 Siedlce University of Natural Sciences and Humanities, Department of Zoology, Faculty of Natural Sciences, Prusa 2, 08-110 Siedlce, Poland, e-mail: [email protected], 7 06-500 Mława, Powstańców Wielkopolskich 3, Poland, 8Mazowiecko‑Świętokrzyskie Towarzystwo Ornitologiczne, Królowa Wola 174, 97-215 Inowłódz, Poland, e-mail: [email protected], BREEDING POPULATION OF THE ROOK CORVUS FRUGILEGUS IN THE MAZOVIAN LOWLAND: CURRENT STATUS AND CHANGES ABSTRACT In 2012–2015 nests of the Rook Corvus frugilegus were counted in the Mazovian Lowland area (42,379 km2) . A total of 69,442 nests on 693 sites were found . The over- 2 all population was estimated at 72,125-76,488 nests (x = 74,307, 175 nests/100 km ) . The average rookery size reached 100 .2 nests (SD = 192 .4) . There were five colonies (0 .7%) with at least 1,000 nests, 368 (52 .4%) small colonies with up to 25 nests, 32 (4 .6%) sites with single nests and 103 (14 .9%) with up to 3 nests . -
Dating Methods and the Quaternary
c01.fm Page 1 Wednesday, March 23, 2005 3:21 AM International Library of Archaeology 1 Dating Methods and the Quaternary Whatever withdraws us from the power of our senses; whatever makes the past, the distant or the future, predominate over the present, advances us in the dignity of thinking beings. Samuel Johnson 1.1 Introduction The Quaternary is the most recent period of the geological record. Spanning the last 2.5 million years or so of geological time1 and including the Pleistocene and Holocene epochs,2 it is often considered to be synonymous with the ‘Ice Age’. Indeed, for much of the Quaternary, the earth’s land surface has been covered by greatly expanded ice sheets and glaciers, and temperatures during these glacial periods were significantly lower than those of the present. But the Quaternary has also seen episodes, albeit much shorter in duration, of markedly warmer conditions, and in these interglacials the temperatures in the mid- and high-latitude regions may have exceeded those of the present day. Indeed, rather than being a period of unremitting cold, the hallmark of the Quaternary is the repeated oscillation of the earth’s global climate system between glacial and interglacial states. Establishing the timing of these climatic changes, and of their effects on the earth’s environment, is a key element in Quaternary research. Whether it is to date a particular climatic episode, to estimate the rate of operation of past geological or geomorphological processes, or to determine the age of an artefact or cultural assemblage, we need to be able to establish a chronology of events.