Chapter 7 Australasia
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The Legacy of the German Language in Papua New Guinea T
Craig Alan Voll<er The legacy of the German language in Papua New Guinea t. lntroduction' German colonial rule in the western Pacific began formally in 1884 when unbe- known to them, people in north-eastern New Guinea (Ifuiser Wilhelmsland), the archipelago around the Bismarck Sea, and in the next year, almost ali of neigh- boring Micronesia were proclaimed to be under German "protection". This act changed ways of living that had existed for tens of thousands of years and laid the foundation for what eventually became the modern state of Papua New Guinea. This proclamation was made in German, a language that was then unknown to Melanesians and Micronesians. Today the German language is again mostly unknown to most Melanesians and only a few visible traces of any German colonial legacy remain. There are no old colonial buildings, no monuments outside of a few small and almost hidden cemeteries, and no German Clubs or public signs in German. In this century there has not even been a German embassy. But it is impossible to step out in New Ireland (the former "Neu-Mecklenburg"), for example, without being con- fronted by a twenty-first century reality that is in part a creation of German col- onial rule. Species that were introduced by the Germans stiil retain their German name, frorn clover,I(lee in both German and the local Nalik language to pineap- ples (GermanAnanas / Nalik ananas). The best rural road in the country the Bulominski Highway was started by and named after the last German governor of Neu-Mecklenburg and a mountain range is known as the Schleinitz Range. -
Los Cien Montes Más Prominentes Del Planeta D
LOS CIEN MONTES MÁS PROMINENTES DEL PLANETA D. Metzler, E. Jurgalski, J. de Ferranti, A. Maizlish Nº Nombre Alt. Prom. Situación Lat. Long. Collado de referencia Alt. Lat. Long. 1 MOUNT EVEREST 8848 8848 Nepal/Tibet (China) 27°59'18" 86°55'27" 0 2 ACONCAGUA 6962 6962 Argentina -32°39'12" -70°00'39" 0 3 DENALI / MOUNT McKINLEY 6194 6144 Alaska (USA) 63°04'12" -151°00'15" SSW of Rivas (Nicaragua) 50 11°23'03" -85°51'11" 4 KILIMANJARO (KIBO) 5895 5885 Tanzania -3°04'33" 37°21'06" near Suez Canal 10 30°33'21" 32°07'04" 5 COLON/BOLIVAR * 5775 5584 Colombia 10°50'21" -73°41'09" local 191 10°43'51" -72°57'37" 6 MOUNT LOGAN 5959 5250 Yukon (Canada) 60°34'00" -140°24’14“ Mentasta Pass 709 62°55'19" -143°40’08“ 7 PICO DE ORIZABA / CITLALTÉPETL 5636 4922 Mexico 19°01'48" -97°16'15" Champagne Pass 714 60°47'26" -136°25'15" 8 VINSON MASSIF 4892 4892 Antarctica -78°31’32“ -85°37’02“ 0 New Guinea (Indonesia, Irian 9 PUNCAK JAYA / CARSTENSZ PYRAMID 4884 4884 -4°03'48" 137°11'09" 0 Jaya) 10 EL'BRUS 5642 4741 Russia 43°21'12" 42°26'21" West Pakistan 901 26°33'39" 63°39'17" 11 MONT BLANC 4808 4695 France 45°49'57" 06°51'52" near Ozero Kubenskoye 113 60°42'12" c.37°07'46" 12 DAMAVAND 5610 4667 Iran 35°57'18" 52°06'36" South of Kaukasus 943 42°01'27" 43°29'54" 13 KLYUCHEVSKAYA 4750 4649 Kamchatka (Russia) 56°03'15" 160°38'27" 101 60°23'27" 163°53'09" 14 NANGA PARBAT 8125 4608 Pakistan 35°14'21" 74°35'27" Zoji La 3517 34°16'39" 75°28'16" 15 MAUNA KEA 4205 4205 Hawaii (USA) 19°49'14" -155°28’05“ 0 16 JENGISH CHOKUSU 7435 4144 Kyrghysztan/China 42°02'15" 80°07'30" -
(1987): "Tectonomagmatic Evolution of Cenozoic Extension in the North American Cordillera"
Downloaded from http://sp.lyellcollection.org/ by Frances J Cooper on January 21, 2013 Geological Society, London, Special Publications Tectonomagmatic evolution of Cenozoic extension in the North American Cordillera Brian P. Wernicke, Philip C. England, Leslie J. Sonder and Robert L. Christiansen Geological Society, London, Special Publications 1987, v.28; p203-221. doi: 10.1144/GSL.SP.1987.028.01.15 Email alerting click here to receive free e-mail alerts when service new articles cite this article Permission click here to seek permission to re-use all or request part of this article Subscribe click here to subscribe to Geological Society, London, Special Publications or the Lyell Collection Notes © The Geological Society of London 2013 Downloaded from http://sp.lyellcollection.org/ by Frances J Cooper on January 21, 2013 Tectonomagmatic evolution of Cenozoic extension in the North American Cordillera B.P. Wernicke, R.L. Christiansen, P.C. England & L.J. Sonder SUMMARY: The spatial and temporal distributions of Cenozoic extension and magmatism in the Cordillera suggest that the onset of major crustal extension at a particular latitude was confined to a relatively narrow belt (< 100 km, pre-extension) and followed the onset of intermediate and silicic magmatism by no more than a few million years. Extension began in early Eocene time in southern British Columbia, northern Washington, Idaho and Montana. Farther S, extension began at about the Eocene- Oligocene boundary in the Great Basin and slightly later in the Mojave-Sonora Desert region. The intervening area, at the latitude of Las Vegas, remained quiescent until mid- Miocene time. Compositional and isotopic characteristics of most pre-Miocene magmas are consistent with their containing major components of melted continental crust. -
Kosipe Revisited
Peat in the mountains of New Guinea G.S. Hope Department of Archaeology and Natural History, Australian National University, Canberra, Australia _______________________________________________________________________________________ SUMMARY Peatlands are common in montane areas above 1,000 m in New Guinea and become extensive above 3,000 m in the subalpine zone. In the montane mires, swamp forests and grass or sedge fens predominate on swampy valley bottoms. These mires may be 4–8 m in depth and up to 30,000 years in age. In Papua New Guinea (PNG) there is about 2,250 km2 of montane peatland, and Papua Province (the Indonesian western half of the island) probably contains much more. Above 3,000 m, peat soils form under blanket bog on slopes as well as on valley floors. Vegetation types include cushion bog, grass bog and sedge fen. Typical peat depths are 0.5‒1 m on slopes, but valley floors and hollows contain up to 10 m of peat. The estimated total extent of mountain peatland is 14,800 km2 with 5,965 km2 in PNG and about 8,800 km2 in Papua Province. The stratigraphy, age structure and vegetation histories of 45 peatland or organic limnic sites above 750 m have been investigated since 1965. These record major vegetation shifts at 28,000, 17,000‒14,000 and 9,000 years ago and a variable history of human disturbance from 14,000 years ago with extensive clearance by the mid- Holocene at some sites. While montane peatlands were important agricultural centres in the Holocene, the introduction of new dryland crops has resulted in the abandonment of some peatlands in the last few centuries. -
Brief Overview of North American Cordilleran Geology by Cin-Ty Lee Topography Map of North America
Brief overview of North American Cordilleran geology by Cin‐Ty Lee Note: make sure to take notes as I will talk or sketch on the board many things that are not presented explicitly in these slides Topography map of North America Topography map How does the NthNorth AiAmerican Cor dillera fit itinto a glbllobal contt?text? Dickinson 2004 P‐wave tomography: Seismic structure beneath western USA Burdick et al. 2008 Crustal provinces of North America (Laurentia) ‐Proterozoic and Archean terranes were already assembled by 1.6 Ga Hoffman, 1988 Crustal provinces in southwestern USA Hoffman, 1988 Bennett and DePaolo, 1987 Some examples of tectonic margins for your reference Dickinson and Snyder, 1978 1.1 Ga = Rodinia Super‐continent (Grenvillian age) Neo‐Proterozoic = Rodinia breaks up “western” margin of Laurentia represents a passive margin due to opening of the Panthalassan ocean 700‐400 Ma Western margin of Laurentia represents a passive margin Dickinson and Snyder, 1978 400‐250 Ma Passive margin is interrupted in Devonian times by the accretion of island arcs Antler and Sonoma orogenies Accretion of allochthonous terranes to the western margin of the NhNorth AiAmerican craton Antler/Sonoma orogenies result in the accretion of Paleozoic island arc terranes to western North America Permian Formation of Pangea “”“western” margin of NhNorth AiAmerica now didominate d by subduct ion zone 250‐50 Ma Subduction results in continued accretion of fringing island arcs and the generation of continental magmatic arcs Sierra Nevada batholith Sevier and -
OPPOSITE THRUST-VERGENCIES in the PRECORDILLERA and WESTERN CORDILLERA in NORTHERN CHILE and Structurally LINKED CENOZOIC PALEOENVIRONMENTAL EVOLUTION
Fourth /SAG. Goettingen (Germany), 04 - 06//0//999 155 OPPOSITE THRUST-VERGENCIES IN THE PRECORDILLERA AND WESTERN CORDILLERA IN NORTHERN CHILE AND STRUCTURALLy LINKED CENOZOIC PALEOENVIRONMENTAL EVOLUTION Reynaldo CHARRIER(I-7), Gérard HERAIL(2-7), John FLYNN(3), Rodrigo RIQUELME(I-7), Marcelo GARCIA(4-7), Darin CROFf(5) and André WYSS(6) (1) Departamento de Geologfa, Universidad de Chile; [email protected]. (2) IRD, 209-213, Rue La Fayette, 75010 Paris,[email protected]. (3) The Field Museum of Natural History, Chicago, USA. [email protected]. (4) SERNAGEOMIN. Av. Sta. Maria 0104, Providencia, Santiago, Chile. [email protected]. (5) The Field Museum of Natural History, Chicago, and University of Chicago, USA. (6) Department of Geological Sciences, University of California Santa Barbara, USA [email protected]. (7) Convenio IRD-Departamento de Geologïa, Universidad de Chi le. KEY WORDS: Altiplano, Chile, syntectonic sedimentation, Cenozoic paleoenvironment. INTRODUCTION Morphologie units in the northern Chilean Andes parailei one another and the offshore trench. These units are, from west to east: Coastal Cordillera, Central Depression, Precordillera, Western Cordillera and Altiplano (Fig. i). The development of the west part of the Western Cordillera (Chapiquifia-Belén Ridge), in the Chilean Altiplano, was controlled by two diverging, trench-parallel systems of thrusts and folds, one located along the Precordil1era and the other along the eastern side of the Western Cordillera. Although total shortening associated with these systems is only 12 to 14 km, their activity determined the development of fluvial and lacustrine basins which recorded the synorogenic paleoenvironmental evolution of this region. We describe here facies, geometry and chronology of the deposits associated with both systems and provide an explanation for the differing depositional environments developed on the Precordillera and the Western Cordillera. -
Papua New Guinea Highlands and Mt Wilhelm 1978 Part 1
PAPUA NEW GUINEA HIGHLANDS AND MT WILHELM 1978 PART 1 The predawn forest became alive with the melodic calls of unseen thrushes, and the piercing calls of distant parrots. The skies revealed the warmth of the morning dawn revealing thunderheads over the distant mountains that seemed to reach the melting stars as the night sky disappeared. I was 30 meters above the ground in a tree blind climbed before dawn. Swirling mists enshrouded the steep jungle canopy amidst a great diversity of forest trees. I was waiting for male lesser birds of paradise Paradisaea minor to come in to a tree lek next to the blind, where males compete for prominent perches and defend them from rivals. From these perch’s males display by clapping their wings and shaking their head. At sunrise, two male Lesser Birds-of-Paradise arrived, scuffled for the highest perch and called with a series of loud far-carrying cries that increase in intensity. They then displayed and bobbed their yellow-and-iridescent-green heads for attention, spreading their feathers wide and hopped about madly, singing a one-note tune. The birds then lowered their heads, continuing to display their billowing golden white plumage rising above their rust-red wings. A less dazzling female flew in and moved around between the males critically choosing one, mated, then flew off. I was privileged to have used a researcher study blind and see one of the most unique group of birds in the world endemic to Papua New Guinea and its nearby islands. Lesser bird of paradise lek near Mt Kaindi near Wau Ecology Institute Birds of paradise are in the crow family, with intelligent crow behavior, and with amazingly complex sexual mate behavior. -
The Climate of Mt Wilhelm RJ Hnatiuk JM B Smith D N Mcvean Mt Wilhelm Studies 2
Mt Wilhelm Studies 2 The Climate of Mt Wilhelm RJ Hnatiuk JM B Smith D N Mcvean Mt Wilhelm Studies 2 TheRJ Hnatiuk Climate JM B Smith of DMt N Mcvean Wilhelm Research School of Pacific Studies Department of Biogeography & Geomorphology Publication BG/4 The Australian National University, Canberra Printed and Published in Australia at The Australian National University 1976 National Library of Australia Card No. and I.S.B.N. 0 7081 1335 4 © 1976 Australian National University This Book is copyright. Apart from any fair dealing for the purpose of private study, research, criticism, or review, as permitted under the Copyright Act, no part may be reproduced by any process without written permission . Printed at: SOCPAC Printery The Research Schools of Social Science and Pacific Studies H.C. Coombs Building, ANU Distributed for the Department by: The Australian National University Press The Climate of Mt Wilhelm PREFACE In 1966, the Australian National University with assistance from the Bernice P. Bishop Museum, Hawaii, established a field station beside the lower Pindaunde Lake at an altitude of 3480 m on the south- east flank of Mt Wilhelm, the highest point in Papua New Guinea. The field station has been used by a number of workers in the natural sciences, many of whose publications are referred to later in this work. The present volume arises from observations made by three botanists and their collaborators when members of the Department of Biogeography and Geomorphology, during the course of their work on Mt Wilhelm while based on the ANU field station. It is the second in the Departmental series describing the environment and biota of the mountain, and will be followed by others dealing with different aspects of its natural history. -
Plate Tectonic Setting of the Andean Cordillera
183 by Victor A. Ramos Plate tectonic setting of the Andean Cordillera Laboratorio de Tectónica Andina, Universidad de Buenos Aires, Argentina. E-mail: [email protected] The Andes are a natural laboratory for the study of the acterize the different segments are widely variable. The present interaction between subduction of the oceanic plate and overview will focus on the major geological differences among these segments, based on today’s plate-tectonic knowledge of this moun- active geological processes. Inter- and intraplate seis- tain chain. micity, volcanic activity, thick- and thin-skinned fold and thrust belts, and foreland basin subsidence, in con- junction with space geodetic observations, contribute to Major geological provinces characterize the present plate tectonic setting of discrete The Andes north of the Golfo de Guayaquil are unique, as estab- segments of the Andes. The inherited geological history, lished by Gansser (1973). The Northern Andes record an important as well as the present tectonic setting, is responsible for accretion of oceanic crust during Jurassic, late Cretaceous, and Pale- the unique geology of the Northern, Central, and South- ogene times. As a result, the Western Cordillera of Colombia and Ecuador is mainly constituted of an oceanic basement that during ern Andes. The Northern Andes are the result of Meso- accretion was related to ophiolite obduction, important penetrative zoic and Cenozoic collisions of oceanic terranes, prior deformation and metamorphism, in cases up to blue schist facies. to the present Andean-type setting. The Central Andes Further north, the emplacement of the Caribbean nappes was related to the collision of an island arc system, the Bonaire block, during have a long history of subduction and volcanic arc Paleogene times (Bosch and Rodríguez, 1992, Kellogg and Bonini, activity, while the Southern Andes record the closing of 1982). -
The Cordillera of the Andes Boundary Case (Argentina, Chile)
REPORTS OF INTERNATIONAL ARBITRAL AWARDS RECUEIL DES SENTENCES ARBITRALES The Cordillera of the Andes Boundary Case (Argentina, Chile) 20 November 1902 VOLUME IX pp. 37-49 NATIONS UNIES - UNITED NATIONS Copyright (c) 2006 37 AWARD BY HIS MAJESTY KING EDWARD VII IN THE ARGENTINE- CHI LE BOUNDARY CASE, 20 NOVEMBER 1902 x WHEREAS, by an Agreement dated the 17th day of April 1896, the Argentine Republic and the Republic of Chile, by Their respective Representatives, determined: THAT should differences arise between their experts as to the boundary-line to be traced between the two States in conformity with the Treaty of 1881 and the Protocol of 1893, and in case such differences could not be amicably settled by accord between the two Governments, they should be submitted to the decision of the Government of Her Britannic Majesty; AND WHEREAS such differences did arise and were submitted to the Govern- ment of Her late Majesty Queen Victoria; AND WHEREAS the Tribunal appointed to examine and consider the differences which had so arisen, has — after the ground has been examined by a Com- mission designated for that purpose — now reported to Us, and submitted to Us, after mature deliberation, their opinions and recommendations for Our consideration ; Now, WE, EDWARD, by the grace of God, King of the United Kingdom of Great Britain and Ireland and of the British Dominions beyond the Seas King, Defender of the Faith, Emperor of India, etc., etc., have arrived at the following decisions upon the questions in dispute, which have been referred to Our arbitration, viz. : 1. -
Present Knowledge of the Magmatic Evolution of the Eastern Cordillera of Peru
Earth-Science Reviews, 18 (1982) 253-283 253 Elsevier Scientific Publishing Company, Amsterdam-Printed in The Netherlands Present Knowledge of the Magmatic Evolution of the Eastern Cordillera of Peru G. Carlier', G. Grandin', G. Laubacher', R. and F. M6gard2 ' ORSTOM, Mission Peru, Apartado 270, Lima 18 (Peru) and 2'4 rue Bayard75008 Paris (France) ' Institut Francais #Etudes Andines, Apartado 278, Lima I8 (Peru) Pontificia Universidad Catdica del Perú, Avda S. Boliuar, Lima 27 (Peru) ABSTRACT Carlier, G., Grandin, G., Laubacher, G., Marócco, R. and Mégard, F., 1982. Present knowledge of the magmatic evolution of the Eastern Cordillera of Peru. Earth-Sci. Rev., 18: 253-283. The studies which have been carried out in the Eastern Cordillera of Peru over the past 20 years prove the existence of at least three orogenic cycles: the Late Precambrian, the Hercynian and the Andean, each one accompanied by a more or less abundant magmatism. (1) The Precambrian. Leaving aside the prasinites, possibly derived from synsedimentary , volcanites, Precambrian magmatism (in the Huanuco region) consists of: a meta-igneous ultramafic to mafic association (serpentinites, meta-gabbros, meta-diorites); syntectonic meta-tonalites; and post-tectonic dioritic and granitic intrusive bodies. (2) The Hercynian (550 to 220 my.). From the Cambrian to the Upper Devonian the existence of a synsedimentary magmatism is known. Syntectonic granites were emplaced during the Eohercynian phase, but the major part of magmatism is of a Late Permian to Early Trias age, and is characterized by the intrusion of granitoids and by volcanism of calc-al- kaline tendency. It appears that the nepheline syenite of Macusani may belong to a terminal episode of this magmatic period. -
PAPUA NEW GUINEA Ramu River Below Yonki Dam Spillway 1
PAPUA NEW GUINEA Ramu River below Yonki dam Spillway 1. COUNTRY INTRODUCTION Description: Economy: Located directly north of Australia and east of Papua New Guinea (PNG) has vast reserves of Indonesia, in between the Coral Sea and the natural resources, but exploitation has been South Pacific Ocean, Papua New Guinea (PNG) hampered by rugged terrain, land tenure issues, comprises several large high volcanic islands and and the high cost of developing infrastructure. numerous volcanic and coral atolls. PNG has the The economy is focused mainly on the extraction largest land area found within the Pacific Island and export of the abundant natural resources. Countries with an area of over 462,840kms2. The Mineral deposits, including copper, gold, and highest point is Mount Wilhelm at 4,509m. The oil, account for nearly two-thirds of the export land is characterised by densely forested steep earnings. Agriculture provides a subsistence catchments, where less than 0.5% of the land area livelihood for 85% of the people. Natural gas is considered arable with an estimated 1.4% of reserves amount to an estimated 227 billion cubic total the land used for permanent crops. meters. A consortium led by a major American oil company is constructing a liquefied natural The 2000 census data identifies a population gas (LNG) production facility that could begin of 5,190,786 (PNG, National Statistics Office), exporting in 2014. As the largest investment with an estimated 87% of the population project in the country’s history, it has the living in rural areas (Demography and Housing potential to double GDP in the near-term and survey, 2006).