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Abstract of Counting Systems of Papua New Guinea and Oceania
Abstract of http://www.uog.ac.pg/glec/thesis/ch1web/ABSTRACT.htm Abstract of Counting Systems of Papua New Guinea and Oceania by Glendon A. Lean In modern technological societies we take the existence of numbers and the act of counting for granted: they occur in most everyday activities. They are regarded as being sufficiently important to warrant their occupying a substantial part of the primary school curriculum. Most of us, however, would find it difficult to answer with any authority several basic questions about number and counting. For example, how and when did numbers arise in human cultures: are they relatively recent inventions or are they an ancient feature of language? Is counting an important part of all cultures or only of some? Do all cultures count in essentially the same ways? In English, for example, we use what is known as a base 10 counting system and this is true of other European languages. Indeed our view of counting and number tends to be very much a Eurocentric one and yet the large majority the languages spoken in the world - about 4500 - are not European in nature but are the languages of the indigenous peoples of the Pacific, Africa, and the Americas. If we take these into account we obtain a quite different picture of counting systems from that of the Eurocentric view. This study, which attempts to answer these questions, is the culmination of more than twenty years on the counting systems of the indigenous and largely unwritten languages of the Pacific region and it involved extensive fieldwork as well as the consultation of published and rare unpublished sources. -
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. -
Indonesia (Republic Of)
Indonesia (Republic of) Last updated: 31-01-2004 Location and area Indonesia is an island republic and largest nation of South East Asia, stretching across some 5,000 km and with a north-south spread of about 2,000 km. The republic shares the island of Borneo with Malaysia and Brunei Darussalam; Indonesian Borneo, equivalent to about 75 per cent of the island, is called Kalimantan. The western half of New Guinea is the Indonesian province of Irian Jaya (formerly West Irian); the eastern half is part of Papua New Guinea. The marine frontiers of Indonesia include the South China Sea, the Celebes Sea, and the Pacific Ocean to the north, and the Indian Ocean to the south and west. Indonesia has a land area of 1,904,443 km2. (Microsoft Encarta Encyclopedia 2002). According to Geoanalytics (www.geoanalytics.com/bims/bims.htm) the land area of Indonesia comprises 1,919,663 km2. Topography Indonesia comprises 13,677 islands on both sides of the equator, 6,000 of which are inhabited. Kalimantan and Irian Jaya, together with Sumatra (also called Sumatera), Java (Jawa), and Celebes (Sulawesi) are the largest islands and, together with the insular provinces of Kalimantan and Irian Jaya, account for about 95 per cent of its land area. The smaller islands, including Madura, Timor, Lombok, Sumbawa, Flores, and Bali predominantly form part of island groups. The Moluccas (Maluku) and the Lesser Sunda Islands (Nusatenggara) are the largest island groups. The Java, Flores, and Banda seas divide the major islands of Indonesia into two unequal strings. The comparatively long, narrow islands of Sumatra, Java, Timor (in the Nusatenggara group), and others lie to the south; Borneo, Celebes, the Moluccas, and New Guinea lie to the north. -
ENCORE: the Eаect of Nutrient Enrichment on Coral Reefs
Marine Pollution Bulletin Vol. 42, No. 2, pp. 91±120, 2001 Ó 2001 Published by Elsevier Science Ltd. Printed in Great Britain PII: S0025-326X$00)00181-8 0025-326X/01 $ - see front matter ENCORE: The Eect of Nutrient Enrichment on Coral Reefs. Synthesis of Results and Conclusions K. KOOP *,1, D. BOOTHà, A. BROADBENT§,2, J. BRODIE , D. BUCHERàà, D. CAPONE ,3, J. COLL§§,4, W. DENNISON , M. ERDMANNààà, P. HARRISONàà, O. HOEGH-GULDBERG ,5, P. HUTCHINGS§§§, G. B. JONES§, A. W. D. LARKUM , J. O'NEIL ,5, A. STEVEN ,6, E. TENTORI§§, S. WARDàà,5, J. WILLIAMSON ,7 and D. YELLOWLEESàààà School of Biological Sciences, The University of Sydney, Sydney NSW 2006, Australia àDepartment Environmental Sciences, University of Technology, Sydney NSW 2065 Australia §Department of Chemistry, James Cook University, Townsville, Qld 4810, Australia Great Barrier Reef Marine Park Authority, P.O. Box 1379, Townsville, Qld 4810, Australia ààCentre for Coastal Management, Southern Cross University, P.O. Box 157, Lismore NSW 2480, Australia §§Department of Biology, Central Queensland University, Rockhampton, Qld 4702, Australia Department of Botany, University of Queensland, Brisbane, Qld 4072, Australia àààP.O. Box 1020, Manado, Sulawesi, Indonesia §§§The Australian Museum, 6, College Street, Sydney, NSW 2010, Australia Chesapeake Biological Laboratory, University of Maryland, Box 38, Solomons, MA 20688-0038, USA ààààBiochemistry and Molecular Biology, James Cook University, Townsville, Qld 4811 Australia Coral reef degradation resulting from nutrient enrichment assessed a variety of factors focusing on nutrient dynamics of coastal waters is of increasing global concern. Although and biotic responses. A controlled and replicated experi- eects of nutrients on coral reef organisms have been ment was conducted over two years using twelve small demonstrated in the laboratory,there is little direct evi- patch reefs ponded at low tide by a coral rim. -
The Eighth Continent?
www.Breaking News English.com Ready-to-Use English Lessons by Sean Banville “1,000 IDEAS & ACTIVITIES Thousands more free lessons FOR LANGUAGE TEACHERS” from Sean's other websites www.breakingnewsenglish.com/book.html www.freeeslmaterials.com/sean_banville_lessons.html Level 2 Zealandia – The eighth continent? 19th February, 2017 http://www.breakingnewsenglish.com/1702/170219-zealandia-2.html Contents The Reading 2 Phrase Matching 3 Listening Gap Fill 4 No Spaces 5 Survey 6 Writing and Speaking 7 Writing 8 Please try Levels 0, 1 and 3. They are (a little) harder. Twitter twitter.com/SeanBanville Facebook www.facebook.com/pages/BreakingNewsEnglish/155625444452176 Google + https://plus.google.com/+SeanBanville THE READING From http://www.breakingnewsenglish.com/1702/170219-zealandia-2.html We used to believe there were nine planets, but now there are eight (Pluto is not a planet). Now we may have to change how many continents there are. We are taught there are seven - Asia, Africa, North and South America, Antarctica, Europe, and Australia. Geologists now say there is an eighth continent - Zealandia. This is a big, largely underwater landmass in the Pacific Ocean. Six per cent of it is above water and is New Zealand and New Caledonia. The rest is under the ocean. It is five million square kilometres, which scientists say is big enough to be a continent. Geologists explained why Zealandia is a continent in a research paper in the Geological Society of America's Journal. They argue that the land does not have to be above water to be a continent. They said Zealandia is a continent because of four points: It is a lot higher than the area around it, it has a special geology, it is easy to see its shape, and it is thicker than the ocean floor. -
Redalyc.Lost Terranes of Zealandia: Possible Development of Late
Andean Geology ISSN: 0718-7092 [email protected] Servicio Nacional de Geología y Minería Chile Adams, Christopher J Lost Terranes of Zealandia: possible development of late Paleozoic and early Mesozoic sedimentary basins at the southwest Pacific margin of Gondwanaland, and their destination as terranes in southern South America Andean Geology, vol. 37, núm. 2, julio, 2010, pp. 442-454 Servicio Nacional de Geología y Minería Santiago, Chile Available in: http://www.redalyc.org/articulo.oa?id=173916371010 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 Andean Ge%gy 37 (2): 442-454. July. 2010 Andean Geology formerly Revista Geológica de Chile www.scielo.cl/andgeol.htm Lost Terranes of Zealandia: possible development of late Paleozoic and early Mesozoic sedimentary basins at the southwest Pacific margin of Gondwana land, and their destination as terranes in southern South America Christopher J. Adams GNS Science, Private Bag 1930, Dunedin, New Zealand. [email protected] ABSTRACT. Latesl Precambrian to Ordovician metasedimentary suecessions and Cambrian-Ordovician and Devonian Carboniferous granitoids form tbe major par! oftbe basemenl of soutbem Zealandia and adjacenl sectors ofAntarctica and southeastAustralia. Uplift/cooling ages ofthese rocks, and local Devonian shallow-water caver sequences suggest tbal final consolidation oftbe basemenl occurred tbrough Late Paleozoic time. A necessary consequence oftlris process would have been contemporaneous erosion and tbe substantial developmenl of marine sedimentary basins al tbe Pacific margin of Zealandia. -
Page 1 of 10 Phylogeny and Divergence Estimates for the Gasteruptiid Wasps (Hymenoptera : Evanioidea) Reveals a Correlation
Invertebrate Systematics 2020, 34, 319–327 © CSIRO 2020 doi:10.1071/IS19020_AC Supplementary material Phylogeny and divergence estimates for the gasteruptiid wasps (Hymenoptera : Evanioidea) reveals a correlation with hosts Ben A. ParslowA,B,E, John T. JenningsC, Michael P. SchwarzA and Mark I. StevensB,D ABiological Sciences, College of Science and Engineering, Flinders University, Adelaide, SA 5001, Australia. BSouth Australian Museum, North Terrace, GPO Box 234, Adelaide, SA 5000, Australia. CCentre for Evolutionary Biology and Biodiversity, and School of Biological Sciences, The University of Adelaide, SA 5005, Australia. DSchool of Pharmacy and Medical Sciences, University of South Australia, Adelaide, SA 5001, Australia. ECorresponding author. Email: [email protected] Fig. S1. Reconstruction ancestral state in phylogenies (RASP) analysis result, showing ancestral-state reconstruction of biogeography for all nodes. Main nodes discussed in the text are labelled with a letter. (See following page.) Page 1 of 10 Table S1. Specimen information Voucher numbers, species identification, GenBank accession numbers for C01, EF1-α and 28s gene fragments, collection localities and voucher location for all material used in this study are given. Abbreviations for collection locations are: PNG, Papua New Guinea; N.P., national park; C.P., conservation park; SA, South Australia; WA, Western Australia; Qld, Queensland; Tas., Tasmania; Vic., Victoria. Abbreviations for voucher location are: AMS, Australian Museum, Sydney, NSW, Australia; BPC, -
Gondwana Large Igneous Provinces (Lips): Distribution, Diversity and Significance
Downloaded from http://sp.lyellcollection.org/ by guest on September 30, 2021 Gondwana Large Igneous Provinces (LIPs): distribution, diversity and significance SARAJIT SENSARMA1*, BRYAN C. STOREY2 & VIVEK P. MALVIYA3 1Centre of Advanced Study in Geology, University of Lucknow, Lucknow, Uttar Pradesh 226007, India 2Gateway Antarctica, University of Canterbury, Private Bag 4800, Christchurch 8140, New Zealand 324E Mayur Residency Extension, Faridi Nagar, Lucknow, Uttar Pradesh 226016, India *Correspondence: [email protected] Abstract: Gondwana, comprising >64% of the present-day continental mass, is home to 33% of Large Igneous Provinces (LIPs) and is key to unravelling the lithosphere–atmosphere system and related tectonics that mediated global climate shifts and sediment production conducive for life on Earth. Increased recognition of bimodal LIPs in Gondwana with significant, sometimes subequal, proportions of synchronous silicic volcanic rocks, mostly rhyolites to high silica rhyolites (±associ- ated granitoids) to mafic volcanic rocks is a major frontier, not considered in mantle plume or plate process hypotheses. On a δ18O v. initial 87Sr/86Sr plot for silicic rocks in Gondwana LIPs there is a remarkable spread between continental crust and mantle values, signifying variable contributions of crust and mantle in their origins. Caldera-forming silicic LIP events were as large as their mafic counterparts, and erupted for a longer duration (>20 myr). Several Gondwana LIPs erupted near the active continental margins, in addition to within-continents; rifting, however, continued even after LIP emplacements in several cases or was aborted and did not open into ocean by coeval com- pression. Gondwana LIPs had devastating consequences in global climate shifts and are major global sediment sources influencing upper continental crust compositions. -
Mangroves Relevant to the Pacific Islands
PACIFIC MARINE CLIMATE CHANGE REPORT CARD Science Review 2018: pp 99-111 Effects of Climate Change on Mangroves Relevant to the Pacific Islands Joanna C. Ellison, University of Tasmania, Australia. EXECUTIVE SUMMARY Pacific island mangroves include the world’s centre of mangrove biodiversity in Papua New Guinea, and extend east through all countries and territories as far as the Marshall Islands and Samoa. Mangroves provide many values to local communities, however immense worldwide losses have occurred in the past century owing to human coastal development, including around urban centres in the Pacific islands. There is limited published information on the current health and status of Pacific island mangroves. Mangrove seaward edge retreat attributed to relative sea level rise has been shown by spatial analysis between 1961-2003 in American Samoa, long-term mangrove zone retreat landward has been shown from the tectonically subsiding coastlines of SW Papua and Tikina Wai, Fiji, and Micronesian mangrove substrates are not keeping up with relative sea level rise, all indicating future mangrove loss with accelerated rates. Future effects of climate change on Pacific island mangroves could include mangrove mortality during unusually dry periods, and devastating impacts from the higher rates of sea level rise that are projected. There is agreement and consensus that potential impacts of projected sea level rise will be high on mangroves of the Pacific islands, and priority adaptation actions include promotion of mangrove substrate accretion and mangrove monitoring. Introduction Mangroves are a taxonomically diverse group of specially adapted fauna, the word also refers to the tropical tree species, which have developed wetland habitat in which they occur, of low energy, low adaptations to inter-tidal habitats including salt control gradient tropical coastlines falling between mean and strategies, aerial roots, seed germination before high tide levels (Figure 1). -
Chapter 4 Alaska's Volcanic Landforms and Features
Chapter 4 Alaska's Volcanic Landforms and Features Resources • Alaska Volcano Observatory website. (Available at http://www.avo.alaska.edu.) • Brantley, S.R., 1999, Volcanoes of the United States: U.S. Geological Survey General Interest Publication. (Available at http://pubs.usgs.gov/gip/volcus/index.html.) • Miller, T.P., McGimsey, R.G., Richter, D.H., Riehle, J.R., Nye, C.J., Yount, M.E., and Dumoulin, J.A., 1998, Catalog of the historically active volcanoes of Alaska: U.S. Geological Survey Open-File Report 98-0582, 104 p. (Also available at http://www.avo.alaska.edu/downloads/classresults.php?citid=645.) • Nye, C.J., and others, 1998, Volcanoes of Alaska: Alaska Division of Geological and Geophysical Surveys Information Circular IC 0038, accessed June 1, 2010, at . PDF Front (6.4 MB) http://www.dggs.dnr.state.ak.us/webpubs/dggs/ic/oversized/ic038_sh001.PDF and . PDF Back (6.6 MB) http://www.dggs.dnr.state.ak.us/webpubs/dggs/ic/oversized/ic038_sh002.PDF. • Smithsonian Institution, [n.d.], Global volcanism program—Augustine: Smithsonian Institution web page, accessed June 1, 2010, at http://www.volcano.si.edu/world/volcano.cfm?vnum=1103-01- &volpage=photos&phoyo=026071. • Tilling, R.I., 1997, Volcanoes—On-line edition: U.S. Geological Survey General Interest Product. (Available at http://pubs.usgs.gov/gip/volc/.) • U.S. Geological Survey, 1997 [2007], Volcanoes teacher’s guide: U.S. Geological Survey website. (Available at http://erg.usgs.gov/isb/pubs/teachers- packets/volcanoes/. • U.S. Geological Survey, 2010, Volcano Hazards Program—USGS photo glossary of volcanic terms: U.S. -
Technical Appendix
Technical appendix Valuing nature conservation: A methodology for quantifying the benefits of protecting the planet’s natural capital 1 In this appendix, we detail the approach we used to estimate some of the costs and benefits of expanding nature conservation. The approach was designed and performed by McKinsey & Company’s agricultural and environmental advanced-analytics center (ACRE), which built on peer-reviewed methodologies and existing data points or spatial data layers. Our analytics have a global scope. Considering the necessary simplification, as well as the potential inaccuracies of the data at such a large scale, the results are not intended to represent precise local geographic contexts or recent local developments (political or otherwise). Although our analytics can provide useful directional guidance, drawing any local conclusions will require additional detailed, local studies. Geographic divisions of the Earth’s surface Our analysis uses different divisions of the Earth’s surface. First are ecozones (also known as biogeographic realms), of which there are eight on land, according to Olson et al.,¹ and 12 in coastal and shelf areas, according to the classification of Spalding et al.² Each represents a large region with distinct distributional patterns of organisms as a result of long-lasting isolating features such as oceans, broad deserts, or mountains on land, or water temperature and the proximity of benthos in oceans. These ecozones are shown in Exhibit 1. There are 14 terrestrial biomes, each representing a collection of plants and animals formed under similar climate conditions. Biomes can span continents and are shown in Exhibit 2.³ Nested within the ecozones and biomes are ecoregions, of which there are 867 on land and 232 in coastal and shelf areas. -
Wetlands of the Pacific Island Region
Wetlands Ecol Manage DOI 10.1007/s11273-008-9097-3 ORIGINAL PAPER Wetlands of the Pacific Island region Joanna C. Ellison Received: 1 August 2007 / Accepted: 19 April 2008 Ó Springer Science+Business Media B.V. 2008 Abstract The wetlands of 21 countries and territo- remain in this region. Only five countries are signato- ries of the Pacific Islands region are reviewed: ries to the Ramsar convention on wetlands, and this American Samoa, Cook Islands, Federated States of only recently with seven sites. Wetland managers have Micronesia, Fiji, French Polynesia, Guam, Kiribati, identified the need for community education, baseline Marshall Islands, Nauru, New Caledonia, Niue, surveys and monitoring, better legislation and policy Northern Mariana Islands, Palau, Papua New Guinea, for wetland management, and improved capacity of Samoa, Solomon Islands, Tokelau, Tonga, Tuvalu, local communities to allow the wise use of their Vanuatu, and Wallis and Futuna. The regions’ wet- wetlands. lands are classified into seven systems: coral reefs, seagrass beds, mangrove swamps, riverine, lacustrine, Keywords Oceania Á Wetland Á Pacific Islands Á freshwater swamp forests and marshes. The diversity Seagrass Á Mangrove Á Coral reef Á River Á Lake Á of species in each of these groups is at near global Freshwater swamp Á Marsh maxima at the west of the region, with decline towards the east with increasing isolation, and decreasing island size and age. The community structure is unique Introduction in each country, and many have endemic species with the habitat isolation that epitomises this island region. The Pacific Islands region (Fig. 1) while comprising There remain, however, some serious gaps in basic almost 38.5 million km2, supports less than 0.6 mil- inventory, particularly in freshwater biodiversity.