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Wildlife Act 1953
Reprint as at 7 August 2020 Wildlife Act 1953 Public Act 1953 No 31 Date of assent 31 October 1953 Commencement see section 1(2) Contents Page Title 7 1 Short Title and commencement 7 2 Interpretation 7 2A Meaning of possession 14 2B Application of certain provisions restricted 15 Part 1 Protection of wildlife 3 Wildlife to be protected 15 4 Certain wildlife declared to be game 16 5 Certain wildlife partially protected 16 6 Certain wildlife may be hunted subject to conditions imposed by 16 the Minister 7 Certain wildlife not protected 17 7A Wild animals 17 7B Terrestrial and freshwater invertebrates 18 7BA Marine species 18 7C Farming certain unprotected animals 18 8 Alteration of schedules 19 Note Changes authorised by subpart 2 of Part 2 of the Legislation Act 2012 have been made in this official reprint. Note 4 at the end of this reprint provides a list of the amendments incorporated. This Act is administered by the Department of Conservation. 1 Reprinted as at Wildlife Act 1953 7 August 2020 Wildlife sanctuaries 9 Wildlife sanctuaries 19 10 All wildlife in sanctuaries absolutely protected 23 11 Destruction or seizure of certain animals found in sanctuaries 24 12 Mining privileges, coal mining rights, and public works 24 [Repealed] 13 Seizure of wildlife, etc, illegally taken 24 Wildlife refuges 14 Wildlife refuges 25 Wildlife management reserves 14A Wildlife management reserves 28 14AA Granting of concessions in wildlife sanctuaries, wildlife refuges, 30 and wildlife management reserves Management planning 14B Wildlife areas to be -
Reptile-Like Physiology in Early Jurassic Stem-Mammals
bioRxiv preprint doi: https://doi.org/10.1101/785360; this version posted October 10, 2019. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. Title: Reptile-like physiology in Early Jurassic stem-mammals Authors: Elis Newham1*, Pamela G. Gill2,3*, Philippa Brewer3, Michael J. Benton2, Vincent Fernandez4,5, Neil J. Gostling6, David Haberthür7, Jukka Jernvall8, Tuomas Kankanpää9, Aki 5 Kallonen10, Charles Navarro2, Alexandra Pacureanu5, Berit Zeller-Plumhoff11, Kelly Richards12, Kate Robson-Brown13, Philipp Schneider14, Heikki Suhonen10, Paul Tafforeau5, Katherine Williams14, & Ian J. Corfe8*. Affiliations: 10 1School of Physiology, Pharmacology & Neuroscience, University of Bristol, Bristol, UK. 2School of Earth Sciences, University of Bristol, Bristol, UK. 3Earth Science Department, The Natural History Museum, London, UK. 4Core Research Laboratories, The Natural History Museum, London, UK. 5European Synchrotron Radiation Facility, Grenoble, France. 15 6School of Biological Sciences, University of Southampton, Southampton, UK. 7Institute of Anatomy, University of Bern, Bern, Switzerland. 8Institute of Biotechnology, University of Helsinki, Helsinki, Finland. 9Department of Agricultural Sciences, University of Helsinki, Helsinki, Finland. 10Department of Physics, University of Helsinki, Helsinki, Finland. 20 11Helmholtz-Zentrum Geesthacht, Zentrum für Material-und Küstenforschung GmbH Germany. 12Oxford University Museum of Natural History, Oxford, OX1 3PW, UK. 1 bioRxiv preprint doi: https://doi.org/10.1101/785360; this version posted October 10, 2019. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. 13Department of Anthropology and Archaeology, University of Bristol, Bristol, UK. 14Faculty of Engineering and Physical Sciences, University of Southampton, Southampton, UK. -
Wildlife Matters: Winter 2016 1 Wildlife Matters
Wildlife Matters: Winter 2016 1 wildlife matters Winter 2016 Historic partnership: AWC to reintroduce lost mammals to NSW national parks 2 Wildlife Matters: Winter 2016 Saving Australia’s threatened wildlife Welcome to the Winter 2016 edition of Wildlife Matters. The AWC mission This edition marks the beginning of a historic partnership between Australian The mission of Australian Wildlife Wildlife Conservancy (AWC) and the NSW Government. AWC has been contracted Conservancy (AWC) is the effective to deliver national park management services in the iconic Pilliga forest and at conservation of all Australian animal Mallee Cliffs National Park in the state’s south-west. It is the first public-private species and the habitats in which they live. collaboration of its kind. The centrepiece of this exciting partnership will be the reintroduction of at least 10 mammal species that are currently listed as extinct in To achieve this mission our actions are NSW. focused on: This is one of the world’s most significant biodiversity reconstruction projects. The • Establishing a network of sanctuaries return of mammals such as the Bilby and the Numbat – which disappeared from which protect threatened wildlife and NSW national parks more than 100 years ago – will represent a defining moment in ecosystems: AWC now manages our quest to halt and reverse the loss of Australia’s unique wildlife. 25 sanctuaries covering over 3.25 million hectares (8 million acres). The initiative reflects strong leadership by the NSW Government. It is committing substantial funds for threatened species, including this partnership with AWC. • Implementing practical, on-ground More importantly, the NSW Government recognises the need to develop new conservation programs to protect approaches to conservation if we are to reverse the catastrophic decline of the wildlife at our sanctuaries: these Australia’s natural capital. -
Evolutionary Genetics and the Major Histocompatibility Complex of New Zealand Robins (Petroicidae)
Copyright is owned by the Author of the thesis. Permission is given for a copy to be downloaded by an individual for the purpose of research and private study only. The thesis may not be reproduced elsewhere without the permission of the Author. Evolutionary Genetics and the Major Histocompatibility Complex of New Zealand Robins (Petroicidae) Hilary C. Miller A thesis submitted for the degree of Doctor of Philosophy in Molecular BioSciences at Massey University, New Zealand June 2003 The founding black robin pair, Old Blue (above), and Old Yellow (right) Photo: Rod Morris The South Island robin Photo: J. Kendrick (DOe) Abstract The genes ofthe major histocompatibility complex (MHC) are highly polymorphic and play a direct role in disease resistance. Loss of variation at MHC loci may increase extinction risk in endangered species, due to an inability to combat a range of pathogens. In this thesis, the evolution of class II B MHC genes is investigated, and levels of variation at these loci are measured in two species of New Zealand robin, the endangered Chatham Island black robin (Petroica traversi), and the non-endangered South Island robin (Petroica australis australis). Transcribed class II B MHC loci from both black robin and South Island robin were characterised prior to analysis ofMHC variation. To this end, a non-lethal protocol fo r isolation of transcribed sequences from blood using 3'RA CE and RT-PCR was developed. Four class II B cDNA sequences were isolated frombla ck robin, and eight sequences were isolated from the South Island robin, indicating there are at least fo ur class II B loci. -
Lindsay Masters
CHARACTERISATION OF EXPERIMENTALLY INDUCED AND SPONTANEOUSLY OCCURRING DISEASE WITHIN CAPTIVE BRED DASYURIDS Scott Andrew Lindsay A thesis submitted in fulfillment of requirements for the postgraduate degree of Masters of Veterinary Science Faculty of Veterinary Science University of Sydney March 2014 STATEMENT OF ORIGINALITY Apart from assistance acknowledged, this thesis represents the unaided work of the author. The text of this thesis contains no material previously published or written unless due reference to this material is made. This work has neither been presented nor is currently being presented for any other degree. Scott Lindsay 30 March 2014. i SUMMARY Neosporosis is a disease of worldwide distribution resulting from infection by the obligate intracellular apicomplexan protozoan parasite Neospora caninum, which is a major cause of infectious bovine abortion and a significant economic burden to the cattle industry. Definitive hosts are canid and an extensive range of identified susceptible intermediate hosts now includes native Australian species. Pilot experiments demonstrated the high disease susceptibility and the unexpected observation of rapid and prolific cyst formation in the fat-tailed dunnart (Sminthopsis crassicaudata) following inoculation with N. caninum. These findings contrast those in the immunocompetent rodent models and have enormous implications for the role of the dunnart as an animal model to study the molecular host-parasite interactions contributing to cyst formation. An immunohistochemical investigation of the dunnart host cellular response to inoculation with N. caninum was undertaken to determine if a detectable alteration contributes to cyst formation, compared with the eutherian models. Selective cell labelling was observed using novel antibodies developed against Tasmanian devil proteins (CD4, CD8, IgG and IgM) as well as appropriate labelling with additional antibodies targeting T cells (CD3), B cells (CD79b, PAX5), granulocytes, and the monocyte-macrophage family (MAC387). -
Size Relationship of the Tympanic Bullae and Pinnae in Bandicoots and Bilbies (Marsupialia: Peramelemorphia)
Size Relationship of the Tympanic Bullae and Pinnae in Bandicoots and Bilbies (Marsupialia: Peramelemorphia) by Melissa Taylor BSc This thesis is presented for the degree of Bachelor of Science Honours, School of Veterinary and Life Sciences, of Murdoch University Perth, Western Australia, 2019 Author’s Declaration I declare that this thesis is my own account of my research and contains as its main content work which has not previously been submitted for a degree at any tertiary education institution. Melissa Taylor iii Abstract Hearing is an important factor allowing species to obtain information about their environment. Variation in tympanic bullae and external pinnae morphology has been linked with hearing sensitivity and sound localisation in different mammals. Bandicoots and bilbies (Order Peramelemorphia) typically occupy omnivorous niches across a range of habitats from open, arid deserts to dense, tropical forests in Australia and New Guinea. The morphology of tympanic bullae and pinnae varies between peramelemorphian taxa. Little is known about the relationship between these structures, or the extent to which they vary with respect to aspects of ecology, environment or behaviour. This thesis investigated the relationship between tympanic bulla and pinna size in 29 species of bandicoot and bilby. Measurements were taken from museum specimens to investigate this relationship using direct measuring methods and linear dimensions. It was hypothesised that an inverse relationship between bullae and pinnae may exist and that species residing in arid regions would have more extreme differences. Environmental variables were examined to determine the level of influence they had on bullae and pinnae. This study found that there was a phylogenetic correlation between the structures and that they were significantly influenced by temperature (max/average) and precipitation (average). -
Museum Occurrence Data Predict Genetic Diversity in a Species-Rich Clade of Australian Lizards Supplementary Online Material
Museum occurrence data predict genetic diversity in a species-rich clade of Australian lizards Supplementary Online Material Sonal Singhal, Huateng Huang, Pascal O. Title, Stephen C. Donnellan, Iris Holmes, Daniel L. Rabosky March 9, 2017 Contents 1 Materials and Methods 2 1.1 Sampling . .2 1.2 Library Preparation and Sequencing . .2 1.3 Testing Methods for ddRAD data assembly . .2 1.4 Species Delimitation . .3 1.5 Measures of Genetic Diversity . .4 1.5.1 Generating Pseudo-reference Genomes . .4 1.5.2 Within-population p ......................................4 1.5.3 Species-wide p .........................................5 1.5.4 mtDNA p ............................................5 1.5.5 Calculating diversity . .5 1.6 Demographic Analyses . .5 1.6.1 Running ADMIXTURE . .5 1.6.2 Running ANGSD . .5 1.6.3 Running LAMARC . .6 1.7 Species Tree . .6 1.8 Collecting data on possible drivers of genetic diversity . .7 1.8.1 Proxies for census population size . .7 1.8.2 Environmental hetereogeneity . .9 1.8.3 Historical demography . .9 1.8.4 Possible confounders . .9 1.9 Model-Testing . 10 2 Figures and Tables 10 2.1 Tables . 10 2.2 Figures . 13 1 1 Materials and Methods 1.1 Sampling This study takes advantage of the numerous tissue samples accessioned in natural history museums across the United States and Australia. In this study, we sampled tissues from 8 museums: Australian Museum, Cornell University Museum of Vertebrates, Australian Biological Tissue Collection, Northern Territory Mu- seum, Queensland Museum, South Australian Museum, University of Michigan Museum of Zoology, and Western Australian Museum. Species boundaries in the genus Ctenotus have been subject to sufficient revi- sion (1), and, like many squamate species, many Ctenotus species contain multiple, cryptic species. -
Platypus Collins, L.R
AUSTRALIAN MAMMALS BIOLOGY AND CAPTIVE MANAGEMENT Stephen Jackson © CSIRO 2003 All rights reserved. Except under the conditions described in the Australian Copyright Act 1968 and subsequent amendments, no part of this publication may be reproduced, stored in a retrieval system or transmitted in any form or by any means, electronic, mechanical, photocopying, recording, duplicating or otherwise, without the prior permission of the copyright owner. Contact CSIRO PUBLISHING for all permission requests. National Library of Australia Cataloguing-in-Publication entry Jackson, Stephen M. Australian mammals: Biology and captive management Bibliography. ISBN 0 643 06635 7. 1. Mammals – Australia. 2. Captive mammals. I. Title. 599.0994 Available from CSIRO PUBLISHING 150 Oxford Street (PO Box 1139) Collingwood VIC 3066 Australia Telephone: +61 3 9662 7666 Local call: 1300 788 000 (Australia only) Fax: +61 3 9662 7555 Email: [email protected] Web site: www.publish.csiro.au Cover photos courtesy Stephen Jackson, Esther Beaton and Nick Alexander Set in Minion and Optima Cover and text design by James Kelly Typeset by Desktop Concepts Pty Ltd Printed in Australia by Ligare REFERENCES reserved. Chapter 1 – Platypus Collins, L.R. (1973) Monotremes and Marsupials: A Reference for Zoological Institutions. Smithsonian Institution Press, rights Austin, M.A. (1997) A Practical Guide to the Successful Washington. All Handrearing of Tasmanian Marsupials. Regal Publications, Collins, G.H., Whittington, R.J. & Canfield, P.J. (1986) Melbourne. Theileria ornithorhynchi Mackerras, 1959 in the platypus, 2003. Beaven, M. (1997) Hand rearing of a juvenile platypus. Ornithorhynchus anatinus (Shaw). Journal of Wildlife Proceedings of the ASZK/ARAZPA Conference. 16–20 March. -
A Dated Phylogeny of Marsupials Using a Molecular Supermatrix and Multiple Fossil Constraints
Journal of Mammalogy, 89(1):175–189, 2008 A DATED PHYLOGENY OF MARSUPIALS USING A MOLECULAR SUPERMATRIX AND MULTIPLE FOSSIL CONSTRAINTS ROBIN M. D. BECK* School of Biological, Earth and Environmental Sciences, University of New South Wales, Sydney, New South Wales 2052, Australia Downloaded from https://academic.oup.com/jmammal/article/89/1/175/1020874 by guest on 25 September 2021 Phylogenetic relationships within marsupials were investigated based on a 20.1-kilobase molecular supermatrix comprising 7 nuclear and 15 mitochondrial genes analyzed using both maximum likelihood and Bayesian approaches and 3 different partitioning strategies. The study revealed that base composition bias in the 3rd codon positions of mitochondrial genes misled even the partitioned maximum-likelihood analyses, whereas Bayesian analyses were less affected. After correcting for base composition bias, monophyly of the currently recognized marsupial orders, of Australidelphia, and of a clade comprising Dasyuromorphia, Notoryctes,and Peramelemorphia, were supported strongly by both Bayesian posterior probabilities and maximum-likelihood bootstrap values. Monophyly of the Australasian marsupials, of Notoryctes þ Dasyuromorphia, and of Caenolestes þ Australidelphia were less well supported. Within Diprotodontia, Burramyidae þ Phalangeridae received relatively strong support. Divergence dates calculated using a Bayesian relaxed molecular clock and multiple age constraints suggested at least 3 independent dispersals of marsupials from North to South America during the Late Cretaceous or early Paleocene. Within the Australasian clade, the macropodine radiation, the divergence of phascogaline and dasyurine dasyurids, and the divergence of perameline and peroryctine peramelemorphians all coincided with periods of significant environmental change during the Miocene. An analysis of ‘‘unrepresented basal branch lengths’’ suggests that the fossil record is particularly poor for didelphids and most groups within the Australasian radiation. -
Disaggregation of Bird Families Listed on Cms Appendix Ii
Convention on the Conservation of Migratory Species of Wild Animals 2nd Meeting of the Sessional Committee of the CMS Scientific Council (ScC-SC2) Bonn, Germany, 10 – 14 July 2017 UNEP/CMS/ScC-SC2/Inf.3 DISAGGREGATION OF BIRD FAMILIES LISTED ON CMS APPENDIX II (Prepared by the Appointed Councillors for Birds) Summary: The first meeting of the Sessional Committee of the Scientific Council identified the adoption of a new standard reference for avian taxonomy as an opportunity to disaggregate the higher-level taxa listed on Appendix II and to identify those that are considered to be migratory species and that have an unfavourable conservation status. The current paper presents an initial analysis of the higher-level disaggregation using the Handbook of the Birds of the World/BirdLife International Illustrated Checklist of the Birds of the World Volumes 1 and 2 taxonomy, and identifies the challenges in completing the analysis to identify all of the migratory species and the corresponding Range States. The document has been prepared by the COP Appointed Scientific Councilors for Birds. This is a supplementary paper to COP document UNEP/CMS/COP12/Doc.25.3 on Taxonomy and Nomenclature UNEP/CMS/ScC-Sc2/Inf.3 DISAGGREGATION OF BIRD FAMILIES LISTED ON CMS APPENDIX II 1. Through Resolution 11.19, the Conference of Parties adopted as the standard reference for bird taxonomy and nomenclature for Non-Passerine species the Handbook of the Birds of the World/BirdLife International Illustrated Checklist of the Birds of the World, Volume 1: Non-Passerines, by Josep del Hoyo and Nigel J. Collar (2014); 2. -
Threatened Species Mammals Property Planning Guide
LANDHOLDER SERIES - PROPERTY PLANNING GUIDE LANDHOLDER SERIES THREATENED SPECIES MAMMALS PROPERTY PLANNING GUIDE THREATENED SPECIES - MAMMALS There are 33 native terrestrial and 41 marine The main threats to mammals are via disease (e.g. Facial tumour disease mammals which are known to occur in in Tasmanian Devils, aquatic fungus Mucoramphiborum in Platypus or Tasmania, of these, 7 marine mammals and toxoplasmosis from cats), road kill and predation from foxes and cats. The clearance of native vegetation and inappropriate use of fire are also 3 terrestrial mammals are threatened under contributing to the decline in the range and/or populations of native state and federal law. mammals in Tasmania. EXAMPLES OF THREATENED MAMMALS OF TASMANIA EXAMPLES OF THREATENED MAMMALS OF TASMANIA State status Commonwealth status (TSPA listing) (EPBCA listing) Thylacinus cynocephalus Thylacine X EX Perameles gunnii gunnii Eastern-barred Bandicoot VU Dasyurus maculatus maculatus Spotted-tailed Quoll R VU Pseudomys novaehollandiae New Holland Mouse E VU Sarcophilus harrisii Tasmanian Devil E EN Vombatus ursinus ursinus Common Wombat VU TSPA: E=Endangered, V=Vulnerable. EPBCA: EN=Endangered, CR=Critically Endangered, VU=Vulnerable. See Threatened Species Management Fact sheet for further explanation. TASMANIAN DEVIL There is no doubt that persecution led to the extinction of the Thylacine in Tasmania and the process may have been accelerated by a distemper-type disease. The second largest marsupial carnivore the Tasmanian Devil, whilst also suffering some persecution, exacerbated by road-kill, is now also under dire threat from the facial tumour disease. This species is listed as endangered under both the Tasmanian Threatened Species Protection Act 1995 and Commonwealth Environment Protection and Biodiversity Conservation Act 1999. -
Wildlife Parasitology in Australia: Past, Present and Future
CSIRO PUBLISHING Australian Journal of Zoology, 2018, 66, 286–305 Review https://doi.org/10.1071/ZO19017 Wildlife parasitology in Australia: past, present and future David M. Spratt A,C and Ian Beveridge B AAustralian National Wildlife Collection, National Research Collections Australia, CSIRO, GPO Box 1700, Canberra, ACT 2601, Australia. BVeterinary Clinical Centre, Faculty of Veterinary and Agricultural Sciences, University of Melbourne, Werribee, Vic. 3030, Australia. CCorresponding author. Email: [email protected] Abstract. Wildlife parasitology is a highly diverse area of research encompassing many fields including taxonomy, ecology, pathology and epidemiology, and with participants from extremely disparate scientific fields. In addition, the organisms studied are highly dissimilar, ranging from platyhelminths, nematodes and acanthocephalans to insects, arachnids, crustaceans and protists. This review of the parasites of wildlife in Australia highlights the advances made to date, focussing on the work, interests and major findings of researchers over the years and identifies current significant gaps that exist in our understanding. The review is divided into three sections covering protist, helminth and arthropod parasites. The challenge to document the diversity of parasites in Australia continues at a traditional level but the advent of molecular methods has heightened the significance of this issue. Modern methods are providing an avenue for major advances in documenting and restructuring the phylogeny of protistan parasites in particular, while facilitating the recognition of species complexes in helminth taxa previously defined by traditional morphological methods. The life cycles, ecology and general biology of most parasites of wildlife in Australia are extremely poorly understood. While the phylogenetic origins of the Australian vertebrate fauna are complex, so too are the likely origins of their parasites, which do not necessarily mirror those of their hosts.