Habitat Fragmentation and Its Effects on Birds and Grasshoppers in Eucalypt Remnants in the Tasmanian Midlands
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The Transcriptomic and Genomic Architecture of Acrididae Grasshoppers
The Transcriptomic and Genomic Architecture of Acrididae Grasshoppers Dissertation To Fulfil the Requirements for the Degree of “Doctor of Philosophy” (PhD) Submitted to the Council of the Faculty of Biological Sciences of the Friedrich Schiller University Jena by Bachelor of Science, Master of Science, Abhijeet Shah born on 7th November 1984, Hyderabad, India 1 Academic reviewers: 1. Prof. Holger Schielzeth, Friedrich Schiller University Jena 2. Prof. Manja Marz, Friedrich Schiller University Jena 3. Prof. Rolf Beutel, Friedrich Schiller University Jena 4. Prof. Frieder Mayer, Museum für Naturkunde Leibniz-Institut für Evolutions- und Biodiversitätsforschung, Berlin 5. Prof. Steve Hoffmann, Leibniz Institute on Aging – Fritz Lipmann Institute, Jena 6. Prof. Aletta Bonn, Friedrich Schiller University Jena Date of oral defense: 24.02.2020 2 Table of Contents Abstract ........................................................................................................................... 5 Zusammenfassung............................................................................................................ 7 Introduction ..................................................................................................................... 9 Genetic polymorphism ............................................................................................................. 9 Lewontin’s paradox ....................................................................................................................................... 9 The evolution -
Ecological Considerations for Development of the Wildlife Lake, Castlereagh
Ecological considerations for development of the Wildlife Lake, Castlereagh Total Catchment Management Services Pty Ltd August 2009 Clarifying statement This report provides strategic guidance for the site. Importantly this is an informing document to help guide the restoration and development of the site and in that respect does not contain any matters for which approval is sought. Disclaimer The information contained in this document remains confidential as between Total Catchment Management Services Pty Ltd (the Consultant) and Penrith Lakes Development Corporation (the Client). To the maximum extent permitted by law, the Consultant will not be liable to the Client or any other person (whether under the law of contract, tort, statute or otherwise) for any loss, claim, demand, cost, expense or damage arising in any way out of or in connection with, or as a result of reliance by any person on: • the information contained in this document (or due to any inaccuracy, error or omission in such information); or • any other written or oral communication in respect of the historical or intended business dealings between the Consultant and the Client. Notwithstanding the above, the Consultant's maximum liability to the Client is limited to the aggregate amount of fees payable for services under the Terms and Conditions between the Consultant and the Client. Any information or advice provided in this document is provided having regard to the prevailing environmental conditions at the time of giving that information or advice. The relevance and accuracy of that information or advice may be materially affected by a change in the environmental conditions after the date that information or advice was provided. -
ORTHOPTERA in the Swedish Museum of Natural History
ORTHOPTERA in the Swedish Museum of Natural History As of August 2003 Abisares azurea Sjöstedt Type Acrida turrita Linnaeus, 1758 Abisares viridipennis Burmeister Acridella nasuta Linnaeus, 1758 Ablectia rufescens Sjöstedt Type Acridella pharaonis Klug, 1830 Acanthacris citrina Serville Acridella serrata Thunberg, 1815 Acanthacris elgonensis Sjöstedt Acridium australiensis Sjöstedt Type Acanthacris fulva Sjöstedt Acridium basale Walker Acanthacris gyldenstolpi Sjöstedt Acridium eximia Sjöstedt Type Acanthacris lineata Stoll Acridium irregularis Walker Acanthacris ruficornis Fabricius Acridium irregularis Walker Acanthalobus bispinosus Dalman, 1818 Acridium maculicollis Walker Acanthalobus inornatus Walker, 1871 Acridium meleager Sjöstedt Type Acanthodis aquilina Linnaeus, 1758 Acridium modesta Sjöstedt Type Acanthodis curvidens Stål, 1876 Acridium papuasica Finot Acanthodis longicauda Stål, 1895 Acridium pulchripes Sjöstedt Type Acanthoplus jallae Griffini, 1897 Acridium rubripes Sjöstedt Type Acanthoplus longipes Charpentier, 1845 Acridium rubrispinarum Sjöstedt Type Acanthoproctus militaris White, 1846 Acridium signata Sjöstedt Type Acanthoxia ensator Walker Acridium sjöstedti Uvarov Type Acanthoxia gladiator Westwood Acridium vittata Sjöstedt Type Achurum acridodes Stål, 1873 Acridoderes aequalis Mill. Acicera fusca Thunberg, 1815 Acridoderes crassus Bolivar Acidacris violacea Gerstäcker, 1889 Acridoxena hewaniana Smith, 1865 Acinipe algerica Brunner, 1882 Acridoxena macrocephalus Sjöstedt Acinipe crassicornis Bolivar Acripeza reticulata -
The Cytology of Tasmanian Short-Horned Grasshoppers ( Orthoptera: Acridoidea)
PAP. & PROC. ROY. Soc. TASMANIA. VOL. 86. (15TH SEPTEMBER. 1952.) The Cytology of Tasmanian Short-Horned Grasshoppers ( Orthoptera: Acridoidea) By G. B. SHARMAN Department of Botany, University of Tasmania* WITH 1 PLATE AND 57 TEXT FIGURES SUMMARY The cytology of twenty-six of the twenty-nine species of short-horned grass hoppers (superfamily Acridoidea) recorded from Tasmania is described. Intra specific cytological polymorphism is described in some species. Cytological evidence of phylogenetic relationships has been indicated where possible. INTRODUCTION Mainly because of their large size, and general suitability for cyto logical study the chromosomes of the short-horned grasshoppers (super family Acridoidea) have been the subject of wide research. In the largest and most widely studied family, the Acrididae, early workers (McClung, 1905; Davis, 1908) reported the male number as being uniformly twenty three rod-shaped chromosomes, but Granata (1910) showed that Pam phagus possessed nineteen rod-shaped chromosomes. With few exceptions an XO sex chromosome sy~tem is found. Later work has shown that one group of subfamilies of the Acrididae is characterised by the male diploid number of· nineteen rod-shaped chromosomes, whilst another and larger group is characterised by the male diploid number of twenty-three. These are usually called the ten and twelve chromosome groups, and correspond to the Chasmosacci and Cryptosacci groups of subfamilies (Roberts, 1941). Cytologically the Chasmosacci is a very uniform group as has been shown by Rao (1937) and Powers (1942). The twelve chromosome group, how ever, has some cytological variability. In more than forty genera the characteristic male diploid chromosome number of twenty-three is found (White, 1945) ; but" centric fusions" (White, 1945) have been responsible for lowering the chromosome number of some species, although the characteristic twenty-three arms are still found. -
An Illustrated Key of Pyrgomorphidae (Orthoptera: Caelifera) of the Indian Subcontinent Region
Zootaxa 4895 (3): 381–397 ISSN 1175-5326 (print edition) https://www.mapress.com/j/zt/ Article ZOOTAXA Copyright © 2020 Magnolia Press ISSN 1175-5334 (online edition) https://doi.org/10.11646/zootaxa.4895.3.4 http://zoobank.org/urn:lsid:zoobank.org:pub:EDD13FF7-E045-4D13-A865-55682DC13C61 An Illustrated Key of Pyrgomorphidae (Orthoptera: Caelifera) of the Indian Subcontinent Region SUNDUS ZAHID1,2,5, RICARDO MARIÑO-PÉREZ2,4, SARDAR AZHAR AMEHMOOD1,6, KUSHI MUHAMMAD3 & HOJUN SONG2* 1Department of Zoology, Hazara University, Mansehra, Pakistan 2Department of Entomology, Texas A&M University, College Station, TX, USA 3Department of Genetics, Hazara University, Mansehra, Pakistan �[email protected]; https://orcid.org/0000-0003-4425-4742 4Department of Ecology & Evolutionary Biology, University of Michigan, Ann Arbor, MI, USA �[email protected]; https://orcid.org/0000-0002-0566-1372 5 �[email protected]; https://orcid.org/0000-0001-8986-3459 6 �[email protected]; https://orcid.org/0000-0003-4121-9271 *Corresponding author. �[email protected]; https://orcid.org/0000-0001-6115-0473 Abstract The Indian subcontinent is known to harbor a high level of insect biodiversity and endemism, but the grasshopper fauna in this region is poorly understood, in part due to the lack of appropriate taxonomic resources. Based on detailed examinations of museum specimens and high-resolution digital images, we have produced an illustrated key to 21 Pyrgomorphidae genera known from the Indian subcontinent. This new identification key will become a useful tool for increasing our knowledge on the taxonomy of grasshoppers in this important biogeographic region. Key words: dichotomous key, gaudy grasshoppers, taxonomy Introduction The Indian subcontinent is known to harbor a high level of insect biodiversity and endemism (Ghosh 1996), but is also one of the most poorly studied regions in terms of biodiversity discovery (Song 2010). -
Orthopteren Aus Australien Und Dem Malayischen Archipel, Gesammelt Von Professor Dr
© Biodiversity Heritage Library, http://www.biodiversitylibrary.org/; www.zobodat.at Orthopteren aus Australien und dem Malayischen Archipel, gesammelt von Professor Dr. Richard Semon. Bearbeitet von Hermann August Krauss in Tübingen. Mit Tafel LXVII. © Biodiversity Heritage Library, http://www.biodiversitylibrary.org/; www.zobodat.at ! © Biodiversity Heritage Library, http://www.biodiversitylibrary.org/; www.zobodat.at -L'ie Orthopteren, die Professor Dr. Richard Semon auf seiner zoologischen Forschungsreise in Australien und dem Malayischen Archipel in den Jahren 1891 — 1893 gesammelt hat, stammen vom Gebiet des Burnett-Flusses in Queensland (Australien), wo sich der Forscher vom September 1891 bis Januar 1892, sowie vom Juli bis October 1892 aufhielt, von der Thursday-Insel in der Torres-Strasse (Februar bis April 1892), von Britisch Neu-Guinea (April bis Mai 1892), von der Insel Ambon (Molukken, Januar bis März 1893) und von West-Java (Buitenzorg und Tjibodas, November, December 1892). Am ergiebigsten war die Ausbeute im botanischen Berggarten von Tjibodas (1425 m über dem Meere) und in dessen Umgebung, wo 39 Arten (darunter 10 neue) gesammelt wurden. 37 Arten (4 neu) stammen aus dem Küstengebiet von Britisch Neu-Guinea, 30 Arten (3 neu) vom Burnett-Fluss, wo sich Semon im Gebiet der beiden Farmen Coonambula und Cooranga, sowie der Nebenflüsse Boyne und Auburn aufhielt, 28 Arten (1 neu) von Buitenzorg (-265 m über dem Meere), 14 Arten von Ambon, 9 Arten (2 neu) von der kleinen Thursday-Insel zwischen Australien und Neu-Guinea, Im Ganzen besteht die Sammlung aus 132 Arten (darunter 20 neue), die sich in folgender Weise auf die Familien vertheilen : Forficulidae 1 Art, Blattidae 25 Arten (7 neu), Mantidae 16 Arten, Phasmidae 13 Arten (5 neu), Acridiidae 35 Arten (3 neu), Locustidae 24 Arten (4 neu), Gryllidae 18 Arten (1 neu). -
Taxonomy and Systematics of the Australian Sarcophaga S.L. (Diptera: Sarcophagidae) Kelly Ann Meiklejohn University of Wollongong
University of Wollongong Research Online University of Wollongong Thesis Collection University of Wollongong Thesis Collections 2012 Taxonomy and systematics of the Australian Sarcophaga s.l. (Diptera: Sarcophagidae) Kelly Ann Meiklejohn University of Wollongong Recommended Citation Meiklejohn, Kelly Ann, Taxonomy and systematics of the Australian Sarcophaga s.l. (Diptera: Sarcophagidae), Doctor of Philosophy thesis, School of Biological Sciences, University of Wollongong, 2012. http://ro.uow.edu.au/theses/3729 Research Online is the open access institutional repository for the University of Wollongong. For further information contact the UOW Library: [email protected] Taxonomy and systematics of the Australian Sarcophaga s.l. (Diptera: Sarcophagidae) A thesis submitted in fulfillment of the requirements for the award of the degree Doctor of Philosophy from University of Wollongong by Kelly Ann Meiklejohn BBiotech (Adv, Hons) School of Biological Sciences 2012 Thesis Certification I, Kelly Ann Meiklejohn declare that this thesis, submitted in fulfillment of the requirements for the award of Doctor of Philosophy, in the School of Biological Sciences, University of Wollongong, is wholly my own work unless otherwise referenced or acknowledged. The document has not been submitted for qualifications at any other academic institution. Kelly Ann Meiklejohn 31st of August 2012 ii Table of Contents List of Figures .................................................................................................................................................. -
Grasshoppers
Grasshoppers Orthoptera: Acrididae Plains Lubber Pictured grasshoppers Great crested grasshopper Snakeweed grasshoppers Primary Pest Grasshoppers • Migratory grasshopper • Twostriped grasshopper • Differential grasshopper • Redlegged grasshopper • Clearwinged grasshopper Twostriped Grasshopper, Melanoplus bivittatus Redlegged Grasshopper, Melanoplus femurrubrum Differential Grasshopper, Melanoplus differentialis Migratory Grasshopper, Melanoplus sanguinipes Clearwinged Grasshopper Camnula pellucida Diagram courtesy of Alexandre Latchininsky, University of Wyoming Photograph courtesy of Jean-Francoise Duranton, CIRAD Grasshoppers lay pods of eggs below ground Grasshopper Egg Pods Molting is not for wimps! Grasshopper Nymphs Some grasshoppers found in winter and early spring Velvet-striped grasshopper – a common spring species Grasshopper Controls • Weather (rainfall mediated primarily) • Natural enemies – Predators, diseases • Treatment of breeding areas • Biological controls • Row covers Temperature and rainfall are important mortality factors Grasshoppers and Rainfall Moisture prior to egg hatch generally aids survival – Newly hatched young need succulent foliage Moisture after egg hatch generally reduces problems – Assists spread of diseases – Allows for plenty of food, reducing competition for rangeland and crops Grasshopper predators Robber Flies Larvae of many blister beetles develop on grasshopper egg pods Blister beetle larva Fungus-killed Grasshoppers Pathogen: Entomophthora grylli Mermis nigrescens, a nematode parasite of grasshoppers -
Tetrigidae (Orthoptera) with Partly Exposed Wings
University of Nebraska - Lincoln DigitalCommons@University of Nebraska - Lincoln Center for Systematic Entomology, Gainesville, Insecta Mundi Florida March 1990 Tetrigidae (Orthoptera) With Partly Exposed Wings R. E. Blackith Trinity College, Dublin, Ireland Follow this and additional works at: https://digitalcommons.unl.edu/insectamundi Part of the Entomology Commons Blackith, R. E., "Tetrigidae (Orthoptera) With Partly Exposed Wings" (1990). Insecta Mundi. 391. https://digitalcommons.unl.edu/insectamundi/391 This Article is brought to you for free and open access by the Center for Systematic Entomology, Gainesville, Florida at DigitalCommons@University of Nebraska - Lincoln. It has been accepted for inclusion in Insecta Mundi by an authorized administrator of DigitalCommons@University of Nebraska - Lincoln. Vol. 4, No. 1-4, March-December 1990 87 Tetrigidae (Orthoptera) With Partly Exposed Wings R. E Blackith Zoology Department Trinity College Dublin-2 Ireland Abstract in this respect, and it is no longer reasonable to be satisfied with putative alary polymorphism Long series of some species of Tetrigidae as an explanation of the phenomenon of exposed from south Asia show that the wings regularly wings. Where alary polymorphism exits, as in project beyond the pronotal shield by some 15- Hedotettix gracilis Bolivar, we still need to 35 percent of their leilgth, depending on the address the question of why such exposed wings species. There is little intraspecific variation are built in as one pole of the polymorphism. and alary polymorphism is not normally detect- For instance, 119 Taiwanese specimens of able. The role of such exposed wings is dis- Paratettix cingalensis (Walker) from the Lyman cussed and one new species is described. -
Sequential Analysis of Meiotic Prophase in Grasshoppers
Cytologia 45:641-649, 1980 Sequential Analysis of Meiotic Prophase in Grasshoppers A. M. Vazquez, C. Martinez and J. R. Lacadena Departamentode Genetica,Facultad de Biologia UniversidadComplutense, Madrid, Spain ReceivedJanuary 9, 1979 Prophase meiotic stages of difficult interpretation, namely synizesis and diffuse stage, have been noted since early descriptions of meiosis (Wilson 1925 , Inouye 1929). The lack of chronology criteria which might establish a proper sequence of the observed phases has been, perhaps, one of the reasons which have made the under standing difficult. It has also made difficult to locate both stages within the meiotic cycle. In recent years, several criteria of chronology have come to be used which per mit the real establishment of the prophase meiotic stages. Moens (1964) was the first to give a new interpretation to the prophase I in which he included some atypi cal stages, namely synizesis, schizonema and diffuse stage. The synizesis, described as a stage in which homologous chromosomes appear paired forming a compact tangle, has been placed at the beginning of the prophase (Moens 1964, Nagl 1969, Lacadena and Vazquez 1971, Owens and Molder 1971). The diffuse stage is a period of apparent decondensation of the chromosomes previously paired and contracted. This stage has been reported by several authors and generally placed close to pachytene or diplotene (see review by Klasterska 1976). Its significance is still to be explained being connected with crossing over by some authors (Rossen and Westergaard 1966, Barry 1969, Peacock 1970) or with special periods of genetic activity by others (Lu and Raju 1970, Klasterska 1971, 1976, Owens and Molder 1971). -
Edible Insects and Other Invertebrates in Australia: Future Prospects
Alan Louey Yen Edible insects and other invertebrates in Australia: future prospects Alan Louey Yen1 At the time of European settlement, the relative importance of insects in the diets of Australian Aborigines varied across the continent, reflecting both the availability of edible insects and of other plants and animals as food. The hunter-gatherer lifestyle adopted by the Australian Aborigines, as well as their understanding of the dangers of overexploitation, meant that entomophagy was a sustainable source of food. Over the last 200 years, entomophagy among Australian Aborigines has decreased because of the increasing adoption of European diets, changed social structures and changes in demography. Entomophagy has not been readily adopted by non-indigenous Australians, although there is an increased interest because of tourism and the development of a boutique cuisine based on indigenous foods (bush tucker). Tourism has adopted the hunter-gatherer model of exploitation in a manner that is probably unsustainable and may result in long-term environmental damage. The need for large numbers of edible insects (not only for the restaurant trade but also as fish bait) has prompted feasibility studies on the commercialization of edible Australian insects. Emphasis has been on the four major groups of edible insects: witjuti grubs (larvae of the moth family Cossidae), bardi grubs (beetle larvae), Bogong moths and honey ants. Many of the edible moth and beetle larvae grow slowly and their larval stages last for two or more years. Attempts at commercialization have been hampered by taxonomic uncertainty of some of the species and the lack of information on their biologies. -
Resolution of Respect
Announcements Resolution of Respect Charles Birch 1918–2009 On 19 December 2009, ecology lost the last of its great pioneers—Charles Birch died in a Sydney Hospital almost two months after suffering a bad fall. Louis Charles Birch, who was known by everyone as Charles, was born in Sydney on 8 February 1918. He went into biology because his mother encouraged his interest in nature, and in particular, because she gave him Possible Worlds, a wonderful book by J. B. S. Haldane (Haldane 1927),1 and because of an early fascination with the diversity and beauty of insects. Many influences in his childhood, including an evangelical religion, gave him a life goal of trying to help people. An early experience on a farm in the course of studying agriculture convinced Charles that he was not cut out to be a farmer. But he did go to the Waite Institute in Adelaide and investigated the dynamics of locust plagues, which started him in the direction of his life’s work in ecology, and which he followed up with sojourns with leading ecologists and statisticians at the University of Chicago and Oxford (where he worked with Charles Elton), before settling at Sydney University in 1948. Charles was one of the great figures in the development of modern ecology, known to all ecologists for his pioneering research in population biology, in which he sought to understand the dynamics of populations (i.e., how populations changed through time in terms of numbers, age structure, and for other reasons), and what factors controlled or “regulated” the sizes of populations (Birch 1948).