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Vocalization Behavior of the Endangered Bahama Oriole (Icterus Northropi): Ontogenetic, Sexual, Temporal, Duetting Pair, and Geographic Variation Valerie A
Loma Linda University TheScholarsRepository@LLU: Digital Archive of Research, Scholarship & Creative Works Loma Linda University Electronic Theses, Dissertations & Projects 3-1-2011 Vocalization Behavior of the Endangered Bahama Oriole (Icterus northropi): Ontogenetic, Sexual, Temporal, Duetting Pair, and Geographic Variation Valerie A. Lee Loma Linda University Follow this and additional works at: http://scholarsrepository.llu.edu/etd Part of the Biology Commons Recommended Citation Lee, Valerie A., "Vocalization Behavior of the Endangered Bahama Oriole (Icterus northropi): Ontogenetic, Sexual, Temporal, Duetting Pair, and Geographic Variation" (2011). Loma Linda University Electronic Theses, Dissertations & Projects. 37. http://scholarsrepository.llu.edu/etd/37 This Thesis is brought to you for free and open access by TheScholarsRepository@LLU: Digital Archive of Research, Scholarship & Creative Works. It has been accepted for inclusion in Loma Linda University Electronic Theses, Dissertations & Projects by an authorized administrator of TheScholarsRepository@LLU: Digital Archive of Research, Scholarship & Creative Works. For more information, please contact [email protected]. LOMA LINDA UNIVERSITY School of Science and Technology in conjunction with the Faculty of Graduate Studies ____________________ Vocalization Behavior of the Endangered Bahama Oriole (Icterus northropi): Ontogenetic, Sexual, Temporal, Duetting Pair, and Geographic Variation by Valerie A. Lee ____________________ A Thesis submitted in partial satisfaction of the requirements for the degree of Master of Science in Biology ____________________ March 2011 © 2011 Valerie A. Lee All Rights Reserved Each person whose signature appears below certifies that this thesis in his/her opinion is adequate, in scope and quality, as a thesis for the degree Master of Science. , Chairperson William K. Hayes, Professor of Biology Stephen G. -
Non-Passerines
A List of Birding References - Non-Passerines Joe Hobbs Version 1.1 A List of Birding References Non-Passerines Compiled by Joe Hobbs Version 1.1 Published March 2021 Copyright © 2021 Joe Hobbs All rights reserved Cover photo courtesy of Bill Byrne. Birding References, Non Passerines version 1.1 - Joe Hobbs Page 1 INTRODUCTION From 2010 to 2019 I compiled 27 lists of birding references each covering a different family group that were kindly hosted by Dutch Birding on their website, www.dutch- birding.nl. Judging by the feedback I received many birders found them to be useful, which encouraged me to maintain them with regular updates. At this point I am certain that anyone who wants one has a copy, and therefore feel the time is right to abandon the previous format and replace them with two files (i.e. one each for Passerines and Non-Passerines) that considerably extends the number of families and with an empha- sis on those papers and notes concerning bird identification, mystery photo solutions, behaviour, species profiles, species status, occurrences, first records, taxonomy, topog- raphy etc. published in birding journals. The list of references begins with the following categories: Moult & Ageing; Taxonomy; Topography, Physiology & Song; Zoogeography & Migration; Great Bird Reserves; Im- portant Bird Areas, thereafter arranged by family following the IOC world list taxonomy order (version 10.1). This note will be updated from time to time. CAUTION, PLEASE TAKE NOTE The list is far from comprehensive and should always be used in conjunction with other published and online reference resources. VERSION Version 1.1. -
02 Whole.Pdf
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. The influence of space and time on the genetic architecture of rail species (Aves: Rallidae) A thesis presented in partial fulfilment of the requirements for the degree of Doctor of Philosophy in Evolutionary Ecology at Massey University, Palmerston North, New Zealand JUAN CARLOS GARCIA RAMIREZ 2014 Abstract The main subject of this PhD research is the study of the underlying processes of evolutionary changes that lead to biological diversity. Such processes include those operating within and between populations (population divergence), as well as those operating among species (speciation), above the species level (e.g. genera and families) and the mechanisms that promote these divisions. Fundamental to these processes are the effects of genetic, demographic, geographical, ecological, behavioural and environmental factors on diversification. Rails (Aves: Rallidae) are used as an example to address central questions related to how these biological entities originated, when was that biological diversity generated, and why this biodiversity is distributed as it is. This thesis has been divided into four main chapters/papers for convenience to achieve this aim. In the first chapter, complete mitochondrial genomes and fossil data are used to provide a likely estimated time of rail ecology. I estimated that the origin and diversification of crown group Rallidae was during the Eocene about 40.5 (49–33) Mya with evidence of intrafamiliar diversification from Late Eocene to Miocene time. -
The Birds (Aves) of Oromia, Ethiopia – an Annotated Checklist
European Journal of Taxonomy 306: 1–69 ISSN 2118-9773 https://doi.org/10.5852/ejt.2017.306 www.europeanjournaloftaxonomy.eu 2017 · Gedeon K. et al. This work is licensed under a Creative Commons Attribution 3.0 License. Monograph urn:lsid:zoobank.org:pub:A32EAE51-9051-458A-81DD-8EA921901CDC The birds (Aves) of Oromia, Ethiopia – an annotated checklist Kai GEDEON 1,*, Chemere ZEWDIE 2 & Till TÖPFER 3 1 Saxon Ornithologists’ Society, P.O. Box 1129, 09331 Hohenstein-Ernstthal, Germany. 2 Oromia Forest and Wildlife Enterprise, P.O. Box 1075, Debre Zeit, Ethiopia. 3 Zoological Research Museum Alexander Koenig, Centre for Taxonomy and Evolutionary Research, Adenauerallee 160, 53113 Bonn, Germany. * Corresponding author: [email protected] 2 Email: [email protected] 3 Email: [email protected] 1 urn:lsid:zoobank.org:author:F46B3F50-41E2-4629-9951-778F69A5BBA2 2 urn:lsid:zoobank.org:author:F59FEDB3-627A-4D52-A6CB-4F26846C0FC5 3 urn:lsid:zoobank.org:author:A87BE9B4-8FC6-4E11-8DB4-BDBB3CFBBEAA Abstract. Oromia is the largest National Regional State of Ethiopia. Here we present the first comprehensive checklist of its birds. A total of 804 bird species has been recorded, 601 of them confirmed (443) or assumed (158) to be breeding birds. At least 561 are all-year residents (and 31 more potentially so), at least 73 are Afrotropical migrants and visitors (and 44 more potentially so), and 184 are Palaearctic migrants and visitors (and eight more potentially so). Three species are endemic to Oromia, 18 to Ethiopia and 43 to the Horn of Africa. 170 Oromia bird species are biome restricted: 57 to the Afrotropical Highlands biome, 95 to the Somali-Masai biome, and 18 to the Sudan-Guinea Savanna biome. -
Draft Environmental Assessment Evaluation of the Field Efficacy Of
Draft Environmental Assessment Evaluation of the field efficacy of broadcast application of two rodenticides (diphacinone, chlorophacinone) to control mice (Mus musculus) in native Hawaiian conservation areas Prepared by: U.S. Fish and Wildlife Service, Pacific Islands Fish and Wildlife Office (PIFWO), Region 1 Cooperating Agencies: USDA Animal and Plant Health Inspection Service, Wildlife Services, National Wildlife Research Center (NWRC), Hilo, Hawai’i; U.S. Fish and Wildlife Service, Migratory Birds and Habitat Program, Pacific Region BACKGROUND In keeping with its mission, the U.S. Fish and Wildlife Service (Service) is striving to recover and restore native species and their habitats in Hawai’i. To achieve this goal it is necessary to remove invasive rodents, including mice, from large geographic areas within the state. However, some of the scientific information needed to support removal of mice from the natural environment is currently lacking. Therefore, the Service, in cooperation with the USDA Animal and Plant Health Inspection Service, Wildlife Services, National Wildlife Research Center (NWRC) are proposing to conduct a study at the U.S. Army Garrison, Pōhakuloa Training Area, Hawai’i to determine the response of mice to different application rates of two rodenticides: diphacinone and chlorophacinone. The Service would provide the funding for the proposed project and the NWRC would conduct the proposed study. Currently, diphacinone is the only rodenticide labeled for conservation purposes in Hawai’i. The information from the study would, if warranted by results, also be used to pursue registration for a conservation label from the Environmental Protection Agency (EPA) for chlorophacinone. Invasive1 house mice (Mus musculus) are abundant and widespread in Hawaiian ecosystems. -
Captive Breeding and Reintroduction of Black Francolin, Grey Francolin and Chukar Partridge (2015-2020) in District Dir Lower, Khyber Pakhtunkhwa, Pakistan
CAPTIVE BREEDING AND REINTRODUCTION OF BLACK FRANCOLIN, GREY FRANCOLIN AND CHUKAR PARTRIDGE (2015-2020) IN DISTRICT DIR LOWER, KHYBER PAKHTUNKHWA, PAKISTAN Syed Fazal Baqi Kakakhel Naveed Ul Haq Ejaz Ul Haq European Journal of Biology Vol.5, Issue 2, pp 1-9, 2020 CAPTIVE BREEDING AND REINTRODUCTION OF BLACK FRANCOLIN, GREY FRANCOLIN AND CHUKAR PARTRIDGE (2015-2020) IN DISTRICT DIR LOWER, KHYBER PAKHTUNKHWA, PAKISTAN Syed Fazal Baqi Kakakhel¹*, Naveed Ul Haq², Ejaz Ul Haq³ ¹Conservator Wildlife Northern Circle Khyber Pakhtunkhwa Wildlife Department, Pakistan ²Deputy Conservator Wildlife Dir Wildlife Division Khyber Pakhtunkhwa Wildlife Department, Pakistan ³Sub Divisional Wildlife officer Dir Lower Wildlife Sub Division, Khyber Pakhtunkhwa Wildlife Department Pakistan *Crresponding Author’s E-mail: [email protected] ABSTRACT Purpose: The ex-situ conservation aims to discover new populations or supports the populations that yet survive in the wild. To breed animals in captivity and release them in their natural control habitats is one of the conservation methods. Amongst other species partridges also breed in captivity and can be release in the wild but presently data lacking, need to examine. Chukar partridge, Black francolin and Grey francolin are used for sports hunting in Pakistan. The available record on captive breeding of Chukar partridge, Black francolin and Grey francilin and their release in the wild for the years 2015-2020 was reviewed using a developed questionnaire. Methodology: Review record of Khyber Pakhtunkhwa Wildlife Department Pakistan through a developed questionnaire Findings: It was found that the maximum number of chukar partridge breed was 36, Black francolin (6) and Grey francolin (24). Out of the breeding stock, Chukar partridges (44) and Grey francolin (28) were released in the wild to its natural habitat by hard release technique. -
Phylogeography of Finches and Sparrows
In: Animal Genetics ISBN: 978-1-60741-844-3 Editor: Leopold J. Rechi © 2009 Nova Science Publishers, Inc. Chapter 1 PHYLOGEOGRAPHY OF FINCHES AND SPARROWS Antonio Arnaiz-Villena*, Pablo Gomez-Prieto and Valentin Ruiz-del-Valle Department of Immunology, University Complutense, The Madrid Regional Blood Center, Madrid, Spain. ABSTRACT Fringillidae finches form a subfamily of songbirds (Passeriformes), which are presently distributed around the world. This subfamily includes canaries, goldfinches, greenfinches, rosefinches, and grosbeaks, among others. Molecular phylogenies obtained with mitochondrial DNA sequences show that these groups of finches are put together, but with some polytomies that have apparently evolved or radiated in parallel. The time of appearance on Earth of all studied groups is suggested to start after Middle Miocene Epoch, around 10 million years ago. Greenfinches (genus Carduelis) may have originated at Eurasian desert margins coming from Rhodopechys obsoleta (dessert finch) or an extinct pale plumage ancestor; it later acquired green plumage suitable for the greenfinch ecological niche, i.e.: woods. Multicolored Eurasian goldfinch (Carduelis carduelis) has a genetic extant ancestor, the green-feathered Carduelis citrinella (citril finch); this was thought to be a canary on phonotypical bases, but it is now included within goldfinches by our molecular genetics phylograms. Speciation events between citril finch and Eurasian goldfinch are related with the Mediterranean Messinian salinity crisis (5 million years ago). Linurgus olivaceus (oriole finch) is presently thriving in Equatorial Africa and was included in a separate genus (Linurgus) by itself on phenotypical bases. Our phylograms demonstrate that it is and old canary. Proposed genus Acanthis does not exist. Twite and linnet form a separate radiation from redpolls. -
Common Waxbills Are Regarded As Resident Throughout Their Range (Maclean 1993B), Wandering Only in Times of Severe Drought (Ginn Et Al
612 Estrildidae: twinspots, firefinches, waxbills and mannikins Movements: There is no firm evidence for seasonal movements in the models. Although reporting rates dip slightly in mid- to late winter in several Zones, this is likely to be the result of seasonal changes in flocking behaviour and forag- ing range. Common Waxbills are regarded as resident throughout their range (Maclean 1993b), wandering only in times of severe drought (Ginn et al. 1989). Breeding: Atlas data indicate breeding mostly December–April in the summer-rainfall areas (Zones 5–8), avoiding the dry winter months of June–September, which is in agreement with previously published data (Irwin 1981; Tarboton et al. 1987b), except that data for KwaZulu-Natal (Zone 7) (Dean 1971) indicate that significant breeding can occur in November. In the winter- rainfall area of the southwestern Cape Province (Zone 4), it breeds mainly September–December, with records extending into May (cf. Winterbottom 1968a). Common Waxbill Although it is closely associated with less seasonal en- Rooibeksysie vironments, such as permanent water and human habitation, it remains dependent on seasonally available seeding grass Estrilda astrild heads and insects, for nestbuilding and food (pers. obs). Interspecific relationships: The Common Waxbill is The Common Waxbill is a widespread and adaptable estrildid the primary host of the Pintailed Whydah Vidua macroura. which ranges throughout sub-Saharan Africa in many mesic The ranges of the two species coincide closely, although the habitats (Hall & Moreau 1970). Its southern African distrib- waxbill is apparently better able to colonize dry areas of the ution is concentrated in the Afromontane and coastal zones Karoo, northern Cape Province and Namibia. -
Southern Ecuador: Tumbesian Rarities and Highland Endemics Jan 21 – Feb 7, 2010
Southern Ecuador: Tumbesian Rarities and Highland Endemics Jan 21 – Feb 7, 2010 SOUTHERN ECUADOR : Tumbesian Rarities and Highland Endemics January 21 – February 7, 2010 JOCOTOCO ANTPITTA Tapichalaca Tour Leader: Sam Woods All photos were taken on this tour by Sam Woods TROPICAL BIRDING www.tropicalbirding.com 1 Southern Ecuador: Tumbesian Rarities and Highland Endemics Jan 21 – Feb 7, 2010 Itinerary January 21 Arrival/Night Guayaquil January 22 Cerro Blanco, drive to Buenaventura/Night Buenaventura January 23 Buenaventura/Night Buenaventura January 24 Buenaventura & El Empalme to Jorupe Reserve/Night Jorupe January 25 Jorupe Reserve & Sozoranga/Night Jorupe January 26 Utuana & Sozoranga/Night Jorupe January 27 Utuana and Catamayo to Vilcabamba/Night Vilcabamba January 28 Cajanuma (Podocarpus NP) to Tapichalaca/Night Tapichalaca January 29 Tapichalaca/Night Tapichalaca January 30 Tapichalaca to Rio Bombuscaro/Night Copalinga Lodge January 31 Rio Bombuscaro/Night Copalinga February 1 Rio Bombuscaro & Old Loja-Zamora Rd/Night Copalinga February 2 Old Zamora Rd, drive to Cuenca/Night Cuenca February 3 El Cajas NP to Guayaquil/Night Guayaquil February 4 Santa Elena Peninsula& Ayampe/Night Mantaraya Lodge February 5 Ayampe & Machalilla NP/Night Mantaraya Lodge February 6 Ayampe to Guayaquil/Night Guayaquil February 7 Departure from Guayaquil DAILY LOG Day 1 (January 21) CERRO BLANCO, MANGLARES CHARUTE & BUENAVENTURA We started in Cerro Blanco reserve, just a short 16km drive from our Guayaquil hotel. The reserve protects an area of deciduous woodland in the Chongon hills just outside Ecuador’s most populous city. This is a fantastic place to kickstart the list for the tour, and particularly for picking up some of the Tumbesian endemics that were a focus for much of the tour. -
The Common Waxbill As a Case Study
Biology Department Research Group Terrestrial Ecology _____________________________________________________________________________ A MECHANISTIC VIEW OF BIOLOGICAL INVASIONS: THE COMMON WAXBILL AS A CASE STUDY Michaël Goedertier Student number: 01303412 Supervisor: Dr. Diederik Strubbe Counsellor: Prof. Dr. Luc Lens Master’s dissertation submitted to obtain the degree of Master of Science in Biology Academic year: 2019 - 2020 © Faculty of Sciences – research group Terrestrial Ecology All rights reserved. This thesis contains confidential information and confidential research results that are property to the UGent. The contents of this master thesis may under no circumstances be made public, nor complete or partial, without the explicit and preceding permission of the UGent representative, i.e. the supervisor. The thesis may under no circumstances be copied or duplicated in any form, unless permission granted in written form. Any violation of the confidential nature of this thesis may impose irreparable damage to the UGent. In case of a dispute that may arise within the context of this declaration, the Judicial Court of Gent only is competent to be notified. 2 Table of contents 1. Introduction .................................................................................................................................... 4 1.1. Global change and biological invasions ...................................................................................... 4 1.2. Species Distribution Models ....................................................................................................... -
Geographic Variation and Genetic Structure in the Bahama Oriole (Icterus Northropi), a Critically Endangered Synanthropic Species
Geographic variation and genetic structure in the Bahama Oriole (Icterus northropi), a critically endangered synanthropic species Melissa R. Price1,2 , Carl Person3 and William K. Hayes3 1 Department of Natural Resources and Environmental Management, University of Hawai‘i at Manoa,¯ Honolulu, HI, United States 2 Kewalo Marine Laboratory, Pacific Biosciences Research Center, University of Hawaii at Manoa, Honolulu, HI, United States 3 Department of Earth and Biological Sciences, Loma Linda University, Loma Linda, CA, United States ABSTRACT Bird species may exhibit unexpected population structuring over small distances, with gene flow restricted by geographic features such as water or mountains. The Bahama Oriole (Icterus northropi) is a critically endangered, synanthropic island endemic with a declining population of fewer than 300 individuals. It now remains only on Andros Island (The Bahamas), which is riddled with waterways that past studies assumed did not hinder gene flow. We examined 1,858 base pairs of mito- chondrial DNA sequenced from four gene regions in 14 birds (roughly 5% of the remaining population) found on the largest land masses of Andros Island (North Andros and Mangrove Cay/South Andros). We sought to discern genetic structuring between the remaining subpopulations and its relationship to current conservation concerns. Four unique haplotypes were identified, with only one shared between the two subpopulations. Nucleotide and haplotype diversity were higher for the North Andros subpopulation than for the Mangrove Cay/South Andros subpopulation. Analysis of molecular variance (AMOVA) yielded a Wright’s fixation indexF ( / of Submitted 25 August 2015 st Accepted 2 November 2015 0.60 (PFst D 0:016), with 40.2% of the molecular variation explained by within- Published 26 November 2015 population diVerences and 59.8% by among-population diVerences. -
Prevalence of Chlamydia Psittaci in Domesticated and Fancy Birds in Different Regions of District Faisalabad, Pakistan
United Journal of Microbiology and Infectious Diseases Research Article Prevalence of Chlamydia Psittaci in Domesticated and Fancy Birds in Different Regions of District Faisalabad, Pakistan Siraj I1, Rahman SU1, Ahsan Naveed1* Anjum Fr1, Hassan S2, Zahid Ali Tahir3 1Institute of Microbiology, University of Agriculture, Faisalabad 2Institute of Animal Nutrition and Feed Technology, University of Agriculture Faisalabad, Pakistan 3DiagnosticLaboraoty, Kamalia, Toba Tek Singh, Pakistan Volume 1 Issue 1- 2018 1. Abstract Received Date: 15 July 2018 1.1. Introduction Accepted Date: 31 Aug 2018 The study was aimed to check the prevalence of this zoonotic bacterium which is a great risk Published Date: 06 Sep 2018 towards human population in district Faisalabad at Pakistan. 1.2. Methodology 2. Key words Chlamydia Psittaci; Psittacosis; In present study, a total number of 259 samples including fecal swabs (187) and blood samples Prevalence; Zoonosis (72) from different aviculture of 259 birds such as chickens, ducks, pigeons, parrots, Australian parrots, and peacock were collected from different regions of Faisalabad, Pakistan. After process- ing the samples were inoculated in the yolk sac of embryonated chicken eggs for the cultivation ofChlamydia psittaci(C. psittaci)and later identified through Modified Gimenez staining and later CFT was performed for the determination of antibodies titer against C. psittaci. 1.3. Results The results of egg inoculation and modified Gimenez staining showed 9.75%, 29.62%, 10%, 36%, 44.64% and 39.28% prevalence in the fecal samples of chickens, ducks, peacocks, parrots, pi- geons and Australian parrots respectively. Accordingly, the results of CFT showed 15.38%, 25%, 46.42%, 36.36% and 25% in chickens, ducks, pigeons, parrots and peacock respectively.