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THE ECOLOGICAL REQUIREMENTS of the NEW ZEALAND FALCON (Falco Novaeseelandiae) in PLANTATION FORESTRY
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 ECOLOGICAL REQUIREMENTS OF THE NEW ZEALAND FALCON (Falco novaeseelandiae) IN PLANTATION FORESTRY A thesis presented in partial fulfilment of the requirements for the degree of Doctor of Philosophy in Zoology at Massey University, Palmerston North, New Zealand Richard Seaton 2007 Adult female New Zealand falcon. D. Stewart 2003. “The hawks, eagles and falcons have been an inspiration to people of all races and creeds since the dawn of civilisation. We cannot afford to lose any species of the birds of prey without an effort commensurate with the inspiration of courage, integrity and nobility that they have given humanity…If we fail on this point, we fail in the basic philosophy of feeling a part of our universe and all that goes with it.” Morley Nelson, 2002. iii iv ABSTRACT Commercial pine plantations made up of exotic tree species are increasingly recognised as habitats that can contribute significantly to the conservation of indigenous biodiversity in New Zealand. Encouraging this biodiversity by employing sympathetic forestry management techniques not only offers benefits for indigenous flora and fauna but can also be economically advantageous for the forestry industry. The New Zealand falcon (Falco novaeseelandiae) or Karearea, is a threatened species, endemic to the islands of New Zealand, that has recently been discovered breeding in pine plantations. This research determines the ecological requirements of New Zealand falcons in this habitat, enabling recommendations for sympathetic forestry management to be made. -
Management and Breeding of Birds of Paradise (Family Paradisaeidae) at the Al Wabra Wildlife Preservation
Management and breeding of Birds of Paradise (family Paradisaeidae) at the Al Wabra Wildlife Preservation. By Richard Switzer Bird Curator, Al Wabra Wildlife Preservation. Presentation for Aviary Congress Singapore, November 2008 Introduction to Birds of Paradise in the Wild Taxonomy The family Paradisaeidae is in the order Passeriformes. In the past decade since the publication of Frith and Beehler (1998), the taxonomy of the family Paradisaeidae has been re-evaluated considerably. Frith and Beehler (1998) listed 42 species in 17 genera. However, the monotypic genus Macgregoria (MacGregor’s Bird of Paradise) has been re-classified in the family Meliphagidae (Honeyeaters). Similarly, 3 species in 2 genera (Cnemophilus and Loboparadisea) – formerly described as the “Wide-gaped Birds of Paradise” – have been re-classified as members of the family Melanocharitidae (Berrypeckers and Longbills) (Cracraft and Feinstein 2000). Additionally the two genera of Sicklebills (Epimachus and Drepanornis) are now considered to be combined as the one genus Epimachus. These changes reduce the total number of genera in the family Paradisaeidae to 13. However, despite the elimination of the 4 species mentioned above, 3 species have been newly described – Berlepsch's Parotia (P. berlepschi), Eastern or Helen’s Parotia (P. helenae) and the Eastern or Growling Riflebird (P. intercedens). The Berlepsch’s Parotia was once considered to be a subspecies of the Carola's Parotia. It was previously known only from four female specimens, discovered in 1985. It was rediscovered during a Conservation International expedition in 2005 and was photographed for the first time. The Eastern Parotia, also known as Helena's Parotia, is sometimes considered to be a subspecies of Lawes's Parotia, but differs in the male’s frontal crest and the female's dorsal plumage colours. -
THE CASE AGAINST Marine Mammals in Captivity Authors: Naomi A
s l a m m a y t T i M S N v I i A e G t A n i p E S r a A C a C E H n T M i THE CASE AGAINST Marine Mammals in Captivity The Humane Society of the United State s/ World Society for the Protection of Animals 2009 1 1 1 2 0 A M , n o t s o g B r o . 1 a 0 s 2 u - e a t i p s u S w , t e e r t S h t u o S 9 8 THE CASE AGAINST Marine Mammals in Captivity Authors: Naomi A. Rose, E.C.M. Parsons, and Richard Farinato, 4th edition Editors: Naomi A. Rose and Debra Firmani, 4th edition ©2009 The Humane Society of the United States and the World Society for the Protection of Animals. All rights reserved. ©2008 The HSUS. All rights reserved. Printed on recycled paper, acid free and elemental chlorine free, with soy-based ink. Cover: ©iStockphoto.com/Ying Ying Wong Overview n the debate over marine mammals in captivity, the of the natural environment. The truth is that marine mammals have evolved physically and behaviorally to survive these rigors. public display industry maintains that marine mammal For example, nearly every kind of marine mammal, from sea lion Iexhibits serve a valuable conservation function, people to dolphin, travels large distances daily in a search for food. In learn important information from seeing live animals, and captivity, natural feeding and foraging patterns are completely lost. -
Sustainability of Threatened Species Displayed in Public Aquaria, with a Case Study of Australian 1 Sharks and Rays 2 3 Kathryn
https://link.springer.com/article/10.1007/s11160-017-9501-2 1 PREPRINT 1 Sustainability of threatened species displayed in public aquaria, with a case study of Australian 2 sharks and rays 3 4 Kathryn A. Buckley • David A. Crook • Richard D. Pillans • Liam Smith • Peter M. Kyne 5 6 7 K.A. Buckley • D.A. Crook • P.M. Kyne 8 Research Institute for the Environment and Livelihoods, Charles Darwin University, Darwin, NT 0909, 9 Australia 10 R.D. Pillans 11 CSIRO Oceans and Atmosphere, 41 Boggo Road, Dutton Park, QLD 4102, Australia 12 L. Smith 13 BehaviourWorks Australia, Monash Sustainable Development Institute, Building 74, Monash University, 14 Wellington Road, Clayton, VIC 3168, Australia 15 Corresponding author: K.A. Buckley, Research Institute for the Environment and Livelihoods, Charles Darwin 16 University, Darwin, NT 0909, Australia; Telephone: +61 4 2917 4554; Fax: +61 8 8946 7720; e-mail: 17 [email protected] 18 https://www.nespmarine.edu.au/document/sustainability-threatened-species-displayed-public-aquaria-case-study-australian-sharks-and https://link.springer.com/article/10.1007/s11160-017-9501-2 2 PREPRINT 19 Abstract Zoos and public aquaria exhibit numerous threatened species globally, and in the modern context of 20 these institutions as conservation hubs, it is crucial that displays are ecologically sustainable. Elasmobranchs 21 (sharks and rays) are of particular conservation concern and a higher proportion of threatened species are 22 exhibited than any other assessed vertebrate group. Many of these lack sustainable captive populations, so 23 comprehensive assessments of sustainability may be needed to support the management of future harvests and 24 safeguard wild populations. -
Species Listing PROPOSAL Form: Listing Endangered, Threatened, and Special Concern Species in Massachusetts
Appendix A Page 1 Species Listing PROPOSAL Form: Listing Endangered, Threatened, and Special Concern Species in Massachusetts Scientific name: Falco peregrinus Current Listed Status (if any): Threatened Common name: Peregrine Falcon Proposed Action: Add the species, with the status of: ________ Change the scientific name to: _________ Remove the species Change the common name to: _________ X Change the species’ status to: Species of (Please justify proposed name change.) Special Concern Proponent’s Name and Address: Thomas W. French, Ph.D. NHESP, Division of Fisheries and Wildlife 100 Hartwell Street West Boylston, MA 01583 Phone Number: 508-389-6355 - office E-mail: [email protected] Fax: 508-389-7890 Association, Institution or Business represented by proponent: NHESP, Division of Fisheries and Wildlife Proponent’s Signature: Thomas W. French Date Submitted: March 7, 2018 Please submit to: Natural Heritage & Endangered Species Program, Massachusetts Division of Fisheries & Wildlife, 1 Rabbit Hill Road, Westborough, MA 01581 Justification Justify the proposed change in legal status of the species by addressing each of the criteria below, as listed in the Massachusetts Endangered Species Act (MGL c. 131A) and its implementing regulations (321 CMR 10.00), and provide literature citations or other documentation wherever possible. Expand onto additional pages as needed but make sure you address all of the questions below. The burden of proof is on the proponent for a listing, delisting, or status change. (1) Taxonomic status. Is the species a valid taxonomic entity? Please cite scientific literature. The Peregrine Falcon is a well accepted species, originally described in 1771, and currently represented by 17 to 19 subspecies worldwide. -
Shouldered Hawk and Aplomado Falcon from Quaternary Asphalt
MARCH 2003 SHORT COMMUNICATIONS 71 J. RaptorRes. 37(1):71-75 ¸ 2003 The Raptor ResearchFoundation, Inc. RED-SHOULDEREDHAWK AND APLOMADO FALCON FROM QUATERNARY ASPHALT DEPOSITS IN CUBA WILLIAM SU•REZ MuseoNacional de Historia Natural, Obispo61, Plaza deArmas; La Habana CP 10100 Cuba STORRS L. OLSON • NationalMuseum of Natural History,Smithsonian Institution, Washington, DC 20560 U.S.A. KEYWORDS: AplomadoFalcon; Falco femoralis;Red-shoul- MATERIAL EXAMINED deredHawk; Buteo lineatus;Antilles; Cuba; extinctions; Jbssil Fossils are from the collections of the Museo Nacional birds;Quaternary; West Indies. de Historia Natural, La Habana, Cuba (MNHNCu). Mod- ern comparativeskeletons included specimensof all of The fossil avifauna of Cuba is remarkable for its diver- the speciesof Buteoand Falcoin the National Museum of Natural History, Smithsonian Institution, Washington, sity of raptors,some of very large size, both diurnal and DC (USNM). The following specimenswere used tbr the nocturnal (Arredondo 1976, 1984, Su'•rez and Arredon- tables of measurements: Buteo lineatus 16633-16634, do 1997). This diversitycontinues to increase(e.g., Su'•- 17952-17953, 18798, 18846, 18848, 18965, 19108, 19929, rez and Olson 2001a, b, 2003a) and many additionalspe- 290343, 291174-291175, 291197-291200, 291216, cies are known that await description. Not all of the 291860-291861, 291883, 291886, 296343, 321580, raptors that have disappearedfrom Cuba in the Quater- 343441, 499423, 499626, 499646, 500999-501000, nary are extinct species,however. We report here the first 610743-610744, 614338; Falcofemoralis 30896, 291300, 319446, 622320-622321. recordsfor Cuba of two widespreadliving speciesthat are not known in the Antilles today. Family Accipitridae Thesefossils were obtainedduring recentpaleontolog- Genus ButeoLacepede ical exploration of an asphalt deposit, Las Breasde San Red-shouldered Hawk Buteolineatus (Gmelin) Felipe, which is so far the only "tar pit" site known in (Fig. -
Captive Breeding Genetics and Reintroduction Success
Biological Conservation 142 (2009) 2915–2922 Contents lists available at ScienceDirect Biological Conservation journal homepage: www.elsevier.com/locate/biocon Captive breeding genetics and reintroduction success Alexandre Robert * UMR 7204 MNHN-CNRS-UPMC, Conservation des Espèces, Restauration et Suivi des Populations, Muséum National d’Histoire Naturelle, CRBPO, 55, Rue Buffon, 75005 Paris, France article info abstract Article history: Since threatened species are generally incapable of surviving in their current, altered natural environ- Received 6 May 2009 ments, many conservation programs require to preserve them through ex situ conservation techniques Received in revised form 8 July 2009 prior to their reintroduction into the wild. Captive breeding provides species with a benign and stable Accepted 23 July 2009 environment but has the side effect to induce significant evolutionary changes in ways that compromise Available online 26 August 2009 fitness in natural environments. I developed a model integrating both demographic and genetic processes to simulate a captive-wild population system. The model was used to examine the effect of the relaxation Keywords: of selection in captivity on the viability of the reintroduced population, in interaction with the reintro- Reintroduction duction method and various species characteristics. Results indicate that the duration of the reintroduc- Selection relaxation Population viability analysis tion project (i.e., time from the foundation of the captive population to the last release event) is the most Mutational meltdown important determinant of reintroduction success. Success is generally maximized for intermediate project duration allowing to release a sufficient number of individuals, while maintaining the number of generations of relaxed selection to an acceptable level. -
1 Systematics and Evolution of Kestrels
Cambridge University Press 978-1-108-47062-9 — The Kestrel David Costantini , Giacomo Dell'Omo Excerpt More Information 1 Systematics and Evolution of Kestrels 1.1 Chapter Summary The family Falconidae constitutes a group of small to medium-sized diurnal raptors whose monophyly is strongly supported. Kestrels are included in the subfamily Falconinae. There are at least 13 species that belong to the kestrel group, but recent genetic studies suggest that the number of kestrel species might be larger, possibly 16. The paleontological and molecular evidence is congruent in suggesting an evolutionary radiation of kestrels from the Late Miocene (4.0–9.8 million years ago) through the Early Pleistocene. However, the geographic area where kestrels originated and dispersed from is unclear. 1.2 Diversification of Falcons The Falconidae is a monophyletic family of diurnal birds of prey that occupy a wide variety of ecological niches and geographic regions (White et al., 1994). Three subfamilies are currently recognised and their validity is supported by both molecular and morphological data (Griffiths, 1999; Griffiths et al., 2004; Fuchs et al., 2012, 2015): (i) Falconinae (falcons, falconets and kestrels), (ii) Herpetotherinae (forest falcons Micrastur sp. and laughing falcon Herpetotheres cachinnans) and (iii) Polyborinae (caracaras) (Figure 1.1). Dickinson (2003) has recognised 11 genera and 64 species of Falconidae, but figures can vary slightly across authors. Both the Herpetotherinae and the Polyborinae occur only in the New World, while the Falconinae (the subfamily to which kestrels belong) are widespread across both the New and Old World with 46 species, 40 of which belong to the genus Falco (Fuchs et al., 2015). -
Chapter 51 Animal Behavior
Chapter 51 Animal Behavior Lecture Outline Overview: Shall We Dance? • Red-crowned cranes (Grus japonensis) gather in groups to dance, prance, stretch, bow, and leap. They grab bits of plants, sticks, and feathers with their bills and toss them into the air. • How does a crane decide that it is time to dance? In fact, why does it dance at all? • Animal behavior is based on physiological systems and processes. • An individual behavior is an action carried out by the muscular or hormonal system under the control of the nervous system in response to a stimulus. • Behavior contributes to homeostasis; an animal must acquire nutrients for digestion and find a partner for sexual reproduction. • All of animal physiology contributes to behavior, while animal behavior influences all of physiology. • Being essential for survival and reproduction, animal behavior is subject to substantial selective pressure during evolution. • Behavioral selection also acts on anatomy because body form and appearance contribute directly to the recognition and communication that underlie many behaviors. Concept 51.1: A discrete sensory input is the stimulus for a wide range of animal behaviors. • An animal’s behavior is the sum of its responses to external and internal stimuli. Classical ethology presaged an evolutionary approach to behavioral biology. • In the mid-20th century, pioneering behavioral biologists developed the discipline of ethology, the scientific study of how animals behave in their natural environments. • Niko Tinbergen, of the Netherlands, suggested four questions that must be answered to fully understand any behavior. 1. What stimulus elicits the behavior, and what physiological mechanisms mediate the response? 2. -