Investigating Red-Winged Blackbirds a 3Rd Grade WSS/NGSS Unit On
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© 2006 Abcteach.Com an Owl Is a Bird. There Are Two Basic Types of Owls: Typical Owls and Barn Owls. Owls Live in Almost Every
Reading Comprehension/ Animals Name _________________________________ Date ____________________ OWLS An owl is a bird. There are two basic types of owls: typical owls and barn owls. Owls live in almost every country of the world. Owls are mostly nocturnal, meaning they are awake at night. Owls are predators- they hunt the food that they eat. Owls hunt for mice and other small mammals, insects, and even fish. Owls are well adapted for hunting. Their soft, fluffy feathers make their flight nearly silent. They have very good hearing, which helps them to hunt well in the darkness. The sharp hooked beaks and claws of the owl make it very easy to tear apart prey quickly, although owls also eat some prey whole. Owl eyes are unusual. Like most predators, both of the owl’s eyes face front. The owl cannot move its eyes. Owls are far-sighted, which means they can see very well far away… but they can’t see up close very well at all. Fortunately, their distant vision is what they use for hunting, and they can see far away even in low light. Owls have facial disks around their eyes, tufts of feathers in a circle around each eye. These facial disks are thought to help with the owl’s hearing. Owls can turn their heads 180 degrees. This makes it look like they might be able to turn their heads all the way around, but 180 degrees is all the owl needs to see what’s going on all around him. Perhaps because of the owl’s mysterious appearance, especially its round eyes and flexible neck, there are a lot of myths and superstitions about owls. -
Predator and Competitor Management Plan for Monomoy National Wildlife Refuge
Appendix J /USFWS Malcolm Grant 2011 Fencing exclosure to protect shorebirds from predators Predator and Competitor Management Plan for Monomoy National Wildlife Refuge Background and Introduction Background and Introduction Throughout North America, the presence of a single mammalian predator (e.g., coyote, skunk, and raccoon) or avian predator (e.g., great horned owl, black-crowned night-heron) at a nesting site can result in adult bird mortality, decrease or prevent reproductive success of nesting birds, or cause birds to abandon a nesting site entirely (Butchko and Small 1992, Kress and Hall 2004, Hall and Kress 2008, Nisbet and Welton 1984, USDA 2011). Depredation events and competition with other species for nesting space in one year can also limit the distribution and abundance of breeding birds in following years (USDA 2011, Nisbet 1975). Predator and competitor management on Monomoy refuge is essential to promoting and protecting rare and endangered beach nesting birds at this site, and has been incorporated into annual management plans for several decades. In 2000, the Service extended the Monomoy National Wildlife Refuge Nesting Season Operating Procedure, Monitoring Protocols, and Competitor/Predator Management Plan, 1998-2000, which was expiring, with the intent to revise and update the plan as part of the CCP process. This appendix fulfills that intent. As presented in chapter 3, all proposed alternatives include an active and adaptive predator and competitor management program, but our preferred alternative is most inclusive and will provide the greatest level of protection and benefit for all species of conservation concern. The option to discontinue the management program was considered but eliminated due to the affirmative responsibility the Service has to protect federally listed threatened and endangered species and migratory birds. -
A Baraminological Analysis of the Land Fowl (Class Aves, Order Galliformes)
Galliform Baraminology 1 Running Head: GALLIFORM BARAMINOLOGY A Baraminological Analysis of the Land Fowl (Class Aves, Order Galliformes) Michelle McConnachie A Senior Thesis submitted in partial fulfillment of the requirements for graduation in the Honors Program Liberty University Spring 2007 Galliform Baraminology 2 Acceptance of Senior Honors Thesis This Senior Honors Thesis is accepted in partial fulfillment of the requirements for graduation from the Honors Program of Liberty University. ______________________________ Timothy R. Brophy, Ph.D. Chairman of Thesis ______________________________ Marcus R. Ross, Ph.D. Committee Member ______________________________ Harvey D. Hartman, Th.D. Committee Member ______________________________ Judy R. Sandlin, Ph.D. Assistant Honors Program Director ______________________________ Date Galliform Baraminology 3 Acknowledgements I would like to thank my Lord and Savior, Jesus Christ, without Whom I would not have had the opportunity of being at this institution or producing this thesis. I would also like to thank my entire committee including Dr. Timothy Brophy, Dr. Marcus Ross, Dr. Harvey Hartman, and Dr. Judy Sandlin. I would especially like to thank Dr. Brophy who patiently guided me through the entire research and writing process and put in many hours working with me on this thesis. Finally, I would like to thank my family for their interest in this project and Robby Mullis for his constant encouragement. Galliform Baraminology 4 Abstract This study investigates the number of galliform bird holobaramins. Criteria used to determine the members of any given holobaramin included a biblical word analysis, statistical baraminology, and hybridization. The biblical search yielded limited biosystematic information; however, since it is a necessary and useful part of baraminology research it is both included and discussed. -
CONVERGENT EVOLUTION of ELANUS KITES and the OWLS Author(S): Juan J
CONVERGENT EVOLUTION OF ELANUS KITES AND THE OWLS Author(s): Juan J. Negro, Cino Pertoldi, Ettore Randi, Juan J. Ferrero, José M. López-Caballero, Domingo Rivera, and Erkki Korpimäki Source: Journal of Raptor Research, 40(3):222-225. 2006. Published By: The Raptor Research Foundation DOI: 10.3356/0892-1016(2006)40[222:CEOEKA]2.0.CO;2 URL: http://www.bioone.org/doi/full/10.3356/0892- 1016%282006%2940%5B222%3ACEOEKA%5D2.0.CO%3B2 BioOne (www.bioone.org) is an electronic aggregator of bioscience research content, and the online home to over 160 journals and books published by not-for-profit societies, associations, museums, institutions, and presses. Your use of this PDF, the BioOne Web site, and all posted and associated content indicates your acceptance of BioOne’s Terms of Use, available at www.bioone.org/page/terms_of_use. Usage of BioOne content is strictly limited to personal, educational, and non-commercial use. Commercial inquiries or rights and permissions requests should be directed to the individual publisher as copyright holder. BioOne sees sustainable scholarly publishing as an inherently collaborative enterprise connecting authors, nonprofit publishers, academic institutions, research libraries, and research funders in the common goal of maximizing access to critical research. SHORT COMMUNICATIONS J. Raptor Res. 40(3):222–225 E 2006 The Raptor Research Foundation, Inc. CONVERGENT EVOLUTION OF ELANUS KITES AND THE OWLS JUAN J. NEGRO1 AND CINO PERTOLDI Estacio´n Biolo´gica de Don˜ana, Apdo. 1056, 41080 Sevilla, Spain ETTORE RANDI Istituto Nazionale per la Fauna Selvatica, 40064 Ozzano Emilia (BO), Italy JUAN J. -
Trip 17-Apr 18-Apr Havana Las Terrazas ANSERIFORMES: Anatidae Fulvous Whistling-Duck X Wood Duck X Blue-Winged Teal X Northern Pintail X Red-Breasted Merganser X
trip 17-Apr 18-Apr Havana Las Terrazas ANSERIFORMES: Anatidae Fulvous Whistling-Duck X Wood Duck X Blue-winged Teal X Northern Pintail X Red-breasted Merganser X PHOENICOPTERIFORMES: Phoenicopteridae American Flamingo X PODICIPEDIFORMES Least Grebe X SULIFORMES: Fregatidae Magnificent Frigatebird X SULIFORMES: Sulidae Brown Booby X SULIFORMES: Phalacrocoracidae Neotropic Cormorant X Double-crested Cormorant X SULIFORMES: Anhingidae Anhinga X PELECANIFORMES: Pelecanidae Brown Pelican X X X American White Pelican X PELECANIFORMES: Ardeidae Great Blue Heron X Great Egret X X Snowy Egret X X Little Blue Heron X X Tricolored Heron X Reddish Egret X Cattle Egret X X Green Heron X X Yellow-crowned Night-Heron X PELECANIFORMES: Threskiornithidae White Ibis X Glossy Ibis X Roseate Spoonbill X CATHARTIFORMES: Cathartidae Turkey Vulture X X X ACCIPITRIFORMES: Pandionidae Osprey X ACCIPITRIFORMES: Accipitridae Snail Kite X X Cuban Black Hawk X Red-tailed Hawk X X GRUIFORMES: Rallidae Common Gallinule X X CHARADRIIFORMES: Recurvirostridae Black-necked Stilt X American Avocet X CHARADRIIFORMES: Charadriidae Black-bellied Plover X Killdeer X CHARADRIIFORMES: Scolopacidae Ruddy Turnstone Stilt Sandpiper X Sanderling X Semipalmated Sandpiper X Short-billed Dowitcher X Spotted Sandpiper X X Solitary Sandpiper X Greater Yellowlegs X Lesser Yellowlegs X CHARADRIIFORMES: Laridae Laughing Gull X X Herring Gull X Least Tern X Royal Tern X X X Sandwich Tern X Black Skimmer X CHARADRIIFORMES: Stercocariidae Pomarine Jaeger X COLUMBIFORMES: Columbidae Rock Pigeon -
American Paleontologist Pages 1 and 4
FinalV OLUMEIssue 19, NUMBER 4 AMERICAN WINTER 2012 PALEONTOLOGIST A MAGAZINE OF EARTH SCIENCE PUBLISHED BY THE PALEONTOLOGICAL RESEARCH INSTITUTION AND ITS MUSEUM OF THE EARTH The Last Good Buy Birds in the New Age of Extinction Also in this issue... An Inordinate Fondness for Vertebrae page 20 Goodbye American Paleontologist pages 1 and 4 ...plus much more! US $5.00 FEATURE ARTICLE Th e Last Good Buy: Birds in the New Age of Extinction By Constance M. Soja Th e oldest fossils belonging to the undisputed bird survivors of the end-Mesozoic biodiversity crisis experienced Archaeopteryx date back 140-150 million years to the extraordinary evolutionary radiations. Co-adapting to the Mesozoic. During that geologic era, dinosaurs dominated brave new world, they fi lled vacated ecologic niches and terrestrial ecosystems around the globe. Pterosaurs – evolved into the iconic species that defi ne the Cenozoic – dinosaurs' evolutionary cousins, the fl ying reptiles – soared our modern world and Earth's current great geologic era. overhead, and an astounding variety of diminutive to gigantic With most animal and plant groups of the Mesozoic laid to aquatic reptiles – ichthyosaurs, plesiosaurs, pliosaurs, and rest, new species rose to dominance, and new competitive mosasaurs – cruised the world's oceans. Consuming squid- relationships were established. Oversized, fl ightless "terror like belemnoid and ammonoid prey, those top predators birds" – T. rex ultimate but down-sized body doubles – were also swam in the shallow seaways that fl ooded the interior pitted against fox- and pony-sized mammals, which in the of North America and other continents. Within 80 million previous 150 million years had been small, nocturnal, rat- years, the Cretaceous-Tertiary mass extinction that brought like animals eeking out a subsidiary existence. -
Aullwood's Birds (PDF)
Aullwood's Bird List This list was collected over many years and includes birds that have been seen at or very near Aullwood. The list includes some which are seen only every other year or so, along with others that are seen year around. Ciconiiformes Great blue heron Green heron Black-crowned night heron Anseriformes Canada goose Mallard Blue-winged teal Wood duck Falconiformes Turkey vulture Osprey Sharp-shinned hawk Cooper's hawk Red-tailed hawk Red-shouldered hawk Broad-winged hawk Rough-legged hawk Marsh hawk American kestrel Galliformes Bobwhite Ring-necked pheasant Gruiformes Sandhill crane American coot Charadriformes Killdeer American woodcock Common snipe Spotted sandpiper Solitary sandpiper Ring-billed gull Columbiformes Rock dove Mourning dove Cuculiformes Yellow-billed cuckoo Strigiformes Screech owl Great horned owl Barred owl Saw-whet owl Caprimulgiformes Common nighthawk Apodiformes Chimney swift Ruby-throated hummingbird Coraciformes Belted kinghisher Piciformes Common flicker Pileated woodpecker Red-bellied woodpecker Red-headed woodpecker Yellow-bellied sapsucker Hairy woodpecker Downy woodpecker Passeriformes Eastern kingbird Great crested flycatcher Eastern phoebe Yellow-bellied flycatcher Acadian flycatcher Willow flycatcher Least flycatcher Eastern wood pewee Olive-sided flycatcher Tree swallow Bank swallow Rough-winged swallow Barn swallow Purple martin Blue jay Common crow Black-capped chickadee Carolina chickadee Tufted titmouse White-breasted nuthatch Red-breasted nuthatch Brown creeper House wren Winter wren -
Microcebus Murinus)
Sex-specific differences in dispersal propensities and their consequences for grey mouse lemurs (Microcebus murinus) D i s s e r t a t i o n zur Erlangung des Doktorgrades der Mathematisch‐Naturwissenschaftlichen Fakultäten der Georg‐August‐Universität zu Göttingen vorgelegt von Susanne Schliehe‐Diecks aus Glandorf Göttingen 2012 Referent: Prof. Dr. Peter M. Kappeler Korreferent: Prof. Dr. Eckhard W. Heymann Tag der mündlichen Prüfung: 16.07.2012 Grey mouse lemurs (Microcebus murinus), nocturnal, solitary active primates CONTENTS CONTENTS GENERAL INTRODUCTION........................................................................................................1 CHAPTER 1: DISPERSAL MOVEMENTS Walk the line – Dispersal movements of gray mouse lemurs………..............................11 with Manfred Eberle and Peter M. Kappeler Behavioral Ecology & Sociobiology (2012): in press CHAPTER 2: PROXIMATE MECHANISMS OF NATAL DISPERSAL Ready to go? On the relationship between natal dispersal and body mass in gray mouse lemurs (Microcebus murinus)...............................................................37 with Manfred Eberle and Peter M. Kappeler Behavioral Ecology: submitted CHAPTER 3: SEX‐SPECIFIC BEHAVIOURAL DIFFERENCES On the application of mixed hidden Markov models to multiple behavioural time series....................................................................................................................57 with Peter M. Kappeler and Roland Langrock Interface Focus (2012) 2: 180‐189 CHAPTER 4: CONSEQUENCES OF NATAL DISPERSAL The -
When Should a Territory Resident Attack?
ANIMAL BEHAVIOUR, 2001, 62, 749–759 doi:10.1006/anbe.2001.1799, available online at http://www.idealibrary.com on When should a territory resident attack? PAUL V. SWITZER*, JUDY A. STAMPS† & MARC MANGEL‡ *Department of Biological Sciences, Eastern Illinois University †Section of Evolution and Ecology, University of California, Davis ‡Department of Environmental Studies, University of California, Santa Cruz (Received 10 August 2000; initial acceptance 2 October 2000; final acceptance 15 March 2001; MS. number: A8855) Models of territorial defence tend to omit two characteristics of many territorial systems: repeated intrusions by the same individual and the learning processes of residents and intruders. Here we present state-dependent, dynamic models of feeding territories, designed to investigate temporal patterns of resident aggression towards intruders that are capable of spatial learning. We compare two types of models: (1) a nomadic intruder model, in which intruders never visit the same territory twice, and (2) a single, repeat intruder model, in which an intruder may repeatedly intrude into a given territory but is less likely to do so after being attacked. These two models produce qualitatively and quantitatively different patterns of aggression by residents. For instance, residents with intruders that may repeatedly intrude have high initial attack rates, regardless of initial probability of intrusion, but their attack rates decline over time. In contrast, residents in the nomadic intruder model do not attack intruders if intrusion rates are moderately high, and their attack rates are constant and high for most of the period of territory tenure. In addition, residents of both nomadic and repeat intruder scenarios stopped attacking intruders for a short period before voluntarily abandoning their feeding territories. -
White-Tailed Deer Scientific Name: Odocoileus Virginianus
ODNR Division of Wildlife Life History Notes White-tailed Deer Scientific Name: Odocoileus virginianus Publication 101 (R503) Introduction with heavy, long guard hairs and a thick under- The white-tailed deer, commonly referred to coat that provides excellent insulation. White as the whitetail, is perhaps Ohio’s best-known patches are found around the eyes, on the wildlife species. It is seen in the state’s wildlife throat, belly, tail (underside), and insides of the areas, parks, and nature preserves as well as in legs. When in flight, the large white tail or flag, the backyards of rural and suburban residents. flipped up in the air can be the easiest way to The state’s only big game animal, it has pro- spot the deer. vided table fare for generations of the state’s Whitetails, especially in Ohio, are also well inhabitants from Native Americans to thou- known for their antlers. The whitetail buck grows sands of sportsmen and women today. its first set of antlers when it is a year old. Each However, the white-tailed deer hasn’t always year, a buck’s antlers begin growing in the been as abundant in the state as it is today. early spring. The developing antler is covered As a matter of fact, there was a period of time with a thick velvety skin rich with blood vessels (1904 to 1923) when the deer was absent in the and nerves. Decreasing day length in the late state. As Ohio was settled, habitat was eliminat- summer and early fall triggers many physical ed and hunting was unregulated. -
MX-19.2 Users Manual
MX-19.2 Users Manual v. 20200801 manual AT mxlinux DOT org Ctrl-F = Search this Manual Ctrl+Home = Return to top Table of Contents 1 Introduction...................................................................................................................................4 1.1 About MX Linux................................................................................................................4 1.2 About this Manual..............................................................................................................4 1.3 System requirements..........................................................................................................5 1.4 Support and EOL................................................................................................................6 1.5 Bugs, issues and requests...................................................................................................6 1.6 Migration............................................................................................................................7 1.7 Our positions......................................................................................................................8 1.8 Notes for Translators.............................................................................................................8 2 Installation...................................................................................................................................10 2.1 Introduction......................................................................................................................10 -
Marine Ecology Progress Series 570:233
Vol. 570: 233–246, 2017 MARINE ECOLOGY PROGRESS SERIES Published April 27 https://doi.org/10.3354/meps12073 Mar Ecol Prog Ser OPEN ACCESS Visitor noise at a nesting colony alters the behavior of a coastal seabird Rachel T. Buxton1,*, Reina Galvan1, Megan F. McKenna2, Cecilia L. White1, Victoria Seher3 1Department of Fish, Wildlife and Conservation Biology, Colorado State University, Fort Collins, Colorado 80523-1474, USA 2Natural Sounds and Night Skies Division, National Park Service, Fort Collins, Colorado 80525, USA 3Golden Gate National Recreation Area, Fort Mason, San Francisco, California 94123, USA ABSTRACT: Exposure to park visitors can disrupt animal behavior. Management strategies often aim to eliminate direct human disturbance; however, elevated visitor noise levels may remain. Coastal seabird colonies frequently overlap with scenic locations, resulting in high visitor noise and potentially altered behavior, habitat use, and fitness. We examine the impact of visitor noise on Brandt’s cormorants Phalacrocorax penicillatus at Alcatraz Island, an important nesting site and one of California’s most visited attractions. We used paired acoustic and video recorders to investigate the relationship between visitor noise levels and the behavior and relative abundance of cormorants in colonies adjacent to and far from a heavily visited building. Visitors were not visible from the cormorant colonies. At cormorant colonies adjacent to the visited building, distur- bance-related behaviors increased with visitor noise. Conversely, there was no relationship be - tween behavior and visitor noise in colonies far from the visited building. Cormorant disturbance behavior increased and abundance decreased when gulls were present at colonies adjacent to the visited building, whereas there was no relationship between gulls and behavior or abundance at colonies far from the visited building.