Appendix A. James Campbell NWR Species List
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Solitary Sandpipers Nesting in Montana
Solitary Sandpipers Breeding in Montana Progress Report for the 2020 Field Season and Summary of Past Work Montana Bird Advocacy, Missoula, Montana 2 March 2021 Most Solitary Sandpipers (Tringa solitaria) breed in Alaska and Canada near wetlands surrounded by boreal forest habitat. They were first confirmed breeding in the contiguous United States in northern Minnesota in 1973 (Savoloja 1973). Additional nesting attempts (dependent young, not nests with eggs) were documented annually in Minnesota from 1982–1984 and in 1987, 2012, and 2013 (Hoffman and Hoffman 1982, Pfannmuller et al. 2017). Solitary Sandpipers were strongly suspected to have nested in Oregon several times between 1981 and 1995 (Sawyer 1981, Lundsten 1996), but no nest or dependent young were observed. The species had never been documented nesting in Montana prior to our work in 2018 (Marks et al. 2016). Recent observations from Glacier National Park (GNP) suggested that they bred in the state. Single adults were observed at two wetlands during the summer of 2007 and at a third location in 2010, 2011, and 2016 (see Tables 1 & 2) as they vocalized and perched in trees, which are typical behaviors of breeding birds but not of migrants (Paulson 1993). These three sites were on the west side of the park. Also, birds that may have been territorial were seen at two unnamed lakes near the eastern boundary of the park in June and July of 2013 (Steve Gniadek, pers. comm.). Habitat at these sites is similar to that at breeding sites in Canada. We documented the first nesting attempt known for Solitary Sandpipers in Montana in 2018 at Sondreson Meadow just outside the boundary of GNP (Fig. -
Common Caribbean Shorebirds: ID Guide
Common Caribbean Shorebirds: ID Guide Large Medium Small 14”-18” 35 - 46 cm 8.5”-12” 22 - 31 cm 6”- 8” 15 - 20 cm Large Shorebirds Medium Shorebirds Small Shorebirds Whimbrel 17.5” 44.5 cm Lesser Yellowlegs 9.5” 24 cm Wilson’s Plover 7.75” 19.5 cm Spotted Sandpiper 7.5” 19 cm American Oystercatcher 17.5” 44.5 cm Black-bellied Plover 11.5” 29 cm Sanderling 7.75” 19.5 cm Western Sandpiper 6.5” 16.5 cm Willet 15” 38 cm Short-billed Dowitcher 11” 28 cm White-rumped Sandpiper 6” 15 cm Greater Yellowlegs 14” 35.5 cm Ruddy Turnstone 9.5” 24 cm Semipalmated Sandpiper 6.25” 16 cm 6.25” 16 cm American Avocet* 18” 46 cm Red Knot 10.5” 26.5 cm Snowy Plover Least Sandpiper 6” 15 cm 14” 35.5 cm 8.5” 21.5 cm Semipalmated Plover Black-necked Stilt* Pectoral Sandpiper 7.25” 18.5 cm Killdeer* 10.5” 26.5 cm Piping Plover 7.25” 18.5 cm Stilt Sandpiper* 8.5” 21.5 cm Lesser Yellowlegs & Ruddy Turnstone: Brad Winn; Red Knot: Anthony Levesque; Pectoral Sandpiper & *not pictured Solitary Sandpiper* 8.5” 21.5 cm White-rumped Sandpiper: Nick Dorian; All other photos: Walker Golder Clues to help identify shorebirds Size & Shape Bill Length & Shape Foraging Behavior Size Length Sandpipers How big is it compared to other birds? Peeps (Semipalmated, Western, Least) Walk or run with the head down, picking and probing Spotted Sandpiper Short Medium As long Longer as head than head Bobs tail up and down when walking Plovers, Turnstone or standing Small Medium Large Sandpipers White-rumped Sandpiper Tail tips up while probing Yellowlegs Overall Body Shape Stilt Sandpiper Whimbrel, Oystercatcher, Probes mud like “oil derrick,” Willet, rear end tips up Dowitcher, Curvature Plovers Stilt, Avocet Run & stop, pick, hiccup, run & stop Elongate Compact Yellowlegs Specific Body Parts Stroll and pick Bill & leg color Straight Upturned Dowitchers Eye size Plovers = larger, sandpipers = smaller Tip slightly Probe mud with “sewing machine” Leg & neck length downcurved Downcurved bill, body stays horizontal . -
Draft Version Target Shorebird Species List
Draft Version Target Shorebird Species List The target species list (species to be surveyed) should not change over the course of the study, therefore determining the target species list is an important project design task. Because waterbirds, including shorebirds, can occur in very high numbers in a census area, it is often not possible to count all species without compromising the quality of the survey data. For the basic shorebird census program (protocol 1), we recommend counting all shorebirds (sub-Order Charadrii), all raptors (hawks, falcons, owls, etc.), Common Ravens, and American Crows. This list of species is available on our field data forms, which can be downloaded from this site, and as a drop-down list on our online data entry form. If a very rare species occurs on a shorebird area survey, the species will need to be submitted with good documentation as a narrative note with the survey data. Project goals that could preclude counting all species include surveys designed to search for color-marked birds or post- breeding season counts of age-classed bird to obtain age ratios for a species. When conducting a census, you should identify as many of the shorebirds as possible to species; sometimes, however, this is not possible. For example, dowitchers often cannot be separated under censuses conditions, and at a distance or under poor lighting, it may not be possible to distinguish some species such as small Calidris sandpipers. We have provided codes for species combinations that commonly are reported on censuses. Combined codes are still species-specific and you should use the code that provides as much information as possible about the potential species combination you designate. -
Island Biology Island Biology
IIssllaanndd bbiioollooggyy Allan Sørensen Allan Timmermann, Ana Maria Martín González Camilla Hansen Camille Kruch Dorte Jensen Eva Grøndahl, Franziska Petra Popko, Grete Fogtmann Jensen, Gudny Asgeirsdottir, Hubertus Heinicke, Jan Nikkelborg, Janne Thirstrup, Karin T. Clausen, Karina Mikkelsen, Katrine Meisner, Kent Olsen, Kristina Boros, Linn Kathrin Øverland, Lucía de la Guardia, Marie S. Hoelgaard, Melissa Wetter Mikkel Sørensen, Morten Ravn Knudsen, Pedro Finamore, Petr Klimes, Rasmus Højer Jensen, Tenna Boye Tine Biedenweg AARHUS UNIVERSITY 2005/ESSAYS IN EVOLUTIONARY ECOLOGY Teachers: Bodil K. Ehlers, Tanja Ingversen, Dave Parker, MIchael Warrer Larsen, Yoko L. Dupont & Jens M. Olesen 1 C o n t e n t s Atlantic Ocean Islands Faroe Islands Kent Olsen 4 Shetland Islands Janne Thirstrup 10 Svalbard Linn Kathrin Øverland 14 Greenland Eva Grøndahl 18 Azores Tenna Boye 22 St. Helena Pedro Finamore 25 Falkland Islands Kristina Boros 29 Cape Verde Islands Allan Sørensen 32 Tristan da Cunha Rasmus Højer Jensen 36 Mediterranean Islands Corsica Camille Kruch 39 Cyprus Tine Biedenweg 42 Indian Ocean Islands Socotra Mikkel Sørensen 47 Zanzibar Karina Mikkelsen 50 Maldives Allan Timmermann 54 Krakatau Camilla Hansen 57 Bali and Lombok Grete Fogtmann Jensen 61 Pacific Islands New Guinea Lucía de la Guardia 66 2 Solomon Islands Karin T. Clausen 70 New Caledonia Franziska Petra Popko 74 Samoa Morten Ravn Knudsen 77 Tasmania Jan Nikkelborg 81 Fiji Melissa Wetter 84 New Zealand Marie S. Hoelgaard 87 Pitcairn Katrine Meisner 91 Juan Fernandéz Islands Gudny Asgeirsdottir 95 Hawaiian Islands Petr Klimes 97 Galápagos Islands Dorthe Jensen 102 Caribbean Islands Cuba Hubertus Heinicke 107 Dominica Ana Maria Martin Gonzalez 110 Essay localities 3 The Faroe Islands Kent Olsen Introduction The Faroe Islands is a treeless archipelago situated in the heart of the warm North Atlantic Current on the Wyville Thompson Ridge between 61°20’ and 62°24’ N and between 6°15’ and 7°41’ W. -
Birds of Chile a Photo Guide
© Copyright, Princeton University Press. No part of this book may be 88 distributed, posted, or reproduced in any form by digital or mechanical 89 means without prior written permission of the publisher. WALKING WATERBIRDS unmistakable, elegant wader; no similar species in Chile SHOREBIRDS For ID purposes there are 3 basic types of shorebirds: 6 ‘unmistakable’ species (avocet, stilt, oystercatchers, sheathbill; pp. 89–91); 13 plovers (mainly visual feeders with stop- start feeding actions; pp. 92–98); and 22 sandpipers (mainly tactile feeders, probing and pick- ing as they walk along; pp. 99–109). Most favor open habitats, typically near water. Different species readily associate together, which can help with ID—compare size, shape, and behavior of an unfamiliar species with other species you know (see below); voice can also be useful. 2 1 5 3 3 3 4 4 7 6 6 Andean Avocet Recurvirostra andina 45–48cm N Andes. Fairly common s. to Atacama (3700–4600m); rarely wanders to coast. Shallow saline lakes, At first glance, these shorebirds might seem impossible to ID, but it helps when different species as- adjacent bogs. Feeds by wading, sweeping its bill side to side in shallow water. Calls: ringing, slightly sociate together. The unmistakable White-backed Stilt left of center (1) is one reference point, and nasal wiek wiek…, and wehk. Ages/sexes similar, but female bill more strongly recurved. the large brown sandpiper with a decurved bill at far left is a Hudsonian Whimbrel (2), another reference for size. Thus, the 4 stocky, short-billed, standing shorebirds = Black-bellied Plovers (3). -
The All-Bird Bulletin
Advancing Integrated Bird Conservation in North America Spring 2014 Inside this issue: The All-Bird Bulletin Protecting Habitat for 4 the Buff-breasted Sandpiper in Bolivia The Neotropical Migratory Bird Conservation Conserving the “Jewels 6 Act (NMBCA): Thirteen Years of Hemispheric in the Crown” for Neotropical Migrants Bird Conservation Guy Foulks, Program Coordinator, Division of Bird Habitat Conservation, U.S. Fish and Bird Conservation in 8 Wildlife Service (USFWS) Costa Rica’s Agricultural Matrix In 2000, responding to alarming declines in many Neotropical migratory bird popu- Uruguayan Rice Fields 10 lations due to habitat loss and degradation, Congress passed the Neotropical Migra- as Wintering Habitat for tory Bird Conservation Act (NMBCA). The legislation created a unique funding Neotropical Shorebirds source to foster the cooperative conservation needed to sustain these species through all stages of their life cycles, which occur throughout the Western Hemi- Conserving Antigua’s 12 sphere. Since its first year of appropriations in 2002, the NMBCA has become in- Most Critical Bird strumental to migratory bird conservation Habitat in the Americas. Neotropical Migratory 14 Bird Conservation in the The mission of the North American Bird Heart of South America Conservation Initiative is to ensure that populations and habitats of North Ameri- Aros/Yaqui River Habi- 16 ca's birds are protected, restored, and en- tat Conservation hanced through coordinated efforts at in- ternational, national, regional, and local Strategic Conservation 18 levels, guided by sound science and effec- in the Appalachians of tive management. The NMBCA’s mission Southern Quebec is to achieve just this for over 380 Neo- tropical migratory bird species by provid- ...and more! Cerulean Warbler, a Neotropical migrant, is a ing conservation support within and be- USFWS Bird of Conservation Concern and listed as yond North America—to Latin America Vulnerable on the International Union for Conser- Coordination and editorial vation of Nature (IUCN) Red List. -
FAU Institutional Repository
FAU Institutional Repository http://purl.fcla.edu/fau/fauir This paper was submitted by the faculty of FAU’s Harbor Branch Oceanographic Institute. Notice: ©1990 Elsevier Inc. The final published version of this manuscript is available at http://www.sciencedirect.com/science/journal/03009629 and may be cited as: Peterson, M. S. (1990). Hypoxia-induced physiological changes in two mangrove swamp fishes: sheepshead minnow, Cyprinodon variegatus Lacepede and sailfin molly, Poecilia latipinna (Lesueur). Comparative Biochemistry and Physiology Part A: Physiology, 97(1), 17-21.doi:10.1016/0300-9629(90)90715-5 let 1) Compo Biochem. Physiol. Vol. 97A, No. I, pp. 17-21, 1990 0300-9629/90 $3.00 +0.00 Printedin Great Britain © 1990 Pergamon Press pic HYPOXIA-INDUCED PHYSIOLOGICAL CHANGES IN TWO MANGROVE SWAMP FISHES: SHEEPSHEAD MINNOW, CYPRINODON VARIEGATUS LACEPEDE AND SAILFIN MOLLY, POECILIA LATIPINNA (LESUEUR) MARK S. PETERSON* Harbor Branch Oceanographic Institution, Inc. Division of Marine Science 5600 Old Dixie Highway Ft. Pierce, FL 34946, USA. Telephone: (601) 325-3120 (Received 19 December 1989) Abstract-I. Laboratory measurements (30°C and 300/00 salinity) were made of plasma osmolality, plasma chloride ion concentration, hematocrit, oxygen consumption and survival of sheepshead minnow, • Cyprinodon oariegatus Lacepede and sailfin molly, Poecilia latipinna (Lesueur) under normoxic (150 mm Hg) and hypoxic (40 mm Hg) conditions. 2. Significant increases in hematocrit and reductions in oxygen consumption were documented for both species. Plasma osmolality increased in sheepshead minnows while in hypoxic conditions but plasma " chloride did not change from values in 150mm Hg in either species. There was no mortality in either species during the 24 hr hypoxia survival tests. -
Vestured Pits in Wood of Onagraceae: Correlations with Ecology, Habit, and Phylogeny1
VESTURED PITS IN WOOD OF Sherwin Carlquist2 and Peter H. Raven3 ONAGRACEAE: CORRELATIONS WITH ECOLOGY, HABIT, AND PHYLOGENY1 ABSTRACT All Onagraceae for which data are available have vestured pits on vessel-to-vessel pit pairs. Vestures may also be present in some species on the vessel side of vessel-to-ray pit pairs. Herbaceous Onagraceae do not have fewer vestures, although woods with lower density (Circaea L. and Oenothera L.) have fewer vestures. Some Onagraceae from drier areas tend to have smaller vessel pits, and on that account may have fewer vestures (Epilobium L. and Megacorax S. Gonz´alez & W. L. Wagner). Pit apertures as seen on the lumen side of vessel walls are elliptical, occasionally oval, throughout the family. Vestures are predominantly attached to pit aperture margins. As seen from the outer surfaces of vessels, vestures may extend across the pit cavities. Vestures are usually absent or smaller on the distal portions of pit borders (except for Ludwigia L., which grows consistently in wet areas). Distinctive vesture patterns were observed in the several species of Lopezia Cav. and in Xylonagra Donn. Sm. & Rose. Vestures spread onto the lumen-facing vessel walls of Ludwigia octovalvis (Jacq.) P. H. Raven. Although the genera are presented here in the sequence of a recent molecular phylogeny of Onagraceae, ecology and growth forms are more important than evolutionary relationships with respect to abundance, degree of grouping, and morphology of vestured pits. Designation of vesture types is not warranted based on the distribution of named types in Onagraceae and descriptive adjectives seem more useful, although more data on vesturing in the family are needed before patterns of diversity and their extent can be fully ascertained. -
DIET and CONDITION of AMERICAN ALLIGATORS (Alligator Mississippiensis) in THREE CENTRAL FLORIDA LAKES
DIET AND CONDITION OF AMERICAN ALLIGATORS (Alligator mississippiensis) IN THREE CENTRAL FLORIDA LAKES By AMANDA NICOLE RICE A THESIS PRESENTED TO THE GRADUATE SCHOOL OF THE UNIVERSITY OF FLORIDA IN PARTIAL FULFILLMENT OF THE REQUIREMENTS FOR THE DEGREE OF MASTER OF SCIENCE UNIVERSITY OF FLORIDA 2004 Copyright 2004 by Amanda Nicole Rice ACKNOWLEDGMENTS I am very grateful to Dr. J. Perran Ross who made it possible for me to be involved in such an amazing project. Dr. Ross was always patient and provided encouragement when needed. He taught me many things that will stay with me throughout my career. My parents, John and LeeLonee Rice, graciously supported me throughout my graduate work. Their support and earlier guidance gave me what I needed to be successful. My other committee members, Dr. H. Franklin Percival and Dr. Mike S Allen, both contributed to my success during my graduate work. Many people helped me learn the necessary skills to handle this job. Notable among them were P. Ross, Allan “Woody” Woodward, Chris Tubbs, Dwayne Carbonneau, Arnold Brunnell, Chris Visscher, and John White. Woody Woodward was especially helpful with understanding basic alligator ecology and with fieldwork. Field techs C. Tubbs, Esther Langan, Rick Owen, Jeremy Olson, and Chad Rischar were essential to the project. Many great volunteers helped late into the night catching and lavaging alligators. The Florida Museum of Natural History’s (FLMNH) ornithology, mammology, ichthyology, herpetology, and zoo archaeology collection managers and their reference collections were invaluable with species identification. My lab assistants E Langan, Anthony Reppas, and Patricia Gomez were all very helpful in painstakingly sorting through the stomach samples. -
Māhā'ulepū, Island of Kaua'i Reconnaissance Survey
National Park Service U.S. Department of the Interior Pacific West Region, Honolulu Office February 2008 Māhā‘ulepū, Island of Kaua‘i Reconnaissance Survey THIS PAGE INTENTIONALLY LEFT BLANK TABLE OF CONTENTS 1 SUMMARY………………………………………………………………………………. 1 2 BACKGROUND OF THE STUDY……………………………………………………..3 2.1 Background of the Study…………………………………………………………………..……… 3 2.2 Purpose and Scope of an NPS Reconnaissance Survey………………………………………4 2.2.1 Criterion 1: National Significance………………………………………………………..4 2.2.2 Criterion 2: Suitability…………………………………………………………………….. 4 2.2.3 Criterion 3: Feasibility……………………………………………………………………. 4 2.2.4 Criterion 4: Management Options………………………………………………………. 4 3 OVERVIEW OF THE STUDY AREA…………………………………………………. 5 3.1 Regional Context………………………………………………………………………………….. 5 3.2 Geography and Climate…………………………………………………………………………… 6 3.3 Land Use and Ownership………………………………………………………………….……… 8 3.4. Maps……………………………………………………………………………………………….. 10 4 STUDY AREA RESOURCES………………………………………..………………. 11 4.1 Geological Resources……………………………………………………………………………. 11 4.2 Vegetation………………………….……………………………………………………...……… 16 4.2.1 Coastal Vegetation……………………………………………………………………… 16 4.2.2 Upper Elevation…………………………………………………………………………. 17 4.3 Terrestrial Wildlife………………..........…………………………………………………………. 19 4.3.1 Birds……………….………………………………………………………………………19 4.3.2 Terrestrial Invertebrates………………………………………………………………... 22 4.4 Marine Resources………………………………………………………………………...……… 23 4.4.1 Large Marine Vertebrates……………………………………………………………… 24 4.4.2 Fishes……………………………………………………………………………………..26 -
The Sanderling on Wilson's Promontory by Roy P
Vol. 3 OCTOBER 31, 1970 No.8 The Sanderling on Wilson's Promontory by Roy P. Cooper*, Melbourne Although overseas books on ornithology have described the Sanderling, Calidris alba, as being "common on almost every ocean beach in the world", this does not apply, from the published records, to Australia. On this continent they are classed as rare species and they appear to return each year to a favourite area, where they may be seen in small flocks varying from five to two hundred birds. The main areas are at Boat Harbour, south of Sydney; several places from Port Phillip to Portland, in western Victoria : Goolwa Beach (200 birds) and at Pondalowie Bay in South Australia; also recorded in Western Australia and in Queensland. In the Australian Bird W ate her, 3:243, some of the observations recorded by the team who is carrying out the Survey of the Birds of Wilson's Promontory, were published, revealing the occurrence of the Sanderling in that area; the first records for eastern Victoria. This distribution is somewhat similar to that of the nesting groups. An Arctic breeder, the Sanderling nests within the Arctic Circle, in the tundra climatic zone. Although this zone extends around the Arctic Ocean, in northern Canada, Greenland, Europe and Asia, and the bird nests "within a mile or two of the coast", it appears to breed in very selected areas, and there are large gaps between the groups. It breeds on some of the Arctic islands of Canada; also along the north-western and north-eastern coasts of Greenland; in Spitsbergen; and in Siberia on Taymyr Peninsula, New Siberian Islands and Liakof Island. -
Ichthyological Studies: Reproduction Study
KSC TR 5 1-2, Vol. Ill, Part 2 July 1980 (HAS A -CH-163122) A CONTINUATION OF N80- 289kO BASE-LINE ST5 DIES FOR ENVIRONMENTALLY HOI(ITOR1 NG SPACE TPANSP3RATION SYSTENS AT JOHN P. KElr'N EDY SPACE CENTER. VOLUUE 3, Unclas PA9T 2: (Uaiversity of Central Florida) G3/U5 28167 NAS.4 Contract Report 1631 22 A Continuation of Base-Line Studies for Environmentally Monitoring Space Transportation Systems at John F. Kennedy Space Center Ichthyological Studies: Sailfin Molly Reproduction Study National Aeronaut~csand Space Admin~stration John F. Kennedy Space Center ,- - .. ~... .. i I 't t\ .. ;! VOLUME 111: PART 2 OF THE FINAL REPORT TO THE NATIONAL AERONAUTICS AND SPACE ADMINISTHATION JOHN F. KENNEDY SPACE CENTER A CONTINUATION OF BASE-L IN€ STUDIES FOR Ei.IV1KONMEhTALLY MONITOR IN SPACE TRANSPORTATION SYSTEMS (STS ) A1 JOHN F. KENNEDY SPACE CENTER CONTFthCT NO. NAS 10-8986 VOLUME 11 I OF IV: PART 2 - ICliTtiYOLOtiICAL STUDIES, Sailfin Molly Reproduction Study PR INCiPAL INVESTIGATOR: F. F. SNELSUN, Jr. UNIVEESITY OF CENTRAL FLORIDA - P. b. BOX 25000 URLANDU, FLOR IDA 32816 BIOMEDICAL OFF ICE BIOSCIENCE OPERATIONS CODE MD-B JOHN F. KENNEDY SPACE CENTER NASA PREFACE This docwent is part of a University of Central Florida contract report, "A Continuation of Base-L ine Studies for Environnental 1y Monitoring Space Trdnsportation Systems at John F. Kennedy Space Center." 1 The entire report consists of four vol unles and an executive sulmllary, a1 1 identified as liSC TR 51-2; NASA CR 163122: Volu~lreI : Terrestrial Comuni ty Anal ysi s Volume 11: