Eurasian Woodcock Scolopax Rusticola
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The First Record of Far Eastern Curlew (Numenius Madagascariensis) in British Columbia
The First Record of Far Eastern Curlew (Numenius madagascariensis) in British Columbia. By Rick Toochin and Don Cecile. Submitted: April 15, 2018. Introduction and Distribution The Far Eastern Curlew (Numenius madagascariensis) is the largest migratory shorebird in the world. This species is found only along the East Asian–Australasian Flyway. The Far Eastern Curlew breeds on open mossy or transitional bogs, moss-lichen bogs and wet meadows, and on the swampy shores of small lakes in Siberia and Kamchatka in Russia, as well as in north-eastern Mongolia and China (Hayman et al. 1986, del Hoyo et al. 1996). The Yellow Sea of the Republic of Korea and China is a vitally important stopover site on migration. This species is also a common passage migrant in Japan and Indonesia, and is occasionally recorded moving through Thailand, Brunei, Bangladesh, Vietnam, Philippines, Malaysia and Singapore (O’Brien et al. 2006). During the winter a few birds occur in southern Republic of Korea, Japan, China, and Taiwan (Brazil 2009, EAAFP 2017). About 25% of the population is thought to winter in the Philippines, Indonesia and Papua New Guinea. Most birds, approximately 73% or 28,000 individuals, spend the winter in Australia, where birds are found primarily on the coast of all states, particularly the north, east and south-east regions including Tasmania (Bamford et al. 2008, BirdLife 2016). In the early 2000’s, the global population of the Far Eastern Curlew was estimated at 38,000 individuals (BirdLife 2016). Unfortunately due to the fact that the global population is declining, the true population size is likely to be much smaller, and may not exceed 20,000 individuals (BirdLife 2016). -
Population Analysis and Community Workshop for Far Eastern Curlew Conservation Action in Pantai Cemara, Desa Sungai Cemara – Jambi
POPULATION ANALYSIS AND COMMUNITY WORKSHOP FOR FAR EASTERN CURLEW CONSERVATION ACTION IN PANTAI CEMARA, DESA SUNGAI CEMARA – JAMBI Final Report Small Grant Fund of the EAAFP Far Eastern Curlew Task Force Iwan Febrianto, Cipto Dwi Handono & Ragil S. Rihadini Jambi, Indonesia 2019 The aim of this project are to Identify the condition of Far Eastern Curlew Population and the remaining potential sites for Far Eastern Curlew stopover in Sumatera, Indonesia and protect the remaining stopover sites for Far Eastern Curlew by educating the government, local people and community around the sites as the effort of reducing the threat of habitat degradation, habitat loss and human disturbance at stopover area. INTRODUCTION The Far Eastern Curlew (Numenius madagascariencis) is the largest shorebird in the world and is endemic to East Asian – Australian Flyway. It is one of the Endangered migratory shorebird with estimated global population at 38.000 individual, although a more recent update now estimates the population at 32.000 (Wetland International, 2015 in BirdLife International, 2017). An analysis of monitoring data collected from around Australia and New Zealand (Studds et al. in prep. In BirdLife International, 2017) suggests that the species has declined much more rapidly than was previously thought; with an annual rate of decline of 0.058 equating to a loss of 81.7% over three generations. Habitat loss occuring as a result of development is the most significant threat currently affecting migratory shorebird along the EAAF (Melville et al. 2016 in EAAFP 2017). Loss of habitat at critical stopover sites in the Yellow Sea is suspected to be the key threat to this species and given that it is restricted to East Asian - Australasian Flyway, the declines in the non-breeding are to be representative of the global population. -
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. -
Changes in the Arctic: Background and Issues for Congress
Changes in the Arctic: Background and Issues for Congress Updated May 22, 2020 Congressional Research Service https://crsreports.congress.gov R41153 Changes in the Arctic: Background and Issues for Congress Summary The diminishment of Arctic sea ice has led to increased human activities in the Arctic, and has heightened interest in, and concerns about, the region’s future. The United States, by virtue of Alaska, is an Arctic country and has substantial interests in the region. The seven other Arctic states are Canada, Iceland, Norway, Sweden, Finland, Denmark (by virtue of Greenland), and Russia. The Arctic Research and Policy Act (ARPA) of 1984 (Title I of P.L. 98-373 of July 31, 1984) “provide[s] for a comprehensive national policy dealing with national research needs and objectives in the Arctic.” The National Science Foundation (NSF) is the lead federal agency for implementing Arctic research policy. Key U.S. policy documents relating to the Arctic include National Security Presidential Directive 66/Homeland Security Presidential Directive 25 (NSPD 66/HSPD 25) of January 9, 2009; the National Strategy for the Arctic Region of May 10, 2013; the January 30, 2014, implementation plan for the 2013 national strategy; and Executive Order 13689 of January 21, 2015, on enhancing coordination of national efforts in the Arctic. The office of the U.S. Special Representative for the Arctic has been vacant since January 20, 2017. The Arctic Council, created in 1996, is the leading international forum for addressing issues relating to the Arctic. The United Nations Convention on the Law of the Sea (UNCLOS) sets forth a comprehensive regime of law and order in the world’s oceans, including the Arctic Ocean. -
Ohio Birding Checklist with Difficulty Codes Daily/Year/Life
Ohio Birding Checklist with ____ Common Merganser 2 ____ Belted Kingfisher 1 ____ Louisiana Waterthrush 2 ____ Red-breasted Merganser 1 ____ Red-headed Woodpecker 2 ____ Northern Waterthrush 2 Difficulty Codes ____ Ruddy Duck 1 ____ Red-bellied Woodpecker 1 ____ Blue-winged Warbler 1 ____ Wild Turkey 2 ____ Yellow-bellied Sapsucker 2 ____ Black-and-white Warbler 1 Daily/Year/Life ________________ ____ Pied-billed Grebe 1 ____ Downy Woodpecker 1 ____ Prothonotary Warbler 2 ____ Horned Grebe 1 ____ Hairy Woodpecker 1 ____ Tennessee Warbler 2 This checklist is arranged in three sections, each ____ Rock Pigeon 1 ____ Northern Flicker 1 ____ Nashville Warbler 1 corresponding to a pair of difficulty codes. The ____ Mourning Dove 1 ____ Pileated Woodpecker 1 ____ Kentucky Warbler 2 six codes/descriptions are based primarily on the ____ Yellow-billed Cuckoo 2 ____ American Kestrel 1 ____ Common Yellowthroat 1 collective experience of Greg Miller and Dan ____ Common Nighthawk 2 ____ Eastern Wood-Pewee 2 ____ Hooded Warbler 1 Sanders. Overall abundance and ease of ____ Chimney Swift 1 ____ Acadian Flycatcher 2 ____ American Redstart 1 identification have been factored into each of the ____ Ruby-throated Hummingbird 1 ____ Willow Flycatcher 2 ____ Cape May Warbler 2 six codes and are as follows: ____ Virginia Rail 2 ____ Least Flycatcher 1 ____ Cerulean Warbler 2 ____ Sora 1 ____ Eastern Phoebe 1 ____ Northern Parula 2 Easier to See Birds ____ Common Gallinule 2 ____ Great Crested Flycatcher 1 ____ Magnolia Warbler 1 1. Readily found within expected habitat ____ American Coot 1 ____ Eastern Kingbird 1 ____ Bay-breasted Warbler 2 during at least one season of the year. -
Red and Fallow Deer Determine the Density of Ixodes Ricinus Nymphs Containing Anaplasma Phagocytophilum
Red and Fallow Deer Determine the Density of Ixodes Ricinus Nymphs Containing Anaplasma Phagocytophilum Katsuhisa Takumi ( [email protected] ) Centre for Zoonoses and Environmental Microbiology Centre for Infectious Disease Control National Institute for Public Health and the Environment (RIVM) Bilthoven The Netherlands Tim Hofmeester Swedish University of Agricultural Sciences Faculty of Natural Resources and Agricultural Sciences Hein Sprong Centre for Zoonoses and Environmental Microbiology Centre for Infectious Disease Control National Institute for Public Health and the Environment (RIVM) Bilthoven The Netherlands Research Keywords: Ixodes ricinus nymphs, Anaplasma phagocytophilum, phagocytophilum, anaplasmosis Posted Date: October 26th, 2020 DOI: https://doi.org/10.21203/rs.3.rs-96286/v1 License: This work is licensed under a Creative Commons Attribution 4.0 International License. Read Full License Version of Record: A version of this preprint was published on January 19th, 2021. See the published version at https://doi.org/10.1186/s13071-020-04567-4. 1 Red and fallow deer determine the density of Ixodes ricinus 2 nymphs containing Anaplasma phagocytophilum 1, 2 1 3 Katsuhisa Takumi ✉, Tim R. Hofmeester , and Hein Sprong 4 1 Centre for Zoonoses and Environmental Microbiology Centre for Infectious Disease Control 5 National Institute for Public Health and the Environment (RIVM) Bilthoven The Netherlands 6 2 Department of Wildlife Fish and Environmental Studies Swedish University of Agricultural 7 Sciences Skogsmarksgränd 7 907 36 Umeå Sweden 8 ✉ Correspondence: Katsuhisa Takumi <[email protected]> 9 1 10 Abstract 11 Background: The density of Ixodes ricinus nymphs infected with Anaplasma phagocytophilum 12 is one of the parameters that determines the risk for humans and domesticated animals to 13 contract anaplasmosis. -
Growth and Development of Long-Billed Curlew Chicks
April 1973] General Notes 435 Pitelka and Donald L. Beaver critically read the manuscript. This work was con- ducted under the I.B.P. Analysis of Ecosystems-TundraProgram and supported by a grant to F. A. Pitelka from the National ScienceFoundation.--THo•rAs W. CUSTrR, Department o! Zoology and Museum o! Vertebrate Zoology, University o! California, Berkeley,California 94720. Accepted9 May 72. Growth and development of Long-billed Curlew chicks.--Compared with the altricial nestlings of passerinesand the semiprecocialyoung of gulls, few studies of the growth and developmentof the precocialchicks of the Charadrii have been made (Pettingill, 1970: 378). In Europe, yon Frisch (1958, 1959) describedthe develop- ment of behavior in 14 plovers and sandpipers. Davis (1943) and Nice (1962) have reported on the growth of Killdeer (Charadriusvociferus), Nice (1962) on the Spotted Sandpiper (Actiris macularia), and Webster (1942) on the growth and development of plumages in the Black Oystercatcher (Haematopus bachmani). Pettingill (1936) studiedthe atypical AmericanWoodcock (Philohelaminor). Among the curlews, Genus Numenius, only the Eurasian Curlew (N. arquata) has been studied (von Frisch, 1956). Becauseof the scant knowledgeabout the development of the youngin the Charadriiand the scarcityof informationon all aspectsof the breeding biology of the Long-billed Curlew (N. americanus) (Palmer, 1967), I believe that the following data on the growth and development of Long-billed Curlew chicks are relevant. I took four eggs,one being pipped, from a nest 10 miles west of Brigham City, Box Elder County, Utah, on 24 May 1966. One egg was preservedimmediately for additional study, the others I placed in a 4' X 3' X 2' cardboard box with a 60-watt lamp for warmth in a vacant room in my home until they hatched. -
List of Shorebird Profiles
List of Shorebird Profiles Pacific Central Atlantic Species Page Flyway Flyway Flyway American Oystercatcher (Haematopus palliatus) •513 American Avocet (Recurvirostra americana) •••499 Black-bellied Plover (Pluvialis squatarola) •488 Black-necked Stilt (Himantopus mexicanus) •••501 Black Oystercatcher (Haematopus bachmani)•490 Buff-breasted Sandpiper (Tryngites subruficollis) •511 Dowitcher (Limnodromus spp.)•••485 Dunlin (Calidris alpina)•••483 Hudsonian Godwit (Limosa haemestica)••475 Killdeer (Charadrius vociferus)•••492 Long-billed Curlew (Numenius americanus) ••503 Marbled Godwit (Limosa fedoa)••505 Pacific Golden-Plover (Pluvialis fulva) •497 Red Knot (Calidris canutus rufa)••473 Ruddy Turnstone (Arenaria interpres)•••479 Sanderling (Calidris alba)•••477 Snowy Plover (Charadrius alexandrinus)••494 Spotted Sandpiper (Actitis macularia)•••507 Upland Sandpiper (Bartramia longicauda)•509 Western Sandpiper (Calidris mauri) •••481 Wilson’s Phalarope (Phalaropus tricolor) ••515 All illustrations in these profiles are copyrighted © George C. West, and used with permission. To view his work go to http://www.birchwoodstudio.com. S H O R E B I R D S M 472 I Explore the World with Shorebirds! S A T R ER G S RO CHOOLS P Red Knot (Calidris canutus) Description The Red Knot is a chunky, medium sized shorebird that measures about 10 inches from bill to tail. When in its breeding plumage, the edges of its head and the underside of its neck and belly are orangish. The bird’s upper body is streaked a dark brown. It has a brownish gray tail and yellow green legs and feet. In the winter, the Red Knot carries a plain, grayish plumage that has very few distinctive features. Call Its call is a low, two-note whistle that sometimes includes a churring “knot” sound that is what inspired its name. -
Long-Billed Curlew ASSESSING HABITAT QUALITY for PRIORITY WILDLIFE SPECIES in COLORADO WETLANDS
COLORADO PARKS & WILDLIFE Long-billed Curlew ASSESSING HABITAT QUALITY FOR PRIORITY WILDLIFE SPECIES IN COLORADO WETLANDS Species Distribution Range Long-billed curlews breed in the western United States, including eastern Colorado, and in southwestern Canada. During migration, long-billed curlews occur sporadically in western Colorado and regularly throughout eastern Colorado. © “MIKE” MICHAEL L. BAIRD BAIRD L. MICHAEL “MIKE” © Long-billed curlews (Numenius americanus, Family Scolopacidae) have a distinctive long bill that curves downward. They are can be found near playas and ponds in eastern Colorado. insects, particularly grasshoppers. Species Description They also eat some vertebrate species, Identification including fish, amphibians, and bird The long-billed curlew, at 20–26 inches eggs/nestlings. Breeding in length, is the largest shorebird in Winter North America. Their primitive- Conservation Status sounding curlee vocalizations are Populations of long-billed curlews considered a harbinger of spring. Their have experienced overall declines in down-curved, sickle-shaped bill is the many areas, especially throughout the largest among shorebirds and inspired eastern United States, due primarily to their genus name, Numenius, derived habitat loss and historic over-hunting. from the Greek word, noumenios, In Colorado, long-billed curlews are meaning of the new crescent moon. listed as a Tier 2 Species of Great- est Conservation Need (CPW 2015). Preferred Habitats The Breeding Bird Survey indicates a Long-billed curlews are considered a significant population decline in Colo- grassland species, but they are rarely rado, and the Colorado Breeding Bird observed far from water. In Colorado, Atlas indicates a decrease in distribu- they are usually associated with ponds, tion. -
Review of the Conflict Between Migratory Birds and Electricity Power Grids in the African-Eurasian Region
CMS CONVENTION ON Distribution: General MIGRATORY UNEP/CMS/Inf.10.38/ Rev.1 SPECIES 11 November 2011 Original: English TENTH MEETING OF THE CONFERENCE OF THE PARTIES Bergen, 20-25 November 2011 Agenda Item 19 REVIEW OF THE CONFLICT BETWEEN MIGRATORY BIRDS AND ELECTRICITY POWER GRIDS IN THE AFRICAN-EURASIAN REGION (Prepared by Bureau Waardenburg for AEWA and CMS) Pursuant to the recommendation of the 37 th Meeting of the Standing Committee, the AEWA and CMS Secretariats commissioned Bureau Waardenburg to undertake a review of the conflict between migratory birds and electricity power grids in the African-Eurasian region, as well as of available mitigation measures and their effectiveness. Their report is presented in this information document and an executive summary is also provided as document UNEP/CMS/Conf.10.29. A Resolution on power lines and migratory birds is also tabled for COP as UNEP/CMS/Resolution10.11. For reasons of economy, documents are printed in a limited number, and will not be distributed at the meeting. Delegates are kindly requested to bring their copy to the meeting and not to request additional copies. The Agreement on the Conservation of African-Eurasian Migratory Waterbirds (AEWA) and the Convention on the Conservation of Migratory Species of Wild Animals (CMS) REVIEW OF THE CONFLICT BETWEEN MIGRATORY BIRDS AND ELECTRICITY POWER GRIDS IN THE AFRICAN-EURASIAN REGION Funded by AEWA’s cooperation-partner, RWE RR NSG, which has developed the method for fitting bird protection markings to overhead lines by helicopter. Produced by Bureau Waardenburg Boere Conservation Consultancy STRIX Ambiente e Inovação Endangered Wildlife Trust – Wildlife & Energy Program Compiled by: Hein Prinsen 1, Gerard Boere 2, Nadine Píres 3 & Jon Smallie 4. -
Effect of Weather Conditions on the Spring Migration of Eurasian Woodcock and Consequences for Breeding
Ibis (2018) doi: 10.1111/ibi.12657 Effect of weather conditions on the spring migration of Eurasian Woodcock and consequences for breeding KEVIN LE REST,1* ANDREW HOODLESS,2 CHRISTOPHER HEWARD,2 JEAN-LOUIS CAZENAVE3 & YVES FERRAND1 1Office National de la Chasse et de la Faune Sauvage, 8 boulevard Albert Einstein, Nantes, 44300, France 2Game & Wildlife Conservation Trust, Burgate Manor, Fordingbridge, Hampshire SP6 1EF, UK 3Club National des Becassiers, 105 rue Louis Pergaud, Villeneuve, Champniers, 16430, France Migration is a critical period of time with fitness consequences for birds. The develop- ment of tracking technologies now allows researchers to examine how different aspects of bird migration affect population dynamics. Weather conditions experienced during migration are expected to influence movements and, subsequently, the timing of arrival and the energetic costs involved. We analysed satellite-tracking data from 68 Eurasian Woodcock Scolopax rusticola fitted with Argos satellite tags in the British Isles and France (2012–17). First, we evaluated the effect of weather conditions (temperature, humidity, wind speed and direction, atmospheric stability and visibility) on migration movements of individuals. Then we investigated the consequences for breeding success (age ratio) and brood precocity (early-brood ratio) population-level indices while accounting for cli- matic variables on the breeding grounds. Air temperature, wind and relative humidity were the main variables related to migration movements, with high temperatures and northward winds greatly increasing the probability of onward flights, whereas a trend towards greater humidity over 4 days decreased the probability of movement. Breeding success was mostly affected by climatic variables on the breeding grounds. The propor- tion of juveniles in autumn was negatively correlated with temperature in May, but posi- tively correlated with precipitation in June and July. -
Migration Timing, Routes, and Connectivity of Eurasian Woodcock Wintering in Britain and Ireland
Migration Timing, Routes, and Connectivity of Eurasian Woodcock Wintering in Britain and Ireland ANDREW N. HOODLESS,1 Game & Wildlife Conservation Trust, Burgate Manor, Fordingbridge, Hampshire SP6 1EF, UK CHRISTOPHER J. HEWARD, Game & Wildlife Conservation Trust, Burgate Manor, Fordingbridge, Hampshire SP6 1EF, UK ABSTRACT Migration represents a critical time in the annual cycle of Eurasian woodcock (Scolopax rusticola), with poten- tial consequences for individual fitness and survival. In October–December, Eurasian woodcock migrate from breeding grounds in northern Eurasia over thousands of kilometres to western Europe, returning in March–May. The species is widely hunted in Europe, with 2.3–3.5 million individuals shot per year; hence, an understanding of the timing of migra- tion and routes taken is an essential part of developing sustainable flyway management. Our aims were to determine the timing and migration routes of Eurasian woodcock wintering in Britain and Ireland, and to assess the degree of connec- tivity between breeding and wintering sites. We present data from 52 Eurasian woodcock fitted with satellite tags in late winter 2012–2016, which indicate that the timing of spring departure varied annually and was positively correlated with temperature, with a mean departure date of 26 March (± 1.4 days SE). Spring migration distances averaged 2,851 ± 165 km (SE), with individuals typically making 5 stopovers. The majority of our sample of tagged Eurasian woodcock migrated to breeding sites in northwestern Russia (54%), with smaller proportions breeding in Denmark, Scandinavia, and Finland (29%); Poland, Latvia, and Belarus (9.5%); and central Russia (7.5%). The accumulated migration routes of tagged individ- uals suggest a main flyway for Eurasian woodcock wintering in Britain and Ireland through Belgium, the Netherlands, and Germany, and then dividing to pass through the countries immediately north and south of the Baltic Sea.