Observations of Noisy Pitta Nestlings Through to Fledging
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Animal Spot Animal Spot Uses Intriguing Specimens from Cincinnati Museum Center’S Collections to Teach Children How Each Animal Is Unique to Its Environment
Animal Spot Animal Spot uses intriguing specimens from Cincinnati Museum Center’s collections to teach children how each animal is unique to its environment. Touch a cast of an elephant’s skull, feel a real dinosaur fossil, finish a three-layer fish puzzle, observe live fish and use interactives to explore how animals move, “dress” and eat. Case 1: Modes of Balance and Movement (Case design: horse legs in boots) Animals walk, run, jump, fly, and/or slither to their destination. Animals use many different parts of their bodies to help them move. The animals in this case are: • Blue Jay (Cyanocitta cristata) • Grasshopper (Shistocerca americana) • Locust (Dissosteira carolina) • Broad-wing damselfly (Family: Calopterygidae) • King Rail (Rallus elegans) • Eastern Mole (Scalopus aquaticus) • Brown trout (Salmo trutta) • Gila monster (Heloderma suspectum) • Damselfly (Agriocnemis pygmaea) • Pufferfish (Family: Tetraodontidae) • Bullfrog (Rona catesbrana) • Cicada (Family: Cicadidae) • Moths and Butterflies (Order: Lepidoptera) • Sea slugs (Order: Chepalaspidea) • Koala (Phascolarctos cinereus) • Fox Squirrel (Sciurus niger) • Giant Millipede (Subspecies: Lules) Case 2: Endo/Exoskeleton (Case design: Surrounded by bones) There are many different kinds of skeletons; some inside the body and others outside. The animals with skeletons on the inside have endoskeletons. Those animals that have skeletons on the outside have exoskeletons. Endoskeletons • Hellbender salamander (Genus: Cryptobranchus) • Python (Family: Boidae) • Perch (Genus: Perca) -
Eurylaimides Species Tree
Eurylaimides ⋆Velvet Asity, Philepitta castanea Schlegel’s Asity, Philepitta schlegeli ⋆ Philepittidae Common Sunbird-Asity, Neodrepanis coruscans Yellow-bellied Sunbird-Asity, Neodrepanis hypoxantha ⋆Grauer’s Broadbill, Pseudocalyptomena graueri ⋆Long-tailed Broadbill, Psarisomus dalhousiae ⋆ Eurylaimidae Dusky Broadbill, Corydon sumatranus Visayan Broadbill, Sarcophanops samarensis ⋆Wattled Broadbill, Sarcophanops steerii ⋆Silver-breasted Broadbill, Serilophus lunatus ⋆Black-and-red Broadbill, Cymbirhynchus macrorhynchos ⋆Banded Broadbill, Eurylaimus javanicus Black-and-yellow Broadbill, Eurylaimus ochromalus Gray-headed Broadbill, Smithornis sharpei Rufous-sided Broadbill, Smithornis rufolateralis Smithornithidae ⋆African Broadbill, Smithornis capensis Hose’s Broadbill, Calyptomena hosii ⋆Green Broadbill, Calyptomena viridis Calyptomenidae Whitehead’s Broadbill, Calyptomena whiteheadi ⋆Sapayoa, Sapayoa aenigma:0.1 Sapayoidae Blue-banded Pitta, Erythropitta arquata Garnet Pitta, Erythropitta granatina Graceful Pitta, Erythropitta venusta Black-crowned Pitta, Erythropitta ussheri Erythropitta Whiskered Pitta, Erythropitta kochi Philippine Pitta, Erythropitta erythrogaster Sula Pitta, Erythropitta dohertyi Sulawesi Pitta, Erythropitta celebensis Sangihe Pitta, Erythropitta caeruleitorques Siao Pitta, Erythropitta palliceps South Moluccan Pitta, Erythropitta rubrinucha North Moluccan Pitta, Erythropitta rufiventris Louisiade Pitta, Erythropitta meeki ⋆Papuan Pitta, Erythropitta macklotii Bismarck Pitta, Erythropitta novaehibernicae Pittidae -
The Birds of Babar, Romang, Sermata, Leti and Kisar, Maluku, Indonesia
Colin R. Trainor & Philippe Verbelen 272 Bull. B.O.C. 2013 133(4) New distributional records from forgoten Banda Sea islands: the birds of Babar, Romang, Sermata, Leti and Kisar, Maluku, Indonesia by Colin R. Trainor & Philippe Verbelen Received 5 July 2011; fnal revision accepted 10 September 2013 Summary.—Many of the Banda Sea islands, including Babar, Romang, Sermata and Leti, were last surveyed more than 100 years ago. In October–November 2010, birds were surveyed on Romang (14 days), Sermata (eight days), Leti (fve days) and Kisar (seven days), and on Babar in August 2009 (ten days) and August 2011 (11 days). Limited unpublished observations from Damar, Moa, Masela (of Babar) and Nyata (of Romang) are also included here. A total of 128 bird species was recorded (85 resident landbirds), with 104 new island records, among them fve, 12, 20, four and three additional resident landbirds for Babar, Romang, Sermata, Leti and Kisar, respectively. The high proportion of newly recorded and apparently overlooked resident landbirds on Sermata is puzzling but partly relates to limited historical collecting. Signifcant records include Ruddy-breasted Crake Porzana fusca (Romang), Red-legged Crake Rallina fasciata (Sermata), Bonelli’s Eagle Aquila fasciata renschi (Romang), Elegant Pita Pita elegans vigorsii (Babar, Romang, Sermata), Timor Stubtail Urosphena subulata (Babar, Romang), the frst sound-recordings of Kai Cicadabird Coracina dispar (Babar?, Romang) and endemic subspecies of Southern Boobook Ninox boobook cinnamomina (Babar) and N. b. moae (Romang, Sermata?). The frst ecological notes were collected for Green Oriole Oriolus favocinctus migrator on Romang, the lowland-dwelling Snowy-browed Flycatcher Ficedula hyperythra audacis on Babar, the endemic subspecies of Yellow- throated (Banda) Whistler Pachycephala macrorhyncha par on Romang, and Grey Friarbird Philemon kisserensis on Kisar and Leti. -
Chapter 02 Biogeography and Evolution in the Tropics
Chapter 02 Biogeography and Evolution in the Tropics (a) (b) PLATE 2-1 (a) Coquerel’s Sifaka (Propithecus coquereli), a lemur species common to low-elevation, dry deciduous forests in Madagascar. (b) Ring-tailed lemurs (Lemur catta) are highly social. PowerPoint Tips (Refer to the Microsoft Help feature for specific questions about PowerPoint. Copyright The Princeton University Press. Permission required for reproduction or display. FIGURE 2-1 This map shows the major biogeographic regions of the world. Each is distinct from the others because each has various endemic groups of plants and animals. FIGURE 2-2 Wallace’s Line was originally developed by Alfred Russel Wallace based on the distribution of animal groups. Those typical of tropical Asia occur on the west side of the line; those typical of Australia and New Guinea occur on the east side of the line. FIGURE 2-3 Examples of animals found on either side of Wallace’s Line. West of the line, nearer tropical Asia, one 3 nds species such as (a) proboscis monkey (Nasalis larvatus), (b) 3 ying lizard (Draco sp.), (c) Bornean bristlehead (Pityriasis gymnocephala). East of the line one 3 nds such species as (d) yellow-crested cockatoo (Cacatua sulphurea), (e) various tree kangaroos (Dendrolagus sp.), and (f) spotted cuscus (Spilocuscus maculates). Some of these species are either threatened or endangered. PLATE 2-2 These vertebrate animals are each endemic to the Galápagos Islands, but each traces its ancestry to animals living in South America. (a) and (b) Galápagos tortoise (Geochelone nigra). These two images show (a) a saddle-shelled tortoise and (b) a dome-shelled tortoise. -
Under the Canopy Worksheets
Rainforest WORKSHEET 3 What is the importance of Dorrigo National Park? In the World Heritage symbol what do the circle and the square mean? Research link: http://whc.unesco.org/en/emblem/ Define rainforest by mentioning the canopy. What word describes the type of rainforest seen near the Rainforest Centre in the park? Name three reasons why this rainforest can grow at Dorrigo: 1. 2. 3. 1 Rainforest WORKSHEET 3 (CONTINUED) On the diagram below, label the following: • A buttress • An epiphyte • A mid-layer tree • A vine • The canopy layer • Ground ferns • An emergent tree • A herb Where do the plants living in the rainforest get their nutrients? 2 Rainforest WORKSHEET 3 (CONTINUED) Number the plants from the list of names and describe what strategies they use to No. grow in the dense, shady rainforest. 1. King orchid 2. Vines No. 3. Strangler fig No. 4. Cunjevoi lily 5. Pothos No. No. 3 Rainforest WORKSHEET 3 (CONTINUED) What roles do insects play in the rainforest? For each of the birds below, what layer of the forest do they live in and what food do they eat? Brush turkey noisy pitta topknot pigeon Name these animals which might be found in the rainforest. Which animal should not be there and why? 4 Rainforest WORKSHEET 3 (CONTINUED) How did Aboriginal people use rainforest? Describe in your own words how rainforest on Dorrigo Plateau was reduced to what now survives along the escarpment. What are some of the ways NSW National Parks and Wildlife Service tries to protect rainforest from visitor impacts? What other actions can be taken to conserve rainforest? 5. -
Juina Et Al 814.Fm
SHORT COMMUNICATIONS ORNITOLOGIA NEOTROPICAL 20: 305–310, 2009 © The Neotropical Ornithological Society DESCRIPTION OF THE NEST AND PARENTAL CARE OF THE CHESTNUT-NAPED ANTPITTA (GRALLARIA NUCHALIS) FROM SOUTHERN ECUADOR Mery E. Juiña J.1, J. Berton C. Harris1,2, & Harold F. Greeney3 1Fundación de Conservación Jocotoco, Ave. Los Shyris N37–146 y El Comercio, Quito, Ecuador. 2Environment Institute, University of Adelaide, Adelaide, SA 5005, Australia. E-mail: [email protected] 3Yanayacu Biological Station and Center for Creative Studies c/o Foch 721 y Amazonas, Quito, Ecuador. Descripción del nido y cuidado parental de la Gralaria Nuquicastaña (Grallaria nuchalis) del sur del Ecuador. Key words: Nest, nestling, Chestnut-naped Antpitta, Grallaria nuchalis, Ecuador, bamboo, Andes. The Chestnut-naped Antpitta (Grallaria nucha- Colombia (ssp. ruficeps), but provides no infor- lis; Fig. 1) is among the largest of the ground- mation on the nest. Here we provide the first antbirds (Grallariidae sensu Remsen et al. description of the nest, nest location, and 2008). Locally fairly common, it is frequently parental care of G. n. nuchalis from southeast- associated with stands of Chusquea sp. bam- ern Ecuador. boo in montane forest on both slopes of the Andes from southern Colombia to northern Chronology and study area. On 11 November Peru (Ridgely & Tudor 1994, Krabbe & Schu- 2006, MEJJ located a Chestnut-naped Ant- lenberg 2003). In Ecuador, nominate ssp. pitta nest with two young nestlings at 2500 m nuchalis is found on the east slope of the a.s.l. in the Tapichalaca Biological Reserve Andes mostly from 2000–3000 m a.s.l., while (4°29’S, 79°07’W) in Zamora-Chinchipe ssp. -
5Th Grade Life Science: Ecosystems Unit
5th Grade Life Science: Ecosystems Unit Developed for Chapel Hill Carrboro City Schools Northside Elementary School Outdoor Wonder & Learning (OWL) Initiative Unless otherwise noted, activities written by: Lauren Greene, Sarah Yelton, Dana Haine, & Toni Stadelman Center for Public Engagement with Science UNC Institute for the Environment In collaboration with 5th grade teachers at Northside Elementary School: Michelle Gay, Daila Patrick, & Elizabeth Symons ACKNOWLEDGEMENTS Many thanks to Dan Schnitzer, Coretta Sharpless, Kirtisha Jones and the many wonderful teachers and support staff at Northside Elementary for their participation in and support of the Northside OWL Initiative. Thanks also to Shelby Brown for her invaluable assistance compiling, editing, and proofreading the curriculum. Instructional materials and supplies to promote STEM-based outdoor learning were instrumental to the successful implementation of this curriculum. The purchase of these materials was made possible with funding provided by the Duke Energy Foundation to Chapel Hill-Carrboro City Schools. Curriculum developed June 2018 – July 2019 For more information, contact: Sarah Yelton, Environmental Education & Citizen Science Program Manager UNC Institute for the Environment Center for Public Engagement with Science [email protected] 5th Grade Ecosystems Unit Northside Outdoor Wonder & Learning Initiative Overarching Unit Question How and why do organisms (including humans) interact with their environment, and what are the effects of these interactions? Essential Questions Arc 1: How can I describe and compare different ecosystems? Arc 2: How is energy transferred through an ecosystem? How can I explain the interconnected relationships between organisms and their environments? Transfer Goals o Use scientific thinking to understand the relationships and complexities of the world around them. -
Breeding Biology During the Nestling Period at a Black-Crowned Pitta
Eric R. Gulson-Castillo et al. 173 Bull. B.O.C. 2017 137(3) Breeding biology during the nestling period at a Black-crowned Pita Erythropita ussheri nest by Eric R. Gulson-Castillo, R. Andrew Dreelin, Facundo Fernandez-Duque, Emma I. Greig, Justin M. Hite, Sophia C. Orzechowski, Lauren K. Smith, Rachel T. Wallace & David W. Winkler Received 30 March 2017; revised 3 July 2017; published 15 September 2017 htp://zoobank.org/urn:lsid:zoobank.org:pub:8F5C236B-0C84-402A-8F73-A56090F59F56 Summary.—The natural history of most Pitidae is understudied, but the breeding biology of the genus Erythropita, a recently recognised grouping of red-bellied pitas, is especially poorly known. We monitored and video-recorded a Black- crowned Pita E. ussheri nest in Sabah, Malaysian Borneo, during the nestling period and found that the male had a higher visitation rate and the female was the sole adult that brooded. We clarify this species’ nestling development and describe two vocalisations: (1) the frst instance of a fedgling-specifc song in Pitidae and (2) a soft grunt-like sound given by adults arriving at the nest early in the nestling period. We analysed the structure of each visit, fnding that the longest segment of most parental visits was the period between food delivery and parental departure. We hypothesise that adults linger to await the production of faecal sacs and aid nestlings to process food. The pitas (Pitidae) are a colourful group of Old World understorey birds that were recently split into three genera: Pita, Hydrornis and Erythropita (Irestedt et al. 2006). -
Population, Distribution, Habitat Use and Breeding of Gurney's Pitta Pitta
Bird Conservation International (2009) 19:353–366. ª BirdLife International, 2009 doi:10.1017/S0959270909008612 Population, distribution, habitat use and breeding of Gurney’s Pitta Pitta gurneyi in Myanmar and Thailand PAUL F. DONALD, SIRIRAK ARATRAKORN, THURA WIN HTUN, JONATHAN C. EAMES, HTIN HLA, SOMYING THUNHIKORN, KRIANGSAK SRIBUA-ROD, PINYO TINUN, SEIN MYO AUNG, SA MYO ZAW and GRAEME M. BUCHANAN Summary Gurney’s Pitta Pitta gurneyi was not seen in the wild for over 30 years before its rediscovery in a small area in southern Thailand in 1986.In2003, it was found over a much larger area in southern Myanmar (Burma) after an even longer absence of records. This paper reports the results of recent research on both populations. In Myanmar, birds were found in a high proportion of visited sites, including sites up to 40 km further north than any previous records in the country. Occupied forest sites had a higher density of seedlings, saplings, bamboo and rattan than unoccupied forest sites, suggesting a preference for regenerating forest. There was no evidence of a decline in the species’s likelihood of occurrence up to at least the highest visited altitude of 230 m. 2 Maximum entropy models suggested a potential range size of between 3,200 and 5,800 km and the predicted range extended just over the border into Thailand, suggesting that birds might persist there. Population estimates for southern Myanmar ranged from 9,300 to 35,000 territories, with a mid-point estimate of 20,000 territories, based upon range sizes modelled from different parameters and a range of territory densities estimated from Thailand. -
On the Origin and Evolution of Nest Building by Passerine Birds’
T H E C 0 N D 0 R r : : ,‘ “; i‘ . .. \ :i A JOURNAL OF AVIAN BIOLOGY ,I : Volume 99 Number 2 ’ I _ pg$$ij ,- The Condor 99~253-270 D The Cooper Ornithological Society 1997 ON THE ORIGIN AND EVOLUTION OF NEST BUILDING BY PASSERINE BIRDS’ NICHOLAS E. COLLIAS Departmentof Biology, Universityof California, Los Angeles, CA 90024-1606 Abstract. The object of this review is to relate nest-buildingbehavior to the origin and early evolution of passerinebirds (Order Passeriformes).I present evidence for the hypoth- esis that the combinationof small body size and the ability to place a constructednest where the bird chooses,helped make possiblea vast amountof adaptiveradiation. A great diversity of potential habitats especially accessibleto small birds was created in the late Tertiary by global climatic changes and by the continuing great evolutionary expansion of flowering plants and insects.Cavity or hole nests(in ground or tree), open-cupnests (outside of holes), and domed nests (with a constructedroof) were all present very early in evolution of the Passeriformes,as indicated by the presenceof all three of these basic nest types among the most primitive families of living passerinebirds. Secondary specializationsof these basic nest types are illustratedin the largest and most successfulfamilies of suboscinebirds. Nest site and nest form and structureoften help characterizethe genus, as is exemplified in the suboscinesby the ovenbirds(Furnariidae), a large family that builds among the most diverse nests of any family of birds. The domed nest is much more common among passerinesthan in non-passerines,and it is especially frequent among the very smallestpasserine birds the world over. -
January 2020
New Issue: January 2020 By Emma Muench, 10th December 2019 Our January 2020 issue shines a spotlight on bird conservation! The special section, Editorial and Briefly all focus on a range of threatened avifauna and the conservation issues they face. All contents in the January issue are freely available throughout 2020. Bird Conservation Is Gurney’s pitta Hydrornis gurneyi on the brink of extinction? – Shwe et al.– See Fauna & Flora International’s news piece here Recent changes in the number of spoon-billed sandpipers Calidris pygmaea wintering on the Upper Gulf of Mottama in Myanmar – Aung et al. Modelling occurrence probability of the Endangered green peafowl Pavo muticus in mainland South-east Asia: applications for landscape conservation and management – Sukumal et al. The sarolga: conservation implications of genetic and visual evidence for hybridization between the brolga Antigone rubicunda and the Australian sarus crane Antigone antigone gillae – Nevard et al. – Read our blog here Using climate change models to inform the recovery of the western ground parrot Pezoporus flaviventris – Molloy et al. Developing biodiversity indicators for African birds – Wotton et al. Low abundance of the Endangered timneh parrot Psittacus timneh in one of its presumed strongholds – Valle et al. Illegal trade of the Psittacidae in Venezuela – Sánchez-Mercado et al. Predator visits to acclimatization pens: implications for the soft-release of gallinaceous birds – Keiter & Ruzicka Behind the cover The remaining large patches of lowland forest in Tanintharyi, southern Myanmar, are the last global stronghold for the Endangered Gurney’s pitta. Except for a few individuals, the remaining population is now restricted to this forest. -
Notes on the Diet of the Noisy Pitta Pitta Versicolor in New South Wales
AUS'IRALIAN 42 BIRD WATCHER Notes on the Diet of the Noisy Pitta Pitta versicolor in New South Wales The diet of the Noisy Pitta Pitta versicolor consists of ground-dwelling invertebrates caught in damp places. Such prey includes insects, slaters, worms, and maggots taken from carrion; large forest snails, whose shells it breaks on anvils, are particularly favoured. It also takes berries and small fruits (Trudgeon 1971, Blakers et al. 1984, Schodde & Tidemann 1986, Strahan 1994). Species identified as prey include snails such as Helix, Hedleyella and Sphaerospira, centipedes, diplurans (Diplura, J apygidae ), beetles, grasshoppers, flies, ants, caterpillars and spiders (Barker & Vestjens 1990, Taylor & Taylor 1995, Totterman 1998). The diet of the similar Rainbow PittaP. iris includes skinks and the larvae of wood-boring beetles (Barker & Vestjens 1990). This note presents additional dietary data for the Noisy Pitta in New South Wales, from collections of snail shells at anvils at two sites, and the examination of the stomach contents of three dead specimens. The stomach contents were examined, microscopically if necessary, and identified by comparison with reference material. Snail shells were identified by the Malacology Department of the Australian Museum. 1 . St Ives, north of Sydney (33°42'S, 151°ll'E), 8 April1976 (p:r ABR): caught by a dog in a backyard that adjoined a wet sclerophyll gufly in Ku-ring-ga1 Chase National Park, and kept alive for three days before it died. Stomach empty, although fed earthworms while in care. Intestine contained the remains of earthworms (presumably reflecting the bird's diet while in captivity), spider (Araneae) and beetle (Coleoptera).