A REVIEW of the ANTING-BEHAVIOUR of PASSERINE BIRDS by K
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Behavior and Attendance Patterns of the Fork-Tailed Storm-Petrel
BEHAVIOR AND ATTENDANCE PATTERNS OF THE FORK-TAILED STORM-PETREL THEODORE R. SIMONS Wildlife Science Group, Collegeof Forest Resources, University of Washington, Seattle, Washington 98195 USA ABSTRACT.--Behavior and attendance patterns of breeding Fork-tailed Storm-Petrels (Ocea- nodromafurcata) were monitored over two nesting seasonson the Barren Islands, Alaska. The asynchrony of egg laying and hatching shown by these birds apparently reflects the influence of severalfactors, including snow conditionson the breedinggrounds, egg neglectduring incubation, and food availability. Communication between breeding birds was characterized by auditory and tactile signals.Two distinct vocalizationswere identified, one of which appearsto be a sex-specific call given by males during pair formation. Generally, both adults were present in the burrow on the night of egg laying, and the male took the first incubation shift. Incubation shiftsranged from 1 to 5 days, with 2- and 3-day shifts being the most common. Growth parameters of the chicks, reproductive success, and breeding chronology varied considerably between years; this pre- sumably relates to a difference in conditions affecting the availability of food. Adults apparently responded to changes in food availability during incubation by altering their attendance patterns. When conditionswere good, incubation shifts were shorter, egg neglectwas reduced, and chicks were brooded longer and were fed more frequently. Adults assistedthe chick in emerging from the shell. Chicks became active late in the nestling stage and began to venture from the burrow severaldays prior to fledging. Adults continuedto visit the chick during that time but may have reducedthe amountof fooddelivered. Chicks exhibiteda distinctprefledging weight loss.Received 18 September1979, accepted26 July 1980. -
Natural History and Breeding Behavior of the Tinamou, Nothoprocta Ornata
THE AUK A QUARTERLY JOURNAL OF ORNITHOLOGY VoL. 72 APRIL, 1955 No. 2 NATURAL HISTORY AND BREEDING BEHAVIOR OF THE TINAMOU, NOTHOPROCTA ORNATA ON the high mountainous plain of southern Peril west of Lake Titicaca live three speciesof the little known family Tinamidae. The three speciesrepresent three different genera and grade in size from the small, quail-sizedNothura darwini found in the farin land and grassy hills about Lake Titicaca between 12,500 and 13,300 feet to the large, pheasant-sized Tinamotis pentlandi in the bleak country between 14,000 and 16,000 feet. Nothoproctaornata, the third species in this area and the one to be discussedin the present report, is in- termediate in size and generally occurs at intermediate elevations. In Peril we have encountered Nothoproctabetween 13,000 and 14,300 feet. It often lives in the same grassy areas as Nothura; indeed, the two speciesmay be flushed simultaneouslyfrom the same spot. This is not true of Nothoproctaand the larger tinamou, Tinamotis, for although at places they occur within a few hundred yards of each other, Nothoproctais usually found in the bunch grassknown locally as ichu (mostly Stipa ichu) or in a mixture of ichu and tola shrubs, whereas Tinamotis usually occurs in the range of a different bunch grass, Festuca orthophylla. The three speciesof tinamous are dis- tinguished by the inhabitants, some of whom refer to Nothura as "codorniz" and to Nothoproctaas "perdiz." Tinamotis is always called "quivia," "quello," "keu," or some similar derivative of its distinctive call. The hilly, almost treeless countryside in which Nothoproctalives in southern Peril is used primarily for grazing sheep, alpacas,llamas, and cattle. -
Phylogeography of Finches and Sparrows
In: Animal Genetics ISBN: 978-1-60741-844-3 Editor: Leopold J. Rechi © 2009 Nova Science Publishers, Inc. Chapter 1 PHYLOGEOGRAPHY OF FINCHES AND SPARROWS Antonio Arnaiz-Villena*, Pablo Gomez-Prieto and Valentin Ruiz-del-Valle Department of Immunology, University Complutense, The Madrid Regional Blood Center, Madrid, Spain. ABSTRACT Fringillidae finches form a subfamily of songbirds (Passeriformes), which are presently distributed around the world. This subfamily includes canaries, goldfinches, greenfinches, rosefinches, and grosbeaks, among others. Molecular phylogenies obtained with mitochondrial DNA sequences show that these groups of finches are put together, but with some polytomies that have apparently evolved or radiated in parallel. The time of appearance on Earth of all studied groups is suggested to start after Middle Miocene Epoch, around 10 million years ago. Greenfinches (genus Carduelis) may have originated at Eurasian desert margins coming from Rhodopechys obsoleta (dessert finch) or an extinct pale plumage ancestor; it later acquired green plumage suitable for the greenfinch ecological niche, i.e.: woods. Multicolored Eurasian goldfinch (Carduelis carduelis) has a genetic extant ancestor, the green-feathered Carduelis citrinella (citril finch); this was thought to be a canary on phonotypical bases, but it is now included within goldfinches by our molecular genetics phylograms. Speciation events between citril finch and Eurasian goldfinch are related with the Mediterranean Messinian salinity crisis (5 million years ago). Linurgus olivaceus (oriole finch) is presently thriving in Equatorial Africa and was included in a separate genus (Linurgus) by itself on phenotypical bases. Our phylograms demonstrate that it is and old canary. Proposed genus Acanthis does not exist. Twite and linnet form a separate radiation from redpolls. -
Relationship of Anting and Sunbathing to Molting in Wild Birds
RELATIONSHIP OF ANTING AND SUNBATHING TO MOLTING IN WILD BIRDS ELOISE F. lPOTTER AND DORIS C. HAUSER • AviAr• anting has generateda large and somewhatcontroversial body of literature, much of it based upon the behavior of captive or experi- mental birds (e.g. Ivor 1943, Whitaker 1957, Weisbrod 1971), birds treat- ing plumagewith substancesother than ants (recently with mothballs in Dubois 1969 and with lemon oil in Johnson 1971), or single oc- currencesfrom widely scatteredgeographical locations. McAtee (1954) advisedthat in searchingfor a reasonabletheory as to why birds ant only recordsfrom wild birds using ants should be examined. The authors agree with McAtee and further believe that data should be considered comparableonly when taken from a limited geographicalregion (e.g. temperateNorth America in Potter 1970). The literatureon antinghas beenreviewed several times (Groskin 1950, Whitaker 1957, Chisholm1959, Simmons1966, Potter 1970). Principal theoriesare (1) that anting birds "derive sensualpleasure from anting, possiblysexual stimulation" (Whitaker 1957); (2) that ant secretions prevent, remove, or otherwise control ectoparasiteinfestation (Groskin 1950, Dubinin in Kelso and Nice 1963, Simmons1966); (3) that ant secretionsmay be helpful in feather maintenanceby increasingflow of salivafor preening,removing stale preen oil and other lipids,or increasing feather wear resistance(Simmons 1966); and (4) that ant secretions sootheskin irritated by the emergenceof new feathers (Southern 1963, Potter 1970). Only four authors have publisheda dozen or more anting recordsinvolving wild birds usingants and takingplace in or near a single location in temperate North America. These are Brackbill (1948) from Maryland, Groskin(1950) from Pennsylvania,Potter (1970) from North Carolina, and Hauser (1973) also from North Carolina. -
Uropygial Gland in Birds
UROPYGIAL GLAND IN BIRDS Prepared by Dr. Subhadeep Sarker Associate Professor, Department of Zoology, Serampore College Occurrence and Location: • The uropygial gland, often referred to as the oil or preen gland, is a bilobed gland and is found at the dorsal base of the tail of most psittacine birds. • The uropygial gland is a median dorsal gland, one per bird, in the synsacro-caudal region. A half moon-shaped row of feather follicles of the upper median and major tail coverts externally outline its position. • The uropygial area is located dorsally over the pygostyle on the midline at the base of the tail. • This gland is most developed in waterfowl but very reduced or even absent in many parrots (e.g. Amazon parrots), ostriches and many pigeons and doves. Anatomy: • The uropygial gland is an epidermal bilobed holocrine gland localized on the uropygium of most birds. • It is composed of two lobes separated by an interlobular septum and covered by an external capsule. • Uropygial secretory tissue is housed within the lobes of the gland (Lobus glandulae uropygialis), which are nearly always two in number. Exceptions occur in Hoopoe (Upupa epops) with three lobes, and owls with one. Duct and cavity systems are also contained within the lobes. • The architectural patterns formed by the secretory tubules, the cavities and ducts, differ markedly among species. The primary cavity can comprise over 90% of lobe volume in the Oilbird (Steatornis caripensis) and some woodpeckers and pigeons. • The gland is covered by a circlet or tuft of down feathers called the uropygial wick in many birds. -
Why Preen Others? Predictors of Allopreening in Parrots and Corvids and Comparisons to 2 Grooming in Great Apes
1 Why preen others? Predictors of allopreening in parrots and corvids and comparisons to 2 grooming in great apes 3 Short running title: Allopreening in parrots and corvids 4 Alejandra Morales Picard1,2, Roger Mundry3,4, Alice M. Auersperg3, Emily R. Boeving5, 5 Palmyre H. Boucherie6,7, Thomas Bugnyar8, Valérie Dufour9, Nathan J. Emery10, Ira G. 6 Federspiel8,11, Gyula K. Gajdon3, Jean-Pascal Guéry12, Matjaž Hegedič8, Lisa Horn8, Eithne 7 Kavanagh1, Megan L. Lambert1,3, Jorg J. M. Massen8,13, Michelle A. Rodrigues14, Martina 8 Schiestl15, Raoul Schwing3, Birgit Szabo8,16, Alex H. Taylor15, Jayden O. van Horik17, Auguste 9 M. P. von Bayern18, Amanda Seed19, Katie E. Slocombe1 10 1Department of Psychology, University of York, UK 11 2Montgomery College, Rockville, Maryland, USA 12 3Messerli Research Institute, University of Veterinary Medicine Vienna, Medical University 13 Vienna, University of Vienna, Vienna, Austria. 14 4Platform Bioinformatics and Biostatistics, University of Veterinary Medicine Vienna, Austria. 15 5Department of Psychology, Florida International University, Miami, FL, USA 16 6Institut Pluridisciplinaire Hubert Curien, University of Strasbourg, 23 rue Becquerel 67087 17 Strasbourg, France 18 7Centre National de la Recherche Scientifique, UMR 7178, 67087 Strasbourg, France 19 8Department of Cognitive Biology, University of Vienna, Vienna, Austria 20 9UMR Physiologie de la Reproduction et des Comportements, INRA-CNRS-Université de Tours 21 -IFCE, 37380 Nouzilly, France 22 10School of Biological & Chemical Sciences, Queen -
Feather Destructive Behaviour
FEATHER DESTRUCTIVE BEHAVIOUR Feather destructive behaviour (FDB) is a common presentation in pet and aviary birds, although it is not usually seen in their wild counterparts. It often has a multi-factorial aetiology, and can be a complex and challenging condition to treat. This article will give an outline of the potential causes of FDB and suggests an approach to its investigation and management in pet parrots. What is FDB? Birds are unique amongst the animal kingdom in possessing feathers. Feathers have a number of functions; providing a means for flight, being involved in thermoregulation, and acting as a means of communication, especially for reproductive purposes. FDB occurs when a bird plucks out or damages its feathers. It may progress from feather picking, where a bird may just chew on its feathers, to a more severe form that involves self-trauma to the skin or underlying structures. Why do birds pick their feathers? The causes of FDB can be divided into two main categories: medical and behavioural. Stress, in some form, is often part of the cause. It is important to investigate and rule out medical causes of FDB before considering a behavioural aetiology. Medical causes of FDB may directly relate to the skin and feathers, or may relate to stressors from a primary disease process elsewhere in the body. Factors such as an inadequate diet, infection (bacterial/viral/fungal/parasitic), access or exposure to toxins or allergens, and internal metabolic or endocrine disease may all result in birds displaying FDB and/or self- mutilating. In some birds mild irritation from over-preening moulting feathers may trigger an itch-chew cycle and progress to FDB. -
Comparative Preening Behavior of Wild-Caught Canada Geese and Mallards.- Comfort Movements Have Been Described for Many Birds (C.F., Goodwin, Br
690 THE WILSON BULLETIN - Vol. 95, No. 4, December 1983 of winter above that in the preceding spring, depending upon over-all productivity, mortality in other habitats and wintering areas, and other factors. It is impossible for a single team of observers to adequately census all habitats in a region within the time limitations required, but studies that do not cover all of the habitats used by the winter species are likely to be misleading on questions of population change during the season. Habitat availability must also be considered in such studies, but data on availability of even gross (vs micro) habitat types are generally lacking. Two patterns that seem clear from this and our previous (1979) study is that notable declines occur over winter in natural habitats in mild as well as in severe winters, and that the steepness of the decline is related especially to the size of the starting population. The observation that bird populations declined through the winter in both mild and severe winters is important to those who census winter birds. The seasonal limits designated for Audubon winter bird studies is 20 December-10 February (Robbins, Studies in Avian Biology 6:52-57, 1981). The results would differ according to the pattern of censusing in that period- early censuses indicating high populations, later censuses lower populations. Fortunately the dates of censuses are usually presented, but the rules of censusing may need to be more precisely delineated, as Robhins (1981) has suggested. Acknowledgments.-We are indebted to Richard E. Warner and Glen C. Sanderson of the Illinois Natural History Survey for helpful suggestions on the original manuscript.-JEAN W. -
The Phylogenetic Relationships and Generic Limits of Finches
Molecular Phylogenetics and Evolution 62 (2012) 581–596 Contents lists available at SciVerse ScienceDirect Molecular Phylogenetics and Evolution journal homepage: www.elsevier.com/locate/ympev The phylogenetic relationships and generic limits of finches (Fringillidae) ⇑ Dario Zuccon a, , Robert Pryˆs-Jones b, Pamela C. Rasmussen c, Per G.P. Ericson d a Molecular Systematics Laboratory, Swedish Museum of Natural History, Box 50007, SE-104 05 Stockholm, Sweden b Bird Group, Department of Zoology, Natural History Museum, Akeman St., Tring, Herts HP23 6AP, UK c Department of Zoology and MSU Museum, Michigan State University, East Lansing, MI 48824, USA d Department of Vertebrate Zoology, Swedish Museum of Natural History, Box 50007, SE-104 05 Stockholm, Sweden article info abstract Article history: Phylogenetic relationships among the true finches (Fringillidae) have been confounded by the recurrence Received 30 June 2011 of similar plumage patterns and use of similar feeding niches. Using a dense taxon sampling and a com- Revised 27 September 2011 bination of nuclear and mitochondrial sequences we reconstructed a well resolved and strongly sup- Accepted 3 October 2011 ported phylogenetic hypothesis for this family. We identified three well supported, subfamily level Available online 17 October 2011 clades: the Holoarctic genus Fringilla (subfamly Fringillinae), the Neotropical Euphonia and Chlorophonia (subfamily Euphoniinae), and the more widespread subfamily Carduelinae for the remaining taxa. Keywords: Although usually separated in a different -
Anting Behavior by the White-Bearded Manakin (Manacus Manacus, Pipridae): an Example of Functional Interaction in a Frugivorous Lekking Bird
Biota Neotrop., vol. 10, no. 4 Anting behavior by the White-bearded Manakin (Manacus manacus, Pipridae): an example of functional interaction in a frugivorous lekking bird César Cestari1,2 1Departamento de Zoologia, Programa de Pós-graduação em Zoologia, Universidade Estadual Paulista “Júlio de Mesquita Filho” – UNESP, Campus de Rio Claro, CEP 13506-900, Rio Claro, SP, Brasil 2Corresponding author: César Cestari, e-mail: [email protected] CESTARI, C. Anting behavior by the White-bearded Manakin (Manacus manacus, Pipridae): an example of functional interaction in a frugivorous lekking bird. Biota Neotrop. 10(4): http://www.biotaneotropica.org. br/v10n4/en/abstract?short-communication+bn02110042010. Abstract: Behavioral studies of birds have reported several functions for active anting. Maintenance of plumage and prevention from ectoparasites are some examples. In this context, anting by males may be of particular importance in a classical lek mating system, where male-male competition is common and individuals with higher fitness may be more successful at attracting of females. In the present note, I describe the anting behavior of White-bearded Manakin (Manacus manacus) and I relate it to lek breeding and feeding (frugivory) habits of the species. Males used up to seven Solenopsis sp. ants. They rubbed each small ant from 4 to 31 times on undertail feathers until the ants were degraded; ants were not eaten. Males then searched for a new ant in the court. Seeds discarded by males on their individual display courts attract herbivorous ants that are used for anting as a way to maintain feathers and fitness. I hypothesize that anting in White-bearded Manakin may increase the probability of males to attract females to their display courts. -
Peter Marler Correspondence D-483
http://oac.cdlib.org/findaid/ark:/13030/c88k7ddv No online items Inventory of the Peter Marler Correspondence D-483 University of California, Davis Library, Dept. of Special Collections 1st Floor, Shields Library, University of California 100 North West Quad Davis, CA 95616-5292 [email protected] URL: https://www.library.ucdavis.edu/archives-and-special-collections Inventory of the Peter Marler D-483 1 Correspondence D-483 Language of Material: English Contributing Institution: University of California, Davis Library, Dept. of Special Collections Title: Peter Marler Correspondence Creator: Marler, Peter. Identifier/Call Number: D-483 Physical Description: 20 linear feet Date (inclusive): 1960-2008 Abstract: Correspondence relating to Professor of Neurobiology, Physiology, and Behavior Peter Marler's research on animal communication and his involvement with professional organizations. Researchers should contact Archives and Special Collections to request collections, as many are stored offsite. Biography Professor of Neurobiology, Physiology, and Behavior, University of California, Davis (1989-1994). Scope and Contents Correspondence relating to Marler's research on animal communication and his involvement with professional organizations. Access Collection is open for research. Processing Information Liz Phillips encoded this finding aid with help from student assistant Aditi Sinha. Preferred Citation [Identification of item], Peter Marler correspondence, D-483, Archives and Special Collections, UC Davis Library, University of California, Davis. Publication Rights All applicable copyrights for the collection are protected under chapter 17 of the U.S. Copyright Code. Requests for permission to publish or quote from manuscripts must be submitted in writing to the Head of Special Collections. Permission for publication is given on behalf of the Regents of the University of California as the owner of the physical items. -
Sequence and Organisation of the Mitochondrial Genome of Japanese Grosbeak (Eophona Personata), and the Phylogenetic Relationships of Fringillidae
ZooKeys 955: 67–80 (2020) A peer-reviewed open-access journal doi: 10.3897/zookeys.955.34432 RESEARCH ARTICLE https://zookeys.pensoft.net Launched to accelerate biodiversity research Sequence and organisation of the mitochondrial genome of Japanese Grosbeak (Eophona personata), and the phylogenetic relationships of Fringillidae Guolei Sun1, Chao Zhao1, Tian Xia1, Qinguo Wei1, Xiufeng Yang1, Shi Feng1, Weilai Sha1, Honghai Zhang1 1 College of Life Science, Qufu Normal University, Qufu, Shandong province, China Corresponding author: Honghai Zhang ([email protected]) Academic editor: G. Sangster | Received 12 March 2019 | Accepted 7 October 2020 | Published 18 November 2020 http://zoobank.org/C3518FBE-06B2-4CAA-AFBF-13EB96B3E1E9 Citation: Sun G, Zhao C, Xia T, Wei Q, Yang X, Feng S, Sha W, Zhang H (2020) Sequence and organisation of the mitochondrial genome of Japanese Grosbeak (Eophona personata), and the phylogenetic relationships of Fringillidae. ZooKeys 955: 67–80. https://doi.org/10.3897/zookeys.955.34432 Abstract Mitochondrial DNA is a useful molecular marker for phylogenetic and evolutionary analysis. In the current study, we determined the complete mitochondrial genome of Eophona personata, the Japanese Grosbeak, and the phylogenetic relationships of E. personata and 16 other species of the family Fringil- lidae based on the sequences of 12 mitochondrial protein-coding genes. The mitochondrial genome of E. personata consists of 16,771 base pairs, and contains 13 protein-coding genes, 22 transfer RNA (tRNA) genes, 2 ribosomal RNA (rRNA) genes, and one control region. Analysis of the base composition revealed an A+T bias, a positive AT skew and a negative GC skew. The mitochondrial gene order and arrangement in E.