Academic literature on the topic 'Passeriformes – Migration'

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Journal articles on the topic "Passeriformes – Migration"

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La Sorte, Frank A., Wesley M. Hochachka, Andrew Farnsworth, et al. "Seasonal changes in the altitudinal distribution of nocturnally migrating birds during autumn migration." Royal Society Open Science 2, no. 12 (2015): 150347. http://dx.doi.org/10.1098/rsos.150347.

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Wind plays a significant role in the flight altitudes selected by nocturnally migrating birds. At mid-latitudes in the Northern Hemisphere, atmospheric conditions are dictated by the polar-front jet stream, whose amplitude increases in the autumn. One consequence for migratory birds is that the region’s prevailing westerly winds become progressively stronger at higher migration altitudes. We expect this seasonality in wind speed to result in migrants occupying progressively lower flight altitudes, which we test using density estimates of nocturnal migrants at 100 m altitudinal intervals from 12 weather surveillance radar stations located in the northeastern USA. Contrary to our expectations, median migration altitudes deviated little across the season, and the variance was lower during the middle of the season and higher during the beginning and especially the end of the season. Early-season migrants included small- to intermediate-sized long-distance migrants in the orders Charadriiformes and Passeriformes, and late-season migrants included large-bodied and intermediate-distance migrants in the order Anseriformes. Therefore, seasonality in the composition of migratory species, and related variation in migration strategies and behaviours, resulted in a convex–concave bounded distribution of migration altitudes. Our results provide a basis for assessing the implications for migratory bird populations of changes in mid-latitude atmospheric conditions probably occurring under global climate change.
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Chernichko, I. I. "Characteristics of bird's visible migrations at the Dniester Delta in 1974-1976." “Branta”: Transactions of the Azov-Black Sea Ornithological Station 2020, no. 23 (2020): 60–91. http://dx.doi.org/10.15407/branta2020.23.060.

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The article deals with the results of observations of diurnal bird migrations and counts on a fixed route in the spring and autumn of 1974-1976, in the Dniester Delta. The total number of observation days was 82 (32 in spring and 50 in autumn, respectively). For this period, during observations and counts on the route, 135 bird species from 11 orders were registered, the total number of which exceeded 600 000 individuals. The study of migrations was carried out according to the E. Kumari method (1955). At the observation site, 80 species were counted, including 52 in spring and 60 in autumn. The Jaccard similarity coefficient (Jaccard index) was quite low between seasons and amounted to only 0.59. The frequency of occurrence of the majority of registered species was low. This may have been due to the area of the floodplains themselves, as well as to the weak extent of their anthropogenic transformation observed in the late 70s of the 20th century, which contributed to the bird migrations over the Delta in a wide front. The density of the spring migration flow was maximum in March and averaged 1077.4 ind. (n=32) per a daylight, while the autumn migration flow was 1926.2 ind. (n=50). There were interannual differences in the density of migrations in March. In the spring of 1975, the flight density was 900.3 ind. (n=15), and in 1976 it was almost twice more and amounted to 2094.7 ind. (n=11). There were no interannual differences in the intensity of autumn migrations. The maximum migration density was 2585.2 ind. (n=23) in October. The majority of non-passerine bird species flew in the morning: in spring up to 43.8%, in autumn - 64.1%. The diurnal activity of Passeriformes varied by season: in spring, morning migrations prevailed (56.1%), and in autumn, with the same ratio in the evening (56.1%). The vast majority of flocks (87 - 90%) amounted from 1 to 50 individuals. At altitudes up to 50 m, 37.0% flew, 51-150 m – 24.9% and above 150 m – 38.1% of birds. For a number of species, it was proved that the height of their flights in the general for the season migration sector of directions was higher than in the reverse directions.127 bird species were registered on all routes, of which 106 were registered on a permanent (fixed) route. Maximum species diversity was observed in March – 85, in April − 65, in September − 60, in October − 61 and in November – 40 species. The dynamics of the species composition of birds on a fixed route can be used as an additional characteristic of day transit migrations.
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Rinchen, Kado, Kinley Kinley, Chhimi Dorji, and Dorji Wangmo. "First record of the Blue-and-white Flycatcher Cyanoptila cyanomelana (Temminck, 1829) (Aves: Passeriformes: Muscicapidae) from Bhutan." Journal of Threatened Taxa 11, no. 9 (2019): 14232–34. http://dx.doi.org/10.11609/jott.4608.11.9.14232-14234.

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During a patrolling duty in Jigme Singye Wangchuck National Park (JSWNP) in Bhutan, a lone male Blue-and-white Flycatcher Cyanoptila cyanomelan was observed and photographed. This is the first photographic evidence and confirmation on presence of the species in Bhutan. These new record confirm an extension of the species’ distribution in the North East Indian Sub Continent. As this is new record to Bhutan, there could be other undetected incidence of migrant species occurrence in the country. More observation must be carried out during bird migration seasons to discover such instances.
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Chaplygina, A. B., and D. I. Yuzyk. "The Analysis of Heavy Metal Concentrations in Eggs of Collared Flycatchers, Ficedula Albicollis (Passeriformes, Muscicapidae), and Tits, Parus Major, Parus Caeruleus (Passeriformes, Paridae), in Different Areas of North-Eastern Ukraine." Vestnik Zoologii 50, no. 3 (2016): 259–66. http://dx.doi.org/10.1515/vzoo-2016-0030.

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Abstract Collared flycatchers (Ficedula albicollis Temminck, 1815), have more opportunities to accumulate heavy metals due to migration but they are more resistant to contamination in contrast to tits, (Parus major Linnaeus, 1758, Parus caeruleus Linnaeus, 1758). This research aimed to detect concentrations of some trace elements in eggs of the collared flycatcher, great tit and blue tit in different areas. There were found differences in heavy metal concentrations in the eggs among species and study areas. For collared flycatchers there were not established consistent patterns of changes in element concentrations among areas. The highest heavy metal levels were found in tits in samples of egg contents from a forest park (Pb - 3.1410 ± 0.3249, Cu - 19.3290 ± 1.4840, Zn - 66.9612 ± 17.6665, Fe - 249.5513 ± 40.2800, Mn - 6.9032 ± 0.2946, Ca - 8298.3570 ± 0.1080, Sr - 17.6032 ± 0.7512, Ni - 0.5177 ± 0.0220). The lowest concentrations were found in egg contents of tits in Hetmanskyi National Nature Park (Cu - 4.3492 ± 0.2079, Fe - 44.6647 ± 0.2627, Mn - 1.3194 ± 0.2374, Ca - 998.7001 ± 0.0006, Ni - 0.2443 ± 0.0439, Cr - 0.1466 ± 0.0424). The results indicate that heavy metals accumulated differently in shells and contents of eggs of collared flycatchers and tits in each of the study area. Some of microelements (zinc, mercury, iron, manganese, selenium and iodine) in small amounts are required for normal growth and development of birds. Heavy metal concentrations in egg shells and egg contents of all species did not exceed permissible levels.
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Kostin, S. Yu. "Seasonal and ecological structure of the avifauna of the "Cape Martyan" Nature Reserve." Scientific notes of the “Cape Martyan” Nature Reserve, no. 11 (December 7, 2020): 124–39. http://dx.doi.org/10.36305/2413-3019-2020-11-124-139.

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The paper presents the list of birds of the Cape Martyan Nature Reserve, compiled in accordance with the international concepts of the taxonomy and nomenclature of birds in North-Eastern Eurasia, with a species-specific characteristic of a phenological status and an ecological specificity. It was found that 179 species of the modern avifauna of the territorial-aquatic complex belong to 51 families and 19 orders. Six orders (Passeriformes, Charadriiformes, Anseriformes, Falconiformes, Ciconiiformes, Gruiformes) unite 149 species (or 83.3% of the reserve's avifauna). The main part of the fauna is a group of migratory birds (134 species, or 74.9%), which include transit migrants (78), nesting migrants (16) and species whose local populations are sedentary (4). 39 species nest, 88 winters, including 24 sedentary ones. On summer grounds 21 species were recorded, on migrations - 9 ones. In the ecological structure of the avifauna of the reserve dendrophils (40.2%) and limnophiles (38.5%) dominate, the share of sclerophils is 12.3%, campophiles - 7.8%. Analysis of the seasonal spectrum of the ecological structure showed that limnophiles (42.5%) and dendrophils (35.8%) predominate among migrants, 12.7 and 10.4% are among sclerophils and campophiles respectively. The structure of the wintering complex repeats the migration aspect, and in the nesting complex after dendrophils (64.1%), the second place is occupied by sclerophils (25.6%).
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Scott, John D., and Lance A. Durden. "Songbird-transported tick Ixodes minor (Ixodida: Ixodidae) discovered in Canada." Canadian Entomologist 147, no. 1 (2014): 46–50. http://dx.doi.org/10.4039/tce.2014.34.

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AbstractTicks are carried into Canada by millions of birds during spring migration, and some of these blood-sucking ectoparasites harbour tick-associated pathogens. During a pan-Canadian study of ticks on avian hosts, we identified an extralimital tick, Ixodes minor Neumann (Ixodida: Ixodidae) collected from a Common Yellowthroat, Geothlypis trichas (Linnaeus) (Passeriformes: Parulidae) at Toronto, Ontario, Canada. Although the I. minor larva was not tested for any tick-borne pathogens, this tick species is considered a competent enzootic vector of the Lyme disease spirochete, Borrelia burgdorferi Johnson, Schmid, Hyde, Steigerwalt, and Brenner sensu lato (s.l.). Epidemiologically, diverse B. burgdorferi s.l. genospecies have been detected in, or isolated from I. minor, and this tick species potentially represents a public health risk not only in the southeastern United States of America, where I. minor is indigenous, but also in Canada. This tick collection is the northernmost report of I. minor in North America, and constitutes the first documentation of this tick species in Canada.
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Bandelj, Petra, Rok Blagus, Tomi Trilar, Modest Vengust, and Aleksandra Vergles Rataj. "Influence of phylogeny, migration and type of diet on the presence of intestinal parasites in the faeces of European passerine birds (Passeriformes)." Wildlife Biology 21, no. 4 (2015): 227–33. http://dx.doi.org/10.2981/wlb.00044.

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Banik, M. V. "Sharp Differences in the Timing of Male and Female Spring Arrival in the European Stonechat, Saxicola Rubicola, and the Whinchat, S. Rubetra (Passeriformes, Muscicapidae), in North-Eastern Ukraine." Vestnik Zoologii 53, no. 6 (2019): 483–90. http://dx.doi.org/10.2478/vzoo-2019-0043.

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Abstract Protandry, or the arrival of males prior to females to the breeding grounds is a widespread phenomenon in migratory birds though rarely examined in related species in which its manifestation can vary. European Stonechat and Whinchat are such a pair studied with use of individual marking in North-Eastern Ukraine in 1993–2008. An apparent protandry was found in Whinchat but not in European Stonechat. The difference between the arrival dates of male and female Whinchats (6 days) was significant. The mean time span between territory establishment by a male and subsequent pair formation was 10.6 days. By contrast, 38% of the first records of European Stonechats in spring were those of already paired birds and the difference between arrival dates of both sexes was non-significant. The proximate cause of protandry in Whinchat and its’ absence in European Stonechat seems to be the differences (or the lack thereof) in the onset of spring migration. The time lapse between the start of migration of male and female Whinchats originates at African wintering grounds and is maintained en route. The absence of the protandry in European Stonechat is probably a relict behaviour from the residency. The protandry in migratory populations of this species is yet to be developed.
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McCulloch, John B., Jeb P. Owen, Nancy C. Hinkle, Bradley A. Mullens, and Jeremiah W. Busch. "Genetic Structure of Northern Fowl Mite (Mesostigmata: Macronyssidae) Populations Among Layer Chicken Flocks and Local House Sparrows (Passeriformes: Passeridae)." Journal of Medical Entomology 57, no. 1 (2019): 122–30. http://dx.doi.org/10.1093/jme/tjz136.

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Abstract The northern fowl mite (NFM) Ornithonyssus sylviarum Canestrini and Fanzago is a blood-feeding ectoparasite found on many wild bird species and is a pest of poultry in the United States. It is unknown where NFM infestations of poultry originate, which has made it difficult to establish preventative biosecurity or effective control. We used microsatellite markers to evaluate genetic variation within and among NFM populations to determine routes of introduction onto farms and long-term persistence. We compared NFM from flocks of chickens (Gallus gallus) on different farms in California, Washington, and Georgia, and we compared NFM collected over a 5-yr interval. On three farms we collected NFM from chickens and house sparrows (Passer domesticus) nesting on each farm, which we used to assess movement between host species. There was strong genetic structure among mites from different poultry farms and low estimates of migration between farms. There were significant differences between mites on chickens and house sparrows on two farms where sparrows nested near flocks, indicating no exchange of mites. Only one farm showed evidence of NFM movement between chickens and sparrows. There was high genetic similarity between mites collected 5 yr apart on each of two farms, indicating that NFM infestations can persist for long periods. The genetic patterns did not reveal sources of NFM infestations on chicken farms. The data suggest that NFMs are strongly differentiated, which likely reflects periodic population declines with flock turnover and pesticide pressure.
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Garcia-Calero, Elena, and Salvador Martinez. "FoxP1 Protein Shows Differential Layer Expression in the Parahippocampal Domain among Bird Species." Brain, Behavior and Evolution 87, no. 4 (2016): 242–51. http://dx.doi.org/10.1159/000446601.

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Different bird orders show diversity in neural capabilities supported by variations in brain morphology. The parahippocampal domain in the medial pallium, together with the hippocampus proper, plays an important role in memory skills. In the present work, we analyze the expression pattern of the FoxP1 protein in the parahippocampal area of four different bird species: the nonvocal learner birds quail and chicken (Galliformes) and two vocal learner birds, i.e. the zebra finch (Passeriformes) and the budgerigar (Psittaciformes), at different developmental and adult stages. We also analyze the expression of the calbindin protein in quails and zebra finches. We observed differences in the FoxP1 parahippocampal layer among bird species. In quails, chickens, and budgerigar, FoxP1 cells were located in the outer layers of the lateral and caudolateral parahippocampal sectors. In contrast, FoxP1 immunoreactive cells appeared in the inner layer of the same sectors in the zebra finch parahippocampal domain. These differences suggest two possibilities: either the FoxP1-positive cells described in quails, chickens, and budgerigars are a different population than the one described in the zebra finch, or there are changes in the pattern of radial migration in the parahippocampal area among birds. In the present study, we show that FoxP1 expression is more similar between quails, chickens, and budgerigars than between budgerigars and zebra finches in the parahippocampal area. This result contrasts with previous data in other telencephalic structures, like the calbindin-positive projection neurons described in the striatum of budgerigars and zebra finches but not in quails and chickens. All of these data point to diversity in the evolution of different morphological characters and, therefore, a mosaic model for telencephalic evolution in birds.
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Dissertations / Theses on the topic "Passeriformes – Migration"

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Greyhaven, Cin. "Reproductive insularity in a migratory sparrow: A field study of Lincoln's sparrow populations in Southern California." CSUSB ScholarWorks, 1991. https://scholarworks.lib.csusb.edu/etd-project/725.

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Covino, Kristen M. "The Influence of Energetic Condition on Flight Initiation and Orientation of Migratory Passerines in the Gulf of Maine Region." Fogler Library, University of Maine, 2008. http://www.library.umaine.edu/theses/pdf/CovinoKM2008.pdf.

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Arlt, Debora. "Habitat selection : demography and individual decisions /." Uppsala : Dept. of Ecology, Swedish University of Agricultural Sciences, 2007. http://epsilon.slu.se/200717.pdf.

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Guerreiro, Duarte Rivaes da Silva Ana Sofia. "Stopover ecology of migrant songbirds at the Ebro delta = Ecologia de parada migratòria de passeriformes al Delta de l'Ebre." Doctoral thesis, Universitat de Barcelona, 2018. http://hdl.handle.net/10803/666640.

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Migration associated with movements between breeding and wintering areas allow animals to maximize fitness in response to seasonal changes in resources (Dingle 2014). Some of the most incredible migrations in the animal world are performed by birds which are possibly one of the best-studied migratory groups. Prior to migration, birds accumulate fat stores that may account for up to 50% of their body mass (Nielsen and Riis 2013) and once these fat stores are depleted after a flight bout they are replenished at stopover sites along the migration route. Migration is a dangerous life stage, which means that migrants have higher probability of perish while migrating than non-migrants. The mortality rates during the migratory period may be at least 15 times higher compared to that in the stationary periods of the annual life cycle (Sillett and Holmes 2002). Moreover, imagine small passerine birds, many of them inexperienced birds, born only some months before the beginning of migration, sometimes weighting just 10g or less, flying by night thousands of kilometres to encounter new kinds of habitats (Mettke-Hofmann and Greenberg 2005), competition for food resources (Moore and Yong 1991), predators (Lindström 1989), and inclement weather (Newton 2007), all while needing to maintain adequate fat reserves to perform their long-distance flight successfully. In fact, migrant bird populations suffer nowadays a sustained decline as shown in analyses of bird population trends across Europe (Sanderson et al., 2006; Vickery et al. 2014), North America (Ballard et al. 2003) and East Asia (MacKinnon et al. 2012). This decline is strongly associated with the accumulative impact of certain human activities such as habitat loss (Aharon-Rotman 2016), hunting (Raine 2016, Clausen et al. 2017) and climate change (Jiao et al. 2016) on the areas used by birds in their migratory routes (Crick 2004), especially on stopover sites (Bairlein 2016). Understanding the quality and availability of highly used stopover sites is vital for migratory bird conservation (Mehlman et al. 2005) and to know where migratory birds stop during their migrations and how the sites function for migrants will provide information for conservation and management of suitable stopover areas and therefore, help in the development of full-life-cycle specific conservation plans. The Iberian Peninsula geographically connects Africa and Western Europe and migrants use it in transit between breeding and wintering grounds during both migration periods (Newton 2008). It becomes an ideal scenario for the study of migratory strategies (Bruderer and Liechti 1999) especially if we consider also Mediterranean wintering birds. This thesis focusses on the significance of the Ebro delta, as the second most important wetland in the Western Mediterranean, for the migration of songbirds and draw an overall picture of the way migrant passerines use the area as a stopover site. Since the Ebro delta is a highly humanized area where several important economic activities take place (e.g. rice production, hunting, fishing and tourism), as well as a very fragile territory due to severe problems of coastal regression and subsidence, the information here gathered aims to help in future conservation plans that should take into account not only breeding species but also wintering and migrating ones, what will give even more importance to this coastal wetland, which we must protect at all costs. Therefore, this thesis work overs the behaviour of both short/medium and long-distance migrants, i.e. Mediterranean wintering and trans-Saharan species, during their stopover at a coastal lagoon in the Ebro delta during both migration seasons (spring and autumn). The tool used to investigate the issues exposed above was a cheap one and available to everyone who asks for it: the ring-recovery data. Bird ringing is long used to study migration processes, and although nowadays more trendy and modern methods are available (e.g. satellite telemetry, geolocation loggers), not all of them are affordable to everyone who wants to use them. If we realize that the EURING Data Bank (EDB) is a unique set of mark–reencounter data on European birds with more than 10 million encounter records and that is at the disposal of the scientific and conservation communities (du Feu et al. 2016) and that ringing is still required as the key technique for facilitating our understanding of migration (Bairlein and Schaub 2009), we can use its potential to evaluate the importance of stopover areas and contribute to their conservation and also of the species that depend on these areas to survive. Of course, the new methods are very useful and sometimes a lot more precise and the combination of these methods with ringing data will improve considerably our knowledge about the migration phenomenon in the future. But while we look for financing to tag our birds with geolocators, let’s start working out the more basic questions.
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Books on the topic "Passeriformes – Migration"

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Chernet︠s︡ov, N. S. Migrat︠s︡ii︠a︡ vorobʹinykh ptit︠s︡: Ostanovki i polet. T-vo nauch. izd. KMK, 2010.

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Ryzhanovskiĭ, V. N. Ėkologii︠a︡ poslegnezdovogo perioda zhizni vorobʹinykh ptit︠s︡ Subarktiki. Izd-vo Uralʹskogo universiteta, 1997.

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Paynter, Raymond A. Nearctic passerine migrants in South America. Nuttall Ornithological Club, 1995.

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Chernetsov, Nikita. Passerine Migration: Stopovers and Flight. Springer, 2014.

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Chernetsov, Nikita. Passerine Migration: Stopovers and Flight. Springer, 2012.

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Passerine Migration Stopovers And Flight. Springer, 2012.

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Songbird Journeys: Four Seasons in the Lives of Migratory Birds. Walker & Company, 2006.

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Songbird Journeys: Four Seasons In the Lives of Migratory Birds. Walker & Company, 2007.

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