Relevant bibliographies by topics / Tetraonidae

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  1. Journal articles
  2. Dissertations / Theses
  3. Books
  4. Book chapters

Academic literature on the topic 'Tetraonidae'

Author: Grafiati
Published: 4 June 2021
Last updated: 3 February 2022

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Journal articles on the topic "Tetraonidae"

1

Isaev, A. P., and Z. Z. Borisov. "Winter feeding of ptarmigan (Lacopus lacopus, Galliformes, Tetraonidae) in Yakutia." Biology Bulletin 43, no. 9 (December 2016): 1056–66. http://dx.doi.org/10.1134/s1062359016090120.

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Yamamoto, Saori. "MECHANISMS AFFECTING REPRODUCTION AND ORNAMENT EXPRESSION IN MALE TETRAONIDAE BIRDS." Reviews in Agricultural Science 4 (2016): 1–7. http://dx.doi.org/10.7831/ras.4.1.

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Исаев, А. П., and З. З. Борисов. "Зимнее питание белой куропатки (Lagopus lagopus,Galliformes, Tetraonidae) в Якутии." Зоологический журнал 95, no. 8 (2016): 955–65. http://dx.doi.org/10.7868/s0044513416080055.

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Huang, Zuhao, and Dianhua Ke. "Organization and variation of the Tetraonidae (Aves: Galliformes) mitochondrial DNA control region." Mitochondrial DNA Part B 2, no. 2 (August 23, 2017): 568–70. http://dx.doi.org/10.1080/23802359.2017.1361345.

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Борщевский, В. Г. "Начало весны – критический период в годовом цикле жизни глухаря (Tetrao urogallus, Tetraonidae, Galliformes)?" Зоологический журнал 94, no. 4 (2015): 455–65. http://dx.doi.org/10.7868/s0044513415040030.

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6

Saaela, S., U. Petäjä-Repo, and R. Hissa. "Monoamines, thyroid hormones and energy reserves in developing capercaillie chicks (Tetrao urogallus: tetraonidae)." Comparative Biochemistry and Physiology Part A: Physiology 97, no. 3 (January 1990): 353–60. http://dx.doi.org/10.1016/0300-9629(90)90623-z.

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7

Butorina, O. T., and L. L. Solovenchuk. "The Use of c-mos Nuclear Gene as a Phylogenetic Marker in Tetraonidae Birds." Russian Journal of Genetics 40, no. 10 (October 2004): 1080–84. http://dx.doi.org/10.1023/b:ruge.0000044751.15446.c1.

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8

MLÍKOVSKÝ, JIŘÍ. "The correct name for the Siberian Black-billed Capercaillie is Tetrao urogalloides (Aves: Tetraonidae)." Zootaxa 3452, no. 1 (September 4, 2012): 66. http://dx.doi.org/10.11646/zootaxa.3452.1.3.

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The Black-billed Capercaillie is a widespread species of north-eastern Asia, being almost endemic to Russia, but also occurring in northern Mongolia and northernmost China (Potapov 1985, 1987; De Juana 1994; Madge & McGowan 2002; Storch 2007). Two different names are in current use for this species in the scientific literature: Tetrao urogalloides Middendorff, 1853 (e.g. Buturlin 1901: 66, 1935: 185; Kirikov 1952: 103; Hjort 1970: 307; Walters 1980: 34; Potapov 1985: 361, 1987: 186; Haffer 1989; Klaus et al. 1989; Andreev 1991; Grant & Grant 1997: 7773; Klaus & Andreev 2001; Meserve 2005: 77; Klement'ev 2011) and Tetrao parvirostris Bonaparte, 1856 (e.g. Dresser 1903: 697; Hartert 1917: 292, 1921: 1884; Štegman 1926: 229; Peters 1934: 26; Vaurie 1965: 260; Stepanân 1990: 136; Inskipp et al. 1996: 27; Madge & McGowan 2002: 373; Dickinson 2003: 46; Zheng 2005: 47; Koblik et al. 2006: 106; Brazil 2010: 30). This situation is untenable. Thus, I restudied the nomenclatural history of this species to determine which name is correct, with the following results.
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MLÍKOVSKÝ, JIŘÍ. "The authorship and type localities of bird taxa (Aves) collected during the John Ross 1818 Expedition to the Baffin Bay, northwestern Atlantic Ocean." Zootaxa 3515, no. 1 (October 12, 2012): 51. http://dx.doi.org/10.11646/zootaxa.3515.1.3.

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The 1818 expedition to the Baffin Bay, headed by Captain John Ross, resulted in the description of at least six bird speciesand four bird genera believed to be new to science. My review of publications relevant to the history of the expedition andto its ornithological outputs resulted in the correction of authorship of several of these names, as follows: The genus So-materia (Anatidae) dates from Leach (in Anonymous 1818), not from Leach (in Ross 1819c). The author of the generaClangula (Anatidae) and Xema (Laridae) is Ross (1819c), not Leach (in Ross 1819c). The species Larus sabini (Laridae)dates from J. Sabine (in Anonymous 1819a), not from J. Sabine (1819). The subspecies of Lagopus mutus (Tetraonidae)from western Greenland should be called Lagopus mutus dispar Ross, 1820c, not Lagopus mutus saturatus Salomonsen, 1950, if recognized. Other corrections consider names which are currently not used as valid.
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Борщевский, В. Г., and А. Б. Костин. "Сезонность и причины гибели тетерева (Lyrurus tetrix, Galliformes, Tetraonidae) в западной России по данным учета останков." Зоологический журнал 93, no. 8 (2014): 982–97. http://dx.doi.org/10.7868/s004451341406004x.

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Dissertations / Theses on the topic "Tetraonidae"

1

Hörnfeldt, Birger. "Cycles of voles, predators, and alternative prey in boreal Sweden." Doctoral thesis, Umeå universitet, Ekologi och geovetenskap, 1991. http://urn.kb.se/resolve?urn=urn:nbn:se:umu:diva-100711.

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Bank voles, grey-sided voles, and field voles had synchronous 3-4 year density cycles with variable amplitudes which averaged about 200-fold in each species. Cycles of vole predators (red fox and Tengmalm's owl), and their (foxes') alternative prey (mountain hare and forest grouse) lagged behind the vole cycles. The nomadic Tengmalm's owl responded with a very rapid and strong numerical increase to the initial cyclic summer increase of voles (the owl’s staple food). Owl breeding densities in the springs were highly correlated with vole supply in the previous autumns. This suggested that the number of breeding owls was largely determined in the autumn at the time of the owl's nomadic migrations, and that immigration was crucial for the rapid rise in owl numbers. The owl's numerical response was reinforced by the laying of earlier and larger clutches when food was plentiful. In addition, the owl has an early maturation at one year of age. The transition between subsequent vole cycles was characterized by a distinct shift in rate of change in numbers from low to high or markedly higher values in both summer and winter. Regulation increased progressively throughout the cycle since the rate of change decreased continuously in the summers. Moreover, there was a similar decrease of the rate of change in winter. Rate of change was delayed density-dependent. The delayed density-dependence had an 8 month time-lag in the summers and a 4 month time-lag in the winters relative to the density in previous autumns and springs, respectively. These findings suggest that vole cycles are likely to be generated by a time-lag mechanism. On theoretical grounds, it has been found that a delayed density- dependence of population growth rate with a 9 month time-lag caused stable limit cycles with a period between 3 and 4 years. Some mechanisms for the delayed density-dependence are suggested and discussed. The mechanisms are assumed to be related to remaining effects of vole populations past interactions with predators, food supplies, and/or diseases. Unlike the other voles, the bank vole had regular and distinct seasonal declines in density over winter. These declines are proposed to be due to predation, mainly by Tengmalm's owl. Supranivean foraging for epiphytic tree lichens and conifer seeds most likely explains why this species was frequently taken by the owl under snow-rich conditions. The alternative prey hypothesis predicts that a reduction of predator numbers should increase the number of alternative prey. Alternative prey should be less effectively synchronized to the vole cycle by predation at declining and low vole (main prey) densities; they may also lose their 3-4 year cyclicity. The appearance of sarcoptic mange among foxes in northern Sweden in the mid 1970s provided an opportunity to "test" these ideas, and these were found to be supported. In areas with highest mange infection rates, foxes declined markedly from the late 1970s to mid 1980s, whereas hare numbers rose rapidly and appeared non-cyclic.

Diss. (sammanfattning) Umeå : Umeå universitet, 1991, härtill 7 uppsatser


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2

Kozma, Radoslav. "Inferring demographic history and speciation of grouse using whole genome sequences." Doctoral thesis, Uppsala universitet, Zooekologi, 2016. http://urn.kb.se/resolve?urn=urn:nbn:se:uu:diva-299926.

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From an ecological perspective, knowledge of demographic history is highly valuable because population size fluctuations can be matched to known climatic events, thereby revealing great insight into a species’ reaction to past climate change. This in turn enables us to predict how they might respond to future climate scenarios. Prominently, with the advent of high-throughput sequencing it is now becoming possible to assemble genomes of non-model organisms thereby providing unprecedented resolution to the study of demographic history and speciation. This thesis utilises four species of grouse (Aves, subfamily Tetraoninae) in order to explore the demographic history and speciation within this lineage; the willow grouse, red grouse, rock ptarmigan and the black grouse. I, and my co-authors, begin by reviewing the plethora of methods used to estimate contemporary effective population size (Ne) and demographic history that are available to animal conservation practitioners. We find that their underlying assumptions and necessary input data can bias in their application, and thus we provide a summary of their applicability. I then use the whole genomes of the black grouse, willow grouse and rock ptarmigan to infer their population dynamics within the last million years. I find three dominant periods that shape their demographic history: early Pleistocene cooling (3-0.9 Mya), the mid-Brunhes event (430 kya) and the last glacial period (110-10 kya). I also find strong signals of local population history – recolonization and subdivision events – affecting their demography. In the subsequent study, I explore the grouse dynamics within the last glacial period in more detail by including more distant samples and using ecological modelling to track habitat distribution changes. I further uncover strong signals of local population history, with multiple fringe populations undergoing severe bottlenecks. I also determine that future climate change is expected to drastically constrict the distribution of the studied grouse. Lastly, I use whole genome sequencing to uncover 6 highly differentiated regions, containing 7 genes, hinting at their role in adaptation and speciation in three grouse taxa. I also locate a region of low differentiation, containing the Agouti pigmentation gene, indicating its role in the grouse plumage coloration.
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Books on the topic "Tetraonidae"

1

Kuzʹmina, M. A. Tetraonidae and phasianidae of the USSR: Ecology and morphology. Edited by Siegel-Causey Douglas. Washington, D.C: Smithsonian Institution Libraries, 1992.

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2

Kuzʹmina, M. A. Tetraonidae and phasianidae of the USSR: Ecology and morphology. Edited by Causey Douglas. Oegstgeest: Universal Book Services, 1992.

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3

Martino, Marcello. Il patrimonio dei tetraonidi e della coturnice. San Daniele del Friuli (Udine): Carlo Lorenzini, 2004.

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Book chapters on the topic "Tetraonidae"

1

Klaus, S. "To Survive or To Become Extinct: Small Populations of Tetraonids in Central Europe." In Minimum Animal Populations, 137–52. Berlin, Heidelberg: Springer Berlin Heidelberg, 1994. http://dx.doi.org/10.1007/978-3-642-78214-5_10.

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2

Moss, R., and A. Watson. "Population cycles in birds of the grouse family (Tetraonidae)." In Advances in Ecological Research, 53–111. Elsevier, 2001. http://dx.doi.org/10.1016/s0065-2504(01)32011-1.

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You might also be interested in the extended bibliographies on the topic 'Tetraonidae' for particular source types:
Journal articles
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