References

• Abramson N.I. & Lissovsky A.A. 2012. [Subfamily Arvicolinae] // Pavlinov I. & Lissovsky A.A. (eds.). The Mammals of Russia: A Taxonomic and Geographic Reference. Archives of Zoological Museum of MSU. Vol.52. Moscow: KMK Scientific Press. P.127–141. [in Russian].
• Abramson N.I., Lebedev V.S., Tesakov A.S., & Banikova A.A. 2009. Supraspecies relationships in the subfamily Arvicolinae (Rodentia, Cricetidae): an unexpected result of nuclear gene analysis // Molecular biology. Vol.43. No.5. P.34–846.
• Aliko V. & Gumeni D. 2004. Evolution of hematological parameters of peripheric blood obtained from representative individuals of Amphibia, Aves and Mammalia classes // Biological Studies. Vol.8. P.112-118.
• Bashenina V. 1977. [Ways of adaptation of murine rodents]. Moskow: Nauka. 355 p. [in Russian].
• Berdyugin K.I. 1996. [Small mammals in the upper belts of the Ural Mountains]. Abstract of PhD Dissertation. Yekaterinburg: IPAE UB RAS. 14 p. [in Russian].
• Blaxter K. 1989. Energy metabolism in animals and man. New York: Cambridge University Press. 336 p.
• Borodin A.V., Davydova Yu.A., & Fominykh M.A. 2011. [A natural hybrid between the red (Clethrionomys rutilus) and the bank (Clethrionomys glareolus) vole (Arvicolinae, Rodentia) in the Middle Urals] // Zoologichesky zhurnal. Vol.90. No.5. P.634–640. [in Russian, with English summary].
• Bottaeva Z.Kh., Tembotova F.A., Emkuzheva M.M, Bersekova Z.A. & Chapaev A.K. 2019. Effect of ecogeographic factors along latitudinal-longitudinal gradient on the red blood system of the Caucasian snow vole (Chionomys gud), a species autochthonous to the Caucasus // Russian Journal of Ecology. Vol.50. No.1. P.34–42.
• Chernyavsky F.B., Lazutkin A.N. & Mosin A.F. 2003. Variations of some physiological and biochemical indices in the population of the red-backed vole (Clethrionomys rutilus) // Biology Bulletin. Vol.3. No.30. P.291–298.
• Dekonenko A., Yakimenko V., Ivanov A., Morozov V., Nikitin P., Khasanova S., Dzagurova T., Tkachenko E. & Schmaljohn C. 2003. Genetic similarity of Puumala viruses found in Finland and western Siberia and of the mitochondrial DNA of their rodent hosts suggests a common evolutionary origin // Infection, Genetics and Evolution. Vol.3. No.4. P.245–247.
• Dittmann M.T., Hebel C., Arif A., Kreuzer M. & Clauss M. 2015. Metabolic rates of three gazelle species (Nanger soemmerringii, Gazella gazella, Gazella spekei) adapted to arid habitats // Mammalian Biology. Vol.80. No.5. P.390–394.
• Ernster L. & Schatz G. 1981. Mitochondria: a historical review // Journal of Cell Biology. Vol.91. No.3. P.227s–255s.
• Feore S.M., Bennett M., Chantrey J , Jones T, Baxby D & Begon M 1997. The effect of cowpox virus infection on fecundity in bank voles and wood mice // Proceedings of the Royal Society of London. Series B. Vol.264. No.1387. P.1457–1461.
• Frase B.A. 2002. Hematological parameters of high-elevation bushy-tailed woodrats // The Southwestern Naturalist. Vol.47. No.3. P.508–510.
• Grigorovich N.A. 1966. Pathogenesis of hemolytic anemia caused by phenylhydrazine (experimental data) // Bulletin of Experimental Biology and Medicine Vol.61. No.2. P.29–32.
• Hansson L. 1985. Clethrionomys food: generic, specific and regional characteristic // Annales Zoologici Fennici. Vol.22. No.3. P.315–318.
• Hoehn R.S., Jernigan P.L., Chang A.L., Edwards M.J. & Pritts T.A. 2015. Molecular mechanisms of erythrocyte aging // Biological Chemistry. Vol.396. No.6–7. P.621–631. Hoffman R., Benz E.J., Shattil S.J., Furie B., Cohen H.J., Silberstein L.E. & McGlave P. 1999. Hematology: basic principles and practice. New York: Churchill Livingstone. 2584 p.
• Hochachka P.W. & Somero G.N. 1980. Biochemical adaptation. Princeton: Princeton University Press. 563 p.
• Jain N.C. 1986. Schalm’s veterinary haematology 4th edition. Philadelphia: Lea and Febiger. 1221 p.
• Ims R.A. 1989. Kinship and origin effects on dispersal and space sharing in Clethrionomys rufocanus. // Ecology. Vol.70. No.3. P.607–616.
• Kizhina A.G., Kalinina S.N., Uzenbaeva L.B., Panchenko D.V., Łapiński S., Ilyukha V.A., Pechorina E.F. & Fokina V.O. 2020. Comparative study of erythrocyte morphology and size in relation to ecophysiological adaptations in Rodentia species. // Russian Journal of Theriology. Vol.19. No.2. P.161–171.
• Konig & Claus. 1973. Mammals. London: Collins & Co. 256 p.
• Koteja P. & Weiner J. 1993. Mice, voles and hamsters: metabolic rates and adaptive strategies in muroid rodents. // Oikos. Vol.66. No.3. P.505–514.
• Kostelecka-Myrcha A. 1973. Regularities of variations of the haematological values characterizing the respiratory function of blood in mammals. // Acta Theriologica. Vol.18. No.1. P.1–56.
• Kostelecka-Myrcha A. 2002. The ratio of amount of haemoglobin to total surface area of erythrocytes in mammals. // Acta Theriologica. Vol.47. No.1. P.209–220.
• Kovalchuk L.A. & Tsvirenko S.V. 1997. Energetic metabolism and the blood system of small mammals living under different climatic and geographical conditions // Russian Journal of Ecology. Vol.28. No.1. P.51–56.
• Kovalchuk L.A. & Yastrebov A.P. 2003. [Ecological Physiology of Small Mammals in the Urals] Ekaterinburg: Izdatel’stvo NISO. 184 p. [in Russian, with English summary].
• Kravchenko L.B. & Moskvitina N.S. 2008. Behavioral and physiological peculiarities of three species of forest voles (Clethrionomys, Rodentia, Cricetidae) related to their spatial population structure // Zoologichesky zhurnal. Vol.87. No.2. P.1509–1517 [in Russian, with English summary].
• Kshnyasev I.A. & Davydova Yu.A. 2021. Population cycles and the Chitty syndrome // Russian Journal of Ecology. Vol.52. No.1. P.70–75.
• Kusumoto К. & Saitoh T. 2008. Effects of cold stress on immune function in the grey-sided vole, Clethrionomys rufocanus . // Mammal Study. Vol.33. P.11–18.
• Kusumoto K. 2015. Humoral immune response of overwintered gray red-backed voles (Myodes rufocanus bedfordiae) under cold stress in spring. // Bulletin of the Faculty of Agriculture, Saga University. Vol.100. P.15–26.
• Lazutkin A.N., Yamborko A.V. & Kiselev S.V. 2016. Energy and immune parameters of northern red-backed voles (Clethrionomys rutilus) at different population densities in the Kolyma river basin // Russian Journal of Ecology. Vol.47. No.6. P.562–567.
• Litman G.W., Cannon J.P. & Dishaw L.J. 2005. Reconstructing immune phylogeny: new perspectives // Nature Reviews Immunology. Vol.5. No.11. P.866–879.
• Lokhmiller R.L. & Deerenberg C. 2000. Trade-offs in evolutionary immunology: just what is the cost of immunity? // Oikos. Vol.88. No.1. P.87–98.
• Lokhmiller R.L. & Moshkin M.P. 1999. [The adaptive significance of the variability of immunocompetence in population of small mammals] // Sibirskiy ekologicheskiy zhurnal. Vol.6. No.1. P.37–58. [in Russian, with English summary].
• Lydyard P.M. & Porakishvili N. 2012. Cells, tissues and organs of the immune system // Male D., Brostoff J., Roth D.B. & Roitt I.M. (eds.) Immunology (8th edition). Elsevier. P.17–50.
• Lovegrove B.G. 2003. The influence of climate on the basal metabolic rate of small mammals: a slow-fast metabolic continuum // Journal of Comparative Physiology. Part B. Vol.173. No.2. P.87–112.
• Maloiy G.M.O., Kamau J.M.Z., Shkolnik A., Meir M., Arieli R. 1982. Thermoregulation and metabolism in a small desert carnivore: the Fennec fox (Fennecus zerda) (Mammalia) // Journal of Zoology. Vol.198. No.3. P.279–291.
• Mather P.M. 1987. Computer processing of remotely sensed images, an introduction. Chichester: John Wiley and Sons. 360 p.
• McArdle W.D., Katch F.I. & Katch V.L. 2009. Exercise physiology: nutrition, energy, and human performance. 7th edition. Philadelphia: Lippincott Williams and Wilkins. 1038 p.
• McDevitt R.M. & Speakman J.R. 1994. Central limits to sustainable metabolic rate have no role in cold acclimation of the short-tailed field vole (Microtus agrestis) // Physiological Zoology. Vol.67. No.5. P.1117–1139.
• McNab B.K. 1979. Climatic adaptation in the energetics of heteromyid rodents // Comparative Biochemistry and Physiology Part A. Vol.62. No.4. P.813–820.
• McNab B.K. 1992. A statistical analysis of mammalian rates of metabolism // Functional Ecology. Vol.6. No.6. P.672–679. McNab B.K. 2008. An analysis of the factors that influence the level and scaling of mammalian BMR // Comparative Biochemistry and Physiology. Part A. Vol.151. No.1. P.5–28.
• Morrison P.R. & Tietz W.J. 1957. Cooling and thermal conductivity in three small Alaskan mammals // Journal of Mammalogy. Vol.38. No.1. P.78–86.
• Morrison P.R. 1964. Adaptation of small mammals to the arctic // Federation proceedings. Vol.23. No.6. P.1202–1206.
• Olenev G.V. 2002. Alternative types of ontogeny in cyclomorphic rodents and their role in population dynamics: an ecological analysis // Russian Journal of Ecology. Vol.33. P.321–330.
• Orekhova N.A. 2018. Hematological indicators in pygmy wood mouse Apodemus uralensis (Muridae, Rodentia) populations as markers of the environmental radiation exposure: East Urals radioactive trace (Russia) // Environmental Science and Pollution Research. Vol.25. P.16144–16166.
• Osipova O.V. & Soktin A.A. 2008. [Experimental simulation of ancient hybridization between bank and red voles] // Doklady Akademii Nauk. Vol.420. No.1. P.169–171. [in Russian, with English summary]
• Potapov S.G., Illarionova N.A., Andreeva T.A., Baskevich M.I., Okulova N.M., Lavrenchenko L.A., Orlov V.N. 2007. [Transfer of mitochondrial genome of the northern redbacked vole (Clethrionomys rutilus) to the bank vole (C. glareolus) in northwestern Europe] // Doklady Akademii Nauk. Vol.417. No.1. P.435–438. [in Russian, with English summary]
• Rausch R.L. & Rausch V.R. 1975. Relationships of the red- backed vole, Clethrionomys rutilus (Pallas), in North America: karyotypes of the subspecies Dawsoni and Albiventer // Systematic Biology. Vol.24. No.2. P.163–170.
• Rutovskaya M.V. 1992. [Factors affecting the sound activity of forest voles)] // Izvestiya of the Academy of Sciences of the Union of Soviet Socialist Republics. Vol.5. P.753–760 [in Russian].
• Saino N., Canova L., Fasola M. & Martinelli R. 2000. Reproduction and population density affect humoral immunity in bank voles under field experimental conditions // Oecologia. Vol.124. P.358–366.
• Sheldon B.C. & Verhulst S. 1996. Ecological immunology: costly parasite defences and trade-offs in evolutionary ecology // Trends in Ecology and Evolution. Vol.11. No.8. P.317–321.
• Smirnov N.G., Bolshakov V.N. & Borodin A.V. 1986. [Pleistocene rodents of the north of western Siberia]. Moscow: Nauka. 145 p. [in Russian].
• Snyder G.K. 1973. Erythrocyte evolution: the significance of the Fåhraeus-Lindqvist phenomenon // Respiratory Physiology. Vol.19. No.3. P.271–278.
• Snyder G.K. & Sheafor B.A. 1999. Red blood cells: centerpiece in the evolution of the vertebrate circulatory system // Integrative and Comparative Biology. Vol.39. No.2. P.189–198.
• Sokolov V.E. & Syroechkovsky E.E. (eds). 1988. [Reserves of the European part of the RSFSR. Part I.]. Moskow: Mysl’ Part. I. P.61–89. [in Russian].
• Speakman J.R., Ergon T., Cavanagh R., Reid K., Scantle- bury D.M. & Lambin X. 2003. Resting and daily energy ex- penditures of free-living field voles are positively correlated but reflect extrinsic rather than intrinsic effects // PNAS of the United States of America. Vol.100. No.24. P.14057–14062.
• StatSoft Inc. 2012. Electronic Textbook on Statistics. Available from http://www.statsoft.ru/home/textbook/default.htm
• Tarakhtii E.A. & Mukhacheva S.V. 2011. Blood system peculiarities in the bank vole (Clethrionomys glareolus) under chronic environmental pollution // Biological Bulletin. Vol.38. No.5. P.518–527.
• Tarakhtii E.A., Sumin M.N. & Davydova Yu.A. 2009. [Variability of red blood characteristics in bank vole (Clethrionomys glareolus) related to season and reproductive status of its individuals] // Uspekhi sovremennoy biologii. Vol.129. No.2. P.191–197 [in Russian, with English summary]
• Tesakov A.S. 1996. Evolution of bank voles in the late Pliocene and early Pleistocene of eastern Europe (Clethrionomys, Arvicolidae) // Acta Zoologica Cracoviensia. Vol.39. No.1. P.541–547.
• Tête N., Afonso E., Bouguerra G. & Scheifler R. 2015. Blood parameters as biomarkers of cadmium and lead exposure and effects in wild wood mice (Apodemus sylvaticus) living along a pollution gradient // Chemosphere. Vol.138. P.940–946.
• Thomas A. & Ono K. 2015. Diving related changes in the blood oxygen stores of rehabilitating harbor seal pups (Phoca vitulina)// PloS ONE. Vol.10. No.6. P.e0128930.
• Topashka-Ancheva M., Metcheva R. & Teodorova S. 2003. A comparative analysis of the heavy metal loading of small mammals in different regions of Bulgaria II: chromosomal aberrations and blood pathology // Ecotoxicology and Environmental Safety. Vol.54. No.2. P.188–193.
• Wartha F. & Henriques-Normark B. 2008. ETosis: a novel cell death pathway // Science Signaling. Vol.1. No.21. P.25.
• White J.G. & Clawson C.C. 1980. Overview article: Biostructure of blood platelets // Ultrastructural Pathology. Vol.1. No.4. P.533–558.
• Wiger R. 1979. Seasonal and annual variations in the prevalence of blood parasites in cyclic species of small rodents in Norway with special reference to Clethrionomys glareolus // Ecography. Vol.2. No.3. P.169–175.
• Wilson D.E., Reeder D.M. (eds.). 2005. Mammal Species of the World: A Taxonomic and Geographic Reference. 3rd edition. Baltimore: Johns Hopkins University Press. 2142 p.
• Wołk E. 1981. Seasonal and age changes in leukocyte indices in shrews // Acta Theriologica. Vol.26. No.12. P.219–229.

Download PDF