Skip to main content Accessibility help
×
Hostname: page-component-78c5997874-g7gxr Total loading time: 0 Render date: 2024-11-10T15:02:16.969Z Has data issue: false hasContentIssue false

4 - Birds of Treeline Ecotones

Published online by Cambridge University Press:  30 June 2023

Dan Chamberlain
Affiliation:
University of Turin
Aleksi Lehikoinen
Affiliation:
Finnish Museum of Natural History, University of Helsinki
Kathy Martin
Affiliation:
University of British Columbia, Vancouver
Get access

Summary

The mountain treeline forms the ecotone between the forest and the grass/shrub-heath dominated alpine zone and is often a zone of relatively high diversity. We first assess the universality of a peak in bird diversity at the treeline across studies and regions. Defining a ‘treeline’ bird is challenging, as this zone is often a mix of habitats, thus we determine whether any species can be classified as ‘treeline specialists’. We then compare bird communities of different mountain ranges and types of treeline: climate-limited, and those limited by disturbance, including of both natural (e.g. avalanches, grazing by wild herbivores) and anthropogenic (livestock grazing) origin. Furthermore, we assess the extent to which there are commonalities in broad traits (e.g. migratory strategy, foraging strategy, nesting substrate), primary origin (e.g. montane or alpine) and taxonomy (e.g. proportion of passerines vs non-passerines) across different treeline communities. We then review the determinants of reproductive success of treeline birds, the importance of vegetation structure, and the impact of grazing of both domestic and wild animals in maintaining the habitat mosaic. Finally, we consider how key threats to treeline bird communities might be confronted through conservation strategies.

Type
Chapter
Information
Publisher: Cambridge University Press
Print publication year: 2023

Access options

Get access to the full version of this content by using one of the access options below. (Log in options will check for institutional or personal access. Content may require purchase if you do not have access.)

References

Abebe, A.F., Cai, T., Wale, M., et al. (2019) Factors determining species richness patterns of breeding birds along an elevational gradient in the Horn of Africa region. Ecology and Evolution, 9, 96099623.CrossRefGoogle ScholarPubMed
Able, K.P. & Noon, B.R. (1976) Avian community structure along elevational gradients in the Northeastern United States. Oecologia, 26, 275294.Google Scholar
Acharya, B.K., Sanders, N.J., Vijayan, L. & Chettri, B. (2011) Elevational gradients in bird diversity in the Eastern Himalaya: an evaluation of distribution patterns and their underlying mechanisms. PLoS ONE, 6, e29097.Google Scholar
Altamirano, T.A., de Zwaan, D.R., Ibarra, J.T., Wilson, S. & Martin, K. (2020) Treeline ecotones shape the distribution of avian species richness and functional diversity in south temperate mountains. Scientific Reports, 10, 18428.CrossRefGoogle ScholarPubMed
Ammon, E.M. (1995) Reproductive Strategies and Factors determining Nest Success in Subalpine Ground-Nesting Passerines. PhD Thesis, University of Colorado, Boulder.Google Scholar
Angelstam, P., Lindström, E. & Widén, P. (1984) Role of predation in short-term population fluctuations of some birds and mammals in Fennoscandia. Oecologia, 62, 199208CrossRefGoogle ScholarPubMed
Anger, F., Dorka, U., Anthes, N., Dreiser, C. & Förschler, M.I. (2020) Bestandsrückgang und Habitatnutzung bei der Alpenringdrossel Turdus torquatus alpestris im Nordschwarzwald (Baden-Württemberg). Ornithologischer Beobachter, 117, 3853.Google Scholar
Bader, M.Y., Llambì, L.D., Case, B.S., et al. (2020) A global framework for linking alpine-treeline ecotone patterns to underlying processes. Ecography, 43, 124.Google Scholar
Barras, A.G., Marti, S., Ettlin, S., et al. (2020) The importance of seasonal environmental factors in the foraging habitat selection of Alpine Ring Ouzels Turdus torquatus alpestris. Ibis, 162, 505519.Google Scholar
Barras, A.G., Liechti, F. & Arlettaz, R. (2021a) Seasonal and daily movement patterns of an alpine passerine suggest high flexibility in relation to environmental conditions. Journal of Avian Biology, 52, e02860.Google Scholar
Barras, A.G., Niffenegger, C.A., Candolfi, I., Hunziker, Y.A. & Arlettaz, R. (2021b) Nestling diet and parental food provisioning in a declining mountain passerine reveal high sensitivity to climate change. Journal of Avian Biology, 52, e02649Google Scholar
Barras, A.G., Braunisch, V. & Arlettaz, R. (2021c) Predictive models of distribution and abundance of a threatened mountain species show that impacts of climate change overrule those of land use change. Diversity and Distributions, 27, 989–1004.Google Scholar
Bazzi, G., Foglini, C., Brambilla, M., Saino, N. & Rubolini, D. (2015) Habitat management effects on Prealpine grassland bird communities. Italian Journal of Zoology, 82, 251261.Google Scholar
Bondur, V.G., Mokhov, I.I., Voronova, O.S. & Sitnov, S.A. (2020) Satellite monitoring of Siberian wildfires and their effects: features of 2019 anomalies and trends of 20-year changes. Doklady Earth Sciences, 492, 370375.Google Scholar
Borsdorf, A. & Stadel, C. (2015) The Andes: A Geographical Portrait. Cham: Springer.Google Scholar
Braunisch, V., Patthey, P. & Arlettaz, R. (2016) Where to combat shrub encroachment in Alpine timberline ecosystems: combining remotely sensed vegetation information with species habitat modelling. PLoS ONE, 11, e0164318.CrossRefGoogle ScholarPubMed
Brambilla, M. & Pedrini, P. (2016) Modelling at the edge: habitat types driving the occurrence of common forest bird species at the altitudinal margin of their range. Ornis Fennica, 93, 8899.Google Scholar
Boyle, A.W. & Martin, K. (2015) The conservation value of high elevation habitats to North American migrant birds. Biological Conservation, 192, 461476.Google Scholar
Chamberlain, D.E., Bocca, M., Migliore, L., Caprio, E. & Rolando, A. (2012) The dynamics of alternative male mating tactics in a population of Black Grouse Tetrao tetrix in the Italian Alps. Journal of Ornithology, 153, 999–1009.Google Scholar
Chamberlain, D.E., Negro, M., Caprio, E. & Rolando, A. (2013) Assessing the sensitivity of alpine birds to potential future changes in habitat and climate to inform management strategies. Biological Conservation, 167, 127135.Google Scholar
Chamberlain, D.E., Pedrini, P., Brambilla, M., Rolando, A. & Girardello, M. (2016) Identifying key conservation threats to Alpine birds through expert knowledge. PeerJ, 4, e1723.Google Scholar
Ciach, M. & Mrowiec, W. (2013) Habitat selection of the Ring Ouzel Turdus torquatus in the Western Carpathians: the role of the landscape mosaic. Bird Study, 60, 2234Google Scholar
Cukor, J., Linda, R., Andersen, O., et al. (2021) Evaluation of spatio-temporal patterns of predation risk to forest grouse nests in the central European mountain regions. Animals, 11, 316.Google Scholar
Davies, N.B. (1992) Dunnock Behaviour and Social Evolution. Oxford: Oxford University Press.CrossRefGoogle Scholar
Dehling, D.M., Fritz, S.A., Töpfer, T., et al. (2014) Functional and phylogenetic diversity and assemblage structure of frugivorous birds along an elevational gradient in the tropical Andes. Ecography, 37, 10471055.Google Scholar
DeLuca, W.V. & King, D.I. (2017) Montane birds shift downslope despite recent warming in the northern Appalachian Mountains. Journal of Ornithology, 158, 493505.Google Scholar
den Herder, M., Virtanen, R. & Roininen, H. (2008) Reindeer herbivory reduces willow growth and grouse forage in a forest-tundra ecotone. Basic and Applied Ecology, 9, 324331.Google Scholar
DeSante, D.F. & Saracco, J.F. (2021) Climate variation drives dynamics and productivity of a subalpine breeding bird community. Ornithological Applications, 123, 116.Google Scholar
Estades, C.F. (1997) Bird-habitat relationships in a vegetational gradient in the Andes of central Chile. Condor, 99, 719727.Google Scholar
Evdokimenko, M.D. (2009) Pyrogenic digression of larch forests of Transbaikalia and Northern Mongolia. Forest Journal, 4, 1218. [In Russian]Google Scholar
Farber, S.K. (2012) Impact of fires on forests of Eastern Siberia. Forest Taxation and Forest Management, 1, 131141. [In Russian]Google Scholar
Fjeldså, J. & Irestedt, M. (2009) Diversification of the South American avifauna: patterns and implications for conservation in the Andes. Annals of the Missouri Botanical Garden, 96, 398409.Google Scholar
Freeman, B.G., Scholer, M.N., Ruiz-Gutierrez, V. & Fitzpatrick, J.W. (2018) Climate change causes upslope shifts and mountaintop extirpations in a tropical bird community. Proceedings of the National Academy of Sciences, 115, 11982–11987.Google Scholar
Fumy, F. & Fartmann, T. (2021) Climate and land-use change drive habitat loss in a mountain bird species. Ibis, 163, 11891206.Google Scholar
Gamova, N.S. (2014) Post-fire vegetation changes of Central Khamar-Daban (Southern Baikal Region). Problems of Botany of South Siberia and Mongolia – XII International Scientific and Practical Conference, pp. 5559. [In Russian]Google Scholar
García-Moreno, J., Arctander, P. & Fjeldså, J. (1999) A case of rapid diversification in the Neotropics: phylogenetic relationships among Cranioleuca spinetails (Aves: Furnariidae). Molecular Phylogenetics and Evolution, 12, 273281.CrossRefGoogle ScholarPubMed
García-Navas, V., Sattler, T., Schmid, H. & Ozgul, A. (2020) Temporal homogenization of functional and beta diversity in bird communities of the Swiss Alps. Diversity and Distributions, 26, 900911.Google Scholar
Gehrig-Fasel, J., Guisan, A. & Zimmermann, N.E. (2007) Tree line shifts in the Swiss Alps: climate change or land abandonment? Journal of Vegetation Science, 18, 571582.Google Scholar
Golovatin, M.G. & Paskhalny, S.P. (2005) Birds of the Polar Urals. Ekaterinburg: Ural University Publishing House. [In Russian]Google Scholar
Green, K. & Pickering, C.M. (2002) A scenario for mammal and bird diversity in the Snowy Mountains of Australia in relation to climate change. In Mountain Biodiversity. A Global Assessment. Körner, C. & Spehn, E.M. (eds.). London: Parthenon, pp. 239248.Google Scholar
Griffin, S.C., Walker, B.L. & Hart, M.M. (2003) Using GIS to guide field surveys for timberline sparrows in northwest Montana. Northwest Science, 77, 5463.Google Scholar
Harsch, M.A., Hulme, P.E., McGlone, M.S. & Duncan, R.P. (2009) Are treelines advancing? A global meta-analysis of treeline response to climate warming. Ecology Letters, 12, 10401049.Google Scholar
Henden, J.A., Ims, R.A., Fuglei, E. & Pedersen, Å.Ø. (2017) Changed Arctic-alpine food web interactions under rapid climate warming: implication for ptarmigan research. Wildlife Biology, SP1, 111.Google Scholar
Herzog, S.K., Kessler, M. & Back, K. (2005) The elevational gradient in Andean bird species richness at the local scale: a foothill peak and a high-elevation plateau. Ecography, 28, 209222.Google Scholar
Hoch, G. & Körner, C. (2005) Growth, demography and carbon relations of Polylepis trees at the world’s highest treeline. Functional Ecology, 19, 941951.Google Scholar
Iijima, D. & Morimoto, G. (2021) Bird community heterogeneity along four gradients of different orientations on a temperate mountain. Ornithological Science, 20, 6582.Google Scholar
Ims, R.A., Henden, J.-A., Strømeng, M.A., et al. (2019) Arctic greening and bird nest predation risk across tundra ecotones. Nature Climate Change, 9, 607610Google Scholar
Jähnig (2019) Effects of Vegetation Structure and Microclimate on the Bird Community of an Alpine Treeline Ecotone. PhD Thesis, University of Turin.Google Scholar
Jähnig, S., Alba, R., Vallino, C., et al. (2018) The contribution of broadscale and finescale habitat structure to the distribution and diversity of birds in an Alpine forest-shrub ecotone. Journal of Ornithology, 159, 747759.CrossRefGoogle Scholar
Jähnig, S., Sander, M.M., Caprio, E., et al. (2020) Microclimate affects the distribution of grassland birds, but not forest birds, in an alpine environment. Journal of Ornithology, 161, 677689.Google Scholar
Jambor, R., Baláž, M. & Kocian, L. (2011) Contribution to the knowledge of nest success of the Hedge Sparrow (Prunella modularis) in a sub-alpine zone of the Malá Fatra Mts. (NW Slovakia). Tichodroma, 23, 712.Google Scholar
Jankowski, J.E., Merkord, C.L., Farfan Rios, W., et al. (2012) The relationship of tropical bird communities to tree species composition and vegetation structure along an Andean elevational gradient. Journal of Biogeography, 40, 950962.Google Scholar
Kark, S. Allnutt, T.S., Levin, N., Manne, L.L. & Williams, P.H. (2007) The role of transitional areas as avian biodiversity centres. Global Ecology and Biogeography, 16, 187196.Google Scholar
Kendeigh, S.C. & Fawver, B.J. (1981) Breeding bird populations in the Great Smoky Mountains, Tennessee and North Carolina. Wilson Bulletin, 93, 218242.Google Scholar
Kessler, M. & Herzog, S.K. (1998) Conservation status in Bolivia of timberline habitats, elfin forest and their birds. Cotinga, 10, 5054.Google Scholar
Kessler, M., Herzog, S.K., Fjeldså, J. & Bach, K. (2001) Species richness and endemism of plant and bird communities along two gradients of elevation, humidity and land use in the Bolivian Andes. Diversity and Distributions, 7, 6177.Google Scholar
Klausen, K.B., Pedersen, Å.Ø., Yoccoz, N.G. & Ims, R.A. (2010) Prevalence of nest predators in a sub-Arctic ecosystem. European Journal of Wildlife Research, 56, 221232.CrossRefGoogle Scholar
Kishchinsky, A.A. (1980) Birds of the Koryak Upland. Moscow: Nauka. [In Russian]Google Scholar
Knaus, P., Antoniazza, S., Wechsler, S., et al. (2018) Swiss Breeding Bird Atlas 2013–2016. Distribution and Population Trends of Birds in Switzerland and Liechtenstein. Sempach: Swiss Ornithological Institute.Google Scholar
Komac, B., Esteban, P., Trapero, L. & Caritg, R. (2016) Modelization of the current and future habitat suitability of Rhododendron ferrugineum using potential snow accumulation. PLoS ONE, 11, e0147324.Google Scholar
Körner, C. (2003) Alpine Plant Life. Berlin: Springer.Google Scholar
Körner, C. (2007) Climatic treelines: conventions, global patterns, causes. Erdkunde, 61, 316324.Google Scholar
Körner, C. (2012) Alpine Treelines. Functional Ecology of the Global High Elevation Tree Limits. Basel: Springer.Google Scholar
Körner, C. & Paulsen, J. (2004) A world-wide study of high altitude treeline temperatures. Journal of Biogeogeography, 31, 713732.CrossRefGoogle Scholar
Kvasnes, M.A.J., Pedersen, H.C., Storaas, T. & Nilsen, E.B. (2017) Vegetation type and demography of low density willow ptarmigan populations. The Journal of Wildlife Management, 81, 174181.Google Scholar
Laiolo, P. (2004) Diversity and structure of the bird community overwintering in the Himalayan subalpine zone: is conservation compatible with tourism? Biological Conservation, 115, 251262.Google Scholar
Laiolo, P. & Rolando, A. (2005) Forest bird diversity and ski-runs: a case of negative edge effect. Animal Conservation, 7, 916.Google Scholar
Laiolo, P., Dondero, F., Ciliento, E. & Rolando, A. (2004) Consequences of pastoral abandonment for the structure and diversity of the alpine avifauna. Journal of Applied Ecology, 41, 294304.Google Scholar
Lehikoinen, A., Green, M., Husby, M., Kålås, J.A. & Lindström, Å. (2014) Common montane birds are declining in northern Europe. Journal of Avian Biology, 45, 314.Google Scholar
Lewis, K.P. & Starzomski, B.M. (2015) Bird communities and vegetation associations across a treeline ecotone in the Mealy Mountains, Labrador, which is an understudied part of the boreal forest. Canadian Journal of Zoology, 93, 477486.Google Scholar
Lichtenberger, E. (1994) Die Alpen in Europa. Österreochiske Academie der Wissenshaften. Veröffentlichungen der Kommision für Humanökologie, 5, 5386.Google Scholar
Lloyd, H., Sevillano-Ríos, S., Marsden, S.J. & Valdéz-Velásquez, A. (2012) Bird community composition across an Andean tree-line ecotone. Austral Ecology, 37, 470478.Google Scholar
Lu, X., Liang, E., Wang, Y., Babst, F. & Camarero, J.J. (2021) Mountain treelines climb slowly despite rapid climate warming. Global Ecology and Biogeography, 30, 305315.CrossRefGoogle Scholar
Martin, T.E. & Karr, J.R. (1986) Patch utilization by migrating birds: resource orientated? Ornis Scandinavica, 17, 165174.Google Scholar
Martin, K.M., Altamirano, T.A., de Zwaan, D.R., et al. (2021) Avian ecology and community structure across elevation gradients: the importance of high latitude temperate mountain habitats for conserving biodiversity in the Americas. Global Ecology and Conservation, 30, e01799.CrossRefGoogle Scholar
Masoero, G., Maurino, L., Rolando, A. & Chamberlain, D. (2016) The effect of treeline proximity on predation pressure: an experiment with artificial nests along elevational gradients in the European Alps. Bird Study, 63, 395405.Google Scholar
Miehe, G., Miehe, S. & Schültz, F. (2009) Early human impact in the forest ecotone of southern High Asia (Hindu Kush, Himalaya). Quaternary Research, 71, 255265.Google Scholar
Melikhova, E.V. (2018) Geography of Bird Fauna of North-East Siberia Mountains. PhD thesis, Lomonosov Moscow State University, Moscow. [In Russian]Google Scholar
Mikhailov, K.E. (2020) Small songbirds in the high belts of the Himalayas (Nepal): vertical distribution and biotope selection mechanism. In Nepal: A View from Russia. Collection of Scientific and Popular Science Articles, pp. 163–181. [In Russian]Google Scholar
Mollet, P., Bollmann, K., Braunisch, V. & Arlettaz, R. (2018) Subalpine coniferous forests of Europe. Avian communities in European high-altitude woodlands. In Ecology and Conservation of Forest Birds. Mikusiński, G., Roberge, J.-M. & Fuller, R.J. (eds.). Cambridge: Cambridge University Press, pp. 231252.CrossRefGoogle Scholar
Morton, M.L., Sockman, K.W. & Peterson, L.E. (1993) Nest predation in the Mountain White-Crowned Sparrow. Condor, 95, 7282.CrossRefGoogle Scholar
Morton, M.L., Pereyra, M.E., Crandall, J.D., MacDougall-Shackleton, E.A. & Hahn, T.P. (2004) Reproductive effort and return rates in the Mountain White-Crowned Sparrow. Condor, 106, 131138.Google Scholar
Naccarella, A., Morgan, J.W., Cutler, S.C. & Venn, S.E. (2020) Alpine treeline ecotone stasis in the face of recent climate change and disturbance by fire. PLoS ONE, 15, e0231339.Google Scholar
Nagy, L. & Grabherr, G. (2009) The Biology of Alpine Habitats. Oxford: Oxford University Press.Google Scholar
Novoa, F.J., Altamirano, T.A., Bonacic, C., Martin, K. & Ibarra, J.T. (2021) Fire regimes shape biodiversity: responses of avian guilds to burned forests in Andean temperate ecosystems of southern Chile. Avian Conservation and Ecology, 16, 22.Google Scholar
Odum, E.P. & Barrett, G.W. (2005) Fundamentals of Ecology (5th Edition). Belmont: Brooks/Cole.Google Scholar
Patterson, B.D., Stolz, D.F., Solari, S., Fitzpatrick, J.W. & Pacheco, V. (1993) Contrasting patterns of elevational zonation for birds and mammals in the Andes of southeastern Peru. Journal of Biogeography, 25, 593607.Google Scholar
Patthey, P., Signorell, N., Rotelli, L. & Arlettaz, R. (2012) Vegetation structural and compositional heterogeneity as a key feature in Alpine Black Grouse microhabitat selection: conservation management implications. European Journal of Wildlife Research, 58, 5970.Google Scholar
Pospelov, I.N. (2007) Avifauna of the Western part of the Anabar Plateau. In Biodiversity of Ecosystems of the Putorana Plateau and Adjacent Territories. Collection of Scientific Papers, pp. 114–153. [In Russian]Google Scholar
Quispe-Melgar, H.R., Sevillano-Ríos, C.S., Romo, , et al. (2020) The Central Andes of Peru: a key area for the conservation of Polylepis forest biodiversity. Journal of Ornithology, 161, 217228.Google Scholar
Rahbek, C. (1995) The elevational gradient of species richness: a uniform pattern? Ecography, 18, 200205.Google Scholar
Requena, E., Alba, R. & Chamberlain, D. (2022) Avalanche tracks are key habitats for the Rock Bunting Emberiza cia in the Alps. Ardeola, 69, 203217.Google Scholar
Robbins, M.B., Krabbe, N., Rosenberg, G.H. & Molina, F.S. (1994) The treeline avifauna at Cerro Mongus, Prov. Carchi, Northeastern Ecuador. Proceedings of the Academy of Natural Sciences of Philadelphia, 145, 209216.Google Scholar
Rocchia, E., Luppi, M., Dondino, O., Orioli, V. & Bani, L. (2018) Can the effect of species ecological traits on birds’ altitudinal changes differ between geographic areas? Acta Oecologica, 92, 2634.Google Scholar
Rodewald, P.G. & Brittingham, M.C. (2004) Stopover habitats of landbirds during fall: use of edge-dominated and early-successional forests. Auk, 121, 10401055.Google Scholar
Romanov, A.A. (2003) Avifauna of the Lake Basins of the Western Putorana Plateau. Moscow: Chermetinformatsiya Printing House. [In Russian]Google Scholar
Romanov, A.A. (2013) Bird Fauna of the Mountains of the Asian Subarctic: Principles of Development and Dynamics. Moscow: Birds Russia. [In Russian]Google Scholar
Romanov, A.A., Koblik, E.A., Melikhova, E.V., et al. (2016) Richness in bird species of the Eastern Himalayas in early spring. Contemporary Problems of Ecology, 9, 529534.Google Scholar
Romanov, A.A., Tarasov, V.V., Melikhova, E.V., Timchenko, A.S., Zarubina, M.A. & Yakovlev, V.O. (2018) Avifauna of the Lake Bogatyr-Khuolu basin (the northwest of the Putorana Plateau, the Krasnoyarsk region). Fauna of the Urals and Siberia, 2, 92104. [In Russian]Google Scholar
Romanov, A.A., Melikhova, E.V. & Zarubina, M.A. (2019a) Birds of North Asia Mountains: 2010–2018 Research Results. Moscow: Birds Russia. [In Russian]Google Scholar
Romanov, A.A., Melikhova, E.V., Zarubina, M.A., Miklin, N.A. & Yakolev, V.O. (2019b) Avifauna of mountains in Northeastern Siberia. Contemporary Problems of Ecology, 12, 339345.CrossRefGoogle Scholar
Romanov, A.A., Astakhova, M.A., Miklin, N.A. & Shemyakin, E.V. (2019c) Geography of avifauna in the northern parts of the Koryak Highland. Moscow University Bulletin. Series 5. Geography, 1, 5360. [In Russian]Google Scholar
Romanov, A.A., Melikhova, E.V., Miklin, N.A. & Yakovlev, V.O. (2019d) An analysis of the bird fauna and population in the southern spurs of Kolyma Highland. Zoological Journal, 98, 915927. [In Russian]Google Scholar
Sabo, S.R. (1980) Niche and habitat relations in bird communities of the White Mountains of New Hampshire. Ecological Monographs, 50, 241259.Google Scholar
Selivanova, N.P. (2002) Current status and distribution of birds in the altitudinal belts of the Subpolar Urals. Komi Institute of Biology SC UB RAS Bulletin, 7, 1013. [In Russian]Google Scholar
Sevillano-Ríos, C.S. & Rodewald, A.D. (2017) Avian community structure and habitat use of Polylepis forests along an elevation gradient. PeerJ, 5, e3220.Google Scholar
Sevillano-Ríos, C.S. & Rodewald, A.D. (2021) Responses of Polylepis birds to patch and landscape attributes in the High Andes. Neotropical Biodiversity, 7, 522.Google Scholar
Sevillano-Ríos, C.S., Rodewald, A.D. & Morales, L.V. (2018) Ecología y conservación de las aves asociadas con Polylepis: ¿qué sabemos de esta comunidad cada vez más vulnerable? Ecología Austral, 28, 216228.Google Scholar
Sevillano-Ríos, C.S., Rodewald, A. & Morales, L.V. (2020) Alpine birds of South America. In Encyclopedia of the World’s Biomes. Goldstein, M.I. & DellaSalla, D.A. (eds.). Amsterdam: Elsevier.Google Scholar
Shemyakin, E.V., Vartapetov, L.G., Isaev, A.P., Larionov, A.G. & Egorov, N.N. (2021) An analysis of the avifauna of the Aldan Highlands, northeast of the Baikal Mountainous Country. Zoological Journal, 100 , 770789. [In Russian]Google Scholar
Terborgh, J. (1977) Bird species diversity on an Andean elevational gradient. Ecology, 58, 10071019.Google Scholar
Tingley, M.W., Koo, M.S., Moritz, C., Rush, A.C. & Beissinger, S.R. (2012) The push and pull of climate change causes heterogeneous shifts in avian elevational ranges. Global Change Biology, 18, 32793290.Google Scholar
Tsvetkov, P.A. & Buryak, L.V. (2014) Studies of fire nature in the forests of Siberia. Siberian Journal of Forest Science, 3, 2542. [In Russian]Google Scholar
Tsybulin, S.M. (2009) The Birds of Altai: The Spatiotemporal Differentiation and the Community Structure and Organization. Novosibirsk: Nauka. [In Russian]Google Scholar
Valencia, B.G., Bush, M.B., Coe, A.L., Orren, E. & Gosling, W.D. (2018) Polylepis woodland dynamics during the last 20,000 years. Journal of Biogeography, 45, 10191030.Google Scholar
von dem Bussche, J., Spaar, R., Schmid, H. & Schröder, B. (2008) Modelling the recent and potential future spatial distribution of the Ring Ouzel (Turdus torquatus) and Blackbird (T. merula) in Switzerland. Journal of Ornithology, 149, 529544.Google Scholar
Willebrand, T. & Marcström, V. (1988) On the danger of using dummy nests to study predation. Auk, 105, 378379.Google Scholar
Zhang, K., Yang, N., Xu, Y., et al. (2011) Nesting behaviour of Szechenyi’s Monal-Partridge in treeline habitats, Pamuling Mountains China. Wilson Journal of Ornithology, 123, 9396.Google Scholar

Save book to Kindle

To save this book to your Kindle, first ensure coreplatform@cambridge.org is added to your Approved Personal Document E-mail List under your Personal Document Settings on the Manage Your Content and Devices page of your Amazon account. Then enter the ‘name’ part of your Kindle email address below. Find out more about saving to your Kindle.

Note you can select to save to either the @free.kindle.com or @kindle.com variations. ‘@free.kindle.com’ emails are free but can only be saved to your device when it is connected to wi-fi. ‘@kindle.com’ emails can be delivered even when you are not connected to wi-fi, but note that service fees apply.

Find out more about the Kindle Personal Document Service.

Available formats
×

Save book to Dropbox

To save content items to your account, please confirm that you agree to abide by our usage policies. If this is the first time you use this feature, you will be asked to authorise Cambridge Core to connect with your account. Find out more about saving content to Dropbox.

Available formats
×

Save book to Google Drive

To save content items to your account, please confirm that you agree to abide by our usage policies. If this is the first time you use this feature, you will be asked to authorise Cambridge Core to connect with your account. Find out more about saving content to Google Drive.

Available formats
×