Title: Avian wing/tail morphology: interspecific relations of various indices to each other andto the distance of seasonal migration – preliminary assessment


Hołyński, Roman B.

Date issued/created:

20 VII 2016

Resource type:



Uncensored Scientists Group ; Roman Hołyński

Place of publishing:



24-52 p.

Type of object:



BALMFORD A., I.L. JONES, A.L.R. THOMAS. [1993] 1995a. On avian asymmetry: evidence ofnatural selection for symmetrical tails and wings in birds. [Proc. R. Soc. Lond (B) 252:245-251] In: THOMAS A.L.R. On the tails of birds. PhD. Diss. Lund Univ. [:1-159]: 83-89
BALMFORD A., I.L. JONES, A.L.R. THOMAS. [1994] 1995b. How to compensate for costlysexually selected tails: the origin of sexually dimorphic wings in long-tailed birds.[Evolution 48. 4: 1062-1070] In: THOMAS A.L.R. On the tails of birds. PhD. Diss. LundUniv. [:1-159]: 93-101
BALMFORD A., A.L.R. THOMAS, I.L. JONES. [1993] 1995c. Aerodynamics and the evolutionof long tails in birds. [Nature 361: 628-630] In: THOMAS A.L.R. On the tails of birds.PhD. Diss. Lund Univ. [:1-159]: 65-67
BERTHOLD P., W. FRIEDRICH. 1979. Die Federlänge: ein neues nützliches Flügelmaß.Vogelwarte 30: 11-21
BUSSE P. 1967. Zastosowanie liczbowych współczynników kształtu skrzydła [Application ofthe numerical indexes of the wing-shape]. Not. Orn. 8. 1: 1-8
BUSSE P. 1986. Wskaźniki kształtu skrzydła i problemy związane z ich interpretacją [Wingshapeindices and the problems with their interpretation]. Not. Orn. 27, 3-4: 139-155
CHAN N.R., G.J. DYKE, M.J. BENTON. 2013. Primary feather lengths may not be importantfor inferring the flight styles of Mesozoic birds. Lethaia 46: 146-153
DYKE G., R. DE KAT, C. PALMER, J. VAN DER KINDERE, D. NAISH, B. GANAPATHISUBRAMANI.2013. Aerodynamic performance of the feathered dinosaur Microraptor and theevolution of feathered flight. Nat. Comm. 4, 2489: 1-9
ΓЛAДКOВ H.A. 1949. Биoлoгичecкиe ocнoвы пoлeтa птиц. Maтepиaлы к пoзнaнюфaуны и флopы CCCP – Зooл. (H.C.) 18 (33): 1-248
GOSLER A.G., J.J.D. GREENWOOD, J.K. BAKER, J.R. KING. 1995. A comparison of winglength and primary length as size measures for small passerines. Ringing Migr. 81: 65-78
HAAS W., P. BECK. 1979. Zum Frühjahrszug paläarktischer Vögel über die westliche Sahara.J. Orn. 120, 3: 237-246
HEDENSTRÖM A. 1989. Which wing- index should be used? Ibis 131. 1: 154-164
HEDENSTRÖM A., J. PETTERSSON. 1986. Differences in fat deposits and wing pointednessbetween male and female Willow Warblers caught on spring migration at Ottenby. SESweden. Orn. Scand. 17: 182-185
HOŁYŃSKI R.B. 1965. Metody analizy zmienności formuły skrzydła ptaków [The methods ofanalysis of wing-formula variability]. Not. Orn. 6. 2: 21-25
JENNI L., R. WINKLER. 1989. The feather-length of small passerines: a measurement forwing-length in live birds and museum skins. Bird Study 36: 1-15
JOHANSSON L.C., S. ENGEL, A. KELBER, M. KLEIN HEERENBRINK, A. HEDENSTRÖM. 2013.Multiple leading edge vortices of unexpected strength in freely flying hawkmoth.Scientific Reports 3, 3264: 1-4
KALMÁR Z. 1935. A madár mellcsont-taraja (crista sterni) és a repülés [Az avian sternal crest(crista sterni) and flight]. Budapest: Magánkiadás: 1-26
KIPP F.A. 1959. Der Handflügel-Index als flugbiologische Maß. Vogelwarte 20: 77-86
KЛEЙНEНБEPГ C.E. [ed.]. 1966. Mexaнизмы пoлeтa и opиeнтaции птиц. Mocквa:Haукa: 1-224
KLEINHEERENBRINK M., K. WARFVINGE, A. HEDENSTRÖM. 2016. Wake analysis ofaerodynamic components for the glide envelope of a jackdaw (Corvus monedula). J.Exp. Biol. 219: 1572-1581
ЛEВИН A., C. ΓAВPИЛOВ, Э.И. MИXAЙЛOВ. 1991. Фopмa кpылa птиц и нoвaя мeтoдикaee изучeния. Зooл. Жуpн. 70. 3: 90-96
LOCKWOOD R., J.P. SWADDLE, J.M.V. RAYNER. 1998. Avian wingtip shape reconsidered:wingtip shape indices and morphological adaptations to migration. J. Av. Biol. 29: 273-292
MATYJASIAK P., P.G. JABŁOŃSKI. 2001. Hypothetical mechanisms of the initial evolution ofsexually dimorphic tail streamers in HIRUNDINIDAE. Evol. 55. 2: 446-448
MATYJASIAK P., J. MATYJASIAK, F. DE LOPE, A.P. MØLLER. 2004. Vane emargination ofouter tail feathers improves flight maneuvrability in streamerless hirundines.Hirundinidae. Proc. R. Soc. Lond. (B) 271: 1831-1838
MAYBURY W.J., J.M.V. RAYNER. 2001. The avian tail reduces body parasite drag bycontrolling flow separation and vortex shedding. Proc. R. Soc. Lond. (B) 268: 1405-1410
MAYBURY W.J., J.M.V. RAYNER, L.B. COULDRICK. 2001. Lift generation by the avian tail.Proc. R. Soc. Lond. (B) 268: 1443-1448
MLÍKOVSKÝ J. 1978. Die Flügelformen der Vögel und ihre Auswertung. Vogelwarte 29. 4:268-272
NORBERG U.M.L. 1986. Evolutionary convergence in foraging niche and flight morphologyin insectivorous aerial-hawking birds and bats. Ornis Scand. 17: 253-260
OLSON S.L., A. FEDUCCIA. 1979. Flight capability and the pectoral girdle of Archaeopteryx.Nature 278, 5701: 247-248
PILASTRO A., I. FARRONATO, G. FRACASSO. 1995. The use of feather length as a method formeasuring the wing shape of passerines. Avocetta 19: 213-218
RAYNER J.M.V. 1985. Bounding and undulating flight in birds. J. Theor. Biol. 117: 47-77
RAYNER J.M.V. 1988. Form and function in avian flight. Current Orn. 5: 1-66
RAYNER J.M.V. 1995. Flight mechanics and constraints on flight performance. Isr. J. Zool.41: 321-342
ШECТAКOВA Г.C. 1971. Cтpoeниe кpыльeв и мexaникa пoлeтa птиц. Mocквa: Haукa:1-179
THOMAS A.L.R. 1993. On the aerodynamics of birds’ tails. Phil. Tr. R. Soc. Lond (B) 340:361-380
THOMAS A.L.R. [1993] 1995a. The aerodynamic costs of asymmetry in the wings and tailsof birds: asymmetric birds can’t fly round tight corners. In: On the tails of birds. PhD.Diss. Lund Univ. [:1-159]: 71-79
THOMAS A.L.R. 1995b. On the tails of birds. In: On the tails of birds. PhD. Diss. LundUniv. [:1-159]: 5-25
THOMAS A.L.R. 1995c. The flight of birds that have wings and tail: variable geometryexpands the envelope of flight performance. In: On the tails of birds. PhD. Diss. LundUniv. [:1-159]: 131-145
THOMAS A.L.R. 1995d. Why do birds have tails? The tail as a drag reducing flap, and trimcontrol. In: On the tails of birds. PhD. Diss. Lund Univ. [:1-159]: 149-159
THOMAS A.L.R., A. BALMFORD. 1995. How natural selection shapes birds’ tails. Am. Nat.146. 6: 848-868
TIAINEN J. 1982. Ecological significance of morphometric variation in three sympatricPhylloscopus warblers. Ann. Zool. Fenn. 19: 285-295
TOKITA M. 2015. How the pterosaur got its wings. Biol. Rev. 90, 4: 1163-1178
WANG X., A.J. MCGOWAN, G.J. DYKE. 2011. Avian wing proportions and flight styles: firststep towards predicting the flight modes of Mesozoic birds. PLoS ONE 6, 12: e28672
YOUNG J., S.M. WALKER, R.J. BOMPHREY, G.K. TAYLOR, A.L.R. THOMAS. 2009. Details ofinsect wing design and deformation enhance aerodynamic function and flight efficiency.Science 325: 1549-1552
ZHOU Z.-H., J.O. FARLOW. 2001. Flight capability and habits of Confuciusornis. In: JGAUTHIER & L.F. GALL [eds.]: New perspectives on the origin and early evolution ofbirds. [N.Haven: Peabody MNH]: 237-254







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oai:rcin.org.pl:69231 ; ISSN 2543-7747




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Copyright-protected material. [CC BY 3.0 PL] May be used within the scope specified in Creative Commons Attribution BY 3.0 PL license, full text available at: ; -

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Library of the Museum and Institute of Zoology PAS

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Operational Program Digital Poland, 2014-2020, Measure 2.3: Digital accessibility and usefulness of public sector information; funds from the European Regional Development Fund and national co-financing from the state budget.



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Last modified:

Oct 6, 2020

In our library since:

Mar 8, 2019

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Vol. 1, no 3 (2016) Oct 6, 2020


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