1943
DOI: 10.1007/bf00523346
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Beitrag zur Kenntnis der Morphologie und Entwicklungsgeschichte des Chiropterencraniums. Das Chondrocranium von Pteropus semindus

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Cited by 18 publications
(3 citation statements)
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“…There are two overarching goals for this study. First, since pteropodids studied to date have a relatively unspecialized internal nasal morphology (Allen, 1882; Giannini et al, 2012; Starck, 1943), nasal capsule ontogeny in Rousettus may offer context to recognize developmental distinctions with more specialized bats, few of which have been studied ontogenetically to date (e.g., Myotis— Frick, 1954, as discussed in Zeller, 1987; Rhinolophus— Usui & Tikita, 2019). Second, in light of recent studies indicating postnatal plasticity of certain turbinals or parts of turbinals (Coppola, Craven, Seeger, & Weiler, 2014; Pang et al, 2016; Smith et al, 2007; Smith, Martell, Rossie, Bonar, & DeLeon, 2016; Van Valkenburgh et al, 2014), it may be possible to infer predominant mechanisms influencing internal nasal morphology that are specific to a certain life stage or contiguous stages.…”
Section: Introductionmentioning
confidence: 99%
“…There are two overarching goals for this study. First, since pteropodids studied to date have a relatively unspecialized internal nasal morphology (Allen, 1882; Giannini et al, 2012; Starck, 1943), nasal capsule ontogeny in Rousettus may offer context to recognize developmental distinctions with more specialized bats, few of which have been studied ontogenetically to date (e.g., Myotis— Frick, 1954, as discussed in Zeller, 1987; Rhinolophus— Usui & Tikita, 2019). Second, in light of recent studies indicating postnatal plasticity of certain turbinals or parts of turbinals (Coppola, Craven, Seeger, & Weiler, 2014; Pang et al, 2016; Smith et al, 2007; Smith, Martell, Rossie, Bonar, & DeLeon, 2016; Van Valkenburgh et al, 2014), it may be possible to infer predominant mechanisms influencing internal nasal morphology that are specific to a certain life stage or contiguous stages.…”
Section: Introductionmentioning
confidence: 99%
“…Most Insectivora have a similar structure [40]; (4) The nasal bones (os nasale) are clearly separated from one another in juvenile specimens but fused together in adult animals. In many Megachiroptera, the nasal bones remain free throughout their entire life, but, in some species, they form a single, unpaired nasal bone [3,[41][42][43][44]. The nasal bones are usually narrow and elongated in Megachiroptera, and wide and short in Microchiroptera [16,45].…”
Section: Discussionmentioning
confidence: 99%
“…Obwohl n. Sanderson (1956) Fawcett (1919, i. Henckel, 1929, fur Myotis myotis bei Frick (1954), fiir teropus seminudus, Rousettus leschenaulti, Rhinolophus hipposideros und R. rouxii ïjei Starck (1942Starck ( , 1952, fiir Rhinolophus rouxii ausserdem bei Sitt (1943). Schneider (1957) RussELL (1962) Jones (1945), Jones (1946) i.A.…”
Section: Chiroptera T Itunclassified