Строение и функционирование жаберной крышки и бранхиостегальных лучей у Teleostei

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Abstract

Приведён сравнительный анализ разнообразия конструкции жаберной крышки и бранхиостегальных лучей у Teleostei. Систематизированы варианты строения этих костных структур в зависимости от особенностей их функционирования при питании и дыхании. Описана морфология основных мускулов жаберной крышки. Обсуждаются особенности работы m. levator operculi. Описаны функциональные причины, которые лежат в основе тенденции к уменьшению operculum и формированию мускульной жаберной крышки. Обозначены возможные факторы, влияющие на изменение формы и расположения костей жаберной крышки и бранхиостегальных лучей.

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About the authors

Е. С. Громова

Московский государственный университет

Author for correspondence.
Email: zhenya_s@inbox.ru
Russian Federation, Москва

В. В. Махотин

Московский государственный университет

Email: zhenya_s@inbox.ru
Russian Federation, Москва

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2. Fig. 1. Generalized version of the structure and location of the opercular bones and branchiostegal rays using the example of the common pike perch Sander lucioperca (after: Dzerzhinsky et al., 2013. Figure used with the permission of OOO Educational and Publishing Center “Academy”). Here and in Fig. 2–4 bones of the gill cover: o – operculum, so – suboperculum, int – interoperculum; art – anguloarticulare, bhy – basihyale, d – dentale, ect – ectopterygoideum, ent – entopterygoideum, f – frontale, hy – hyoideum, hyom – hyomandibulare, li – lig. interoperculo-mandibulare, lo – m. levator opercluli, mt – metapterygoideum, mx – maxillare, neur – neurocranium, orb – orbitale, pal – palatinum, prmx – praemaxillare, prop – praeoperculum, q – quadratum, rbr – radii branchiostegii, sy – symplecticum; () – displacement of the opercular bones during contraction of m. levator operculi.

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3. Fig. 2. Variation in the size of the bones that make up the operculum in Teleostei (in comparison with the length of the neurocranium): a – large and wide operculum of the stargazer Ichthyscopus lebeck (after: Vilasri, 2013. Figure published with permission of the School of Fisheries Sciences, Hokkaido University); b – extremely small operculum of Stomias lampropeltis (after: Fink, 1985. Figure used with permission of the Museum of Zoology, University of Michigan). Scale: a – 1 cm.

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4. Fig. 3. Diversity of operculum shape in representatives of Teleostei: a – fork-shaped operculum of the anglerfish Lophius americanus with a ventral notch (after: Farina, Bemis, 2016); b – part of the operculum plate of Thaumatichthys binghami is fragmented into soft, weakly ossifying outgrowths (after Bertelsen, Struhsaker, 1977. Figure used with permission of the Natural History Museum of Denmark). Scale: b – 1 cm.

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5. Fig. 4. Reorientation of the operculum relative to its location in relation to the neurocranium in generalized representatives: a – ventrally oriented operculum of the lithogenus Lithogenes wahari (after: Schaefer, Provenzano, 2008), b – dorsocaudally displaced operculum of the bathymicrops regis (after: Sulak, 1977. Figure used Courtesy of Natural History Museum of Denmark). Scale: 1 cm.

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6. Fig. 5. The muscular gill cover of the moray eel Anarchias allardicei (after: Eagderi, 2010), formed by an overgrown muscle “bag” mm. hyohyoidei, which serve the branchiostegal rays: am–m. adductor mandibulae, epx – m. epaxialis, mhyo – mm. hyohyoidei; ost. for designations see fig. 1. Scale: 1 mm.

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