Preview

Trudy VNIRO

Advanced search

On the relationship between hypertrophy and hyperplasia of muscle fibers in postnatal myogenesis in fish of the Cyprinid family

https://doi.org/10.36038/2307-3497-2021-185-45-56

Abstract

The concept of muscle tissue growth as a chain of successive interdependent events makes it possible to develop a system of regulatory factors influencing the nutrition and growth of fish, their health and productive qualities. In bony fish, the primary and secondary generation of muscle fibers occurs at the embryonic and postembryonic stages of development, respectively. Unlike mammals and birds, the postnatal development of fish is accompanied by hypertrophy and hyperplasia of muscle tissues throughout their life, which determines the specificity of the growth of their muscle tissue and affects the quality of fish fillets. With an increase in the fiber area over 3500 µm2 with a simultaneous increase in the density of myofibrils up to 4.901 per 1 µm2 in underyearlings and in two-year-old carp fishes (carp, grass carp and silver carp), longitudinal splitting of fibers was observed. It has been shown that the formation of muscle tissue is accompanied by sustained oscillatory processes: tension and recovery within a single hypercycle of growth processes at different levels: at the level of myofibrils and muscle fibers, thus hyperplasia and hypertrophy of muscle fibers are not separated in time and space, but naturally replace each other, providing a common myogenic task — the growth of fish and its muscle tissue. The question of their relationship requires additional research in the future.

About the Author

E. I. Shilo
Belgorod State Agrarian University («Belgorod SAU»)
Russian Federation

Belgorod



References

1. Kabanov V. D. 1973. Biologicheskie osnovy povysheniya skorosti rosta i uluchsheniya myasnykh kachestv v svinej [Biological basis for increasing growth rate and improving meat quality in pigs.]. Diss. … dok. Sel’skokhoz. nauk. Elgava: Latvijskaya ASKHN. 352 s.

2. Mikodina E.V., Sedova M.A., Chmilevskij A.A. 2009. Gistologiya dlya ikhtiologov [Histology for Ichthyologists]. M.: VNIRO. 112 s.

3. Panov V. P., Falij S. S., Esavkin Yu.I., Zhigin A. V. 2018. Rost i razvitie myshts amerikanskogo gol’tsa v razlichnye periody ontogeneza [Muscle growth and development of аmerican char in different periods of ontogenesis] // Trudy VNIRO. T.171. S. 106–115

4. Shilo E. I. 2016. Rost i razvitie skeletnoj muskulatury karpovykh ryb v postnatal’nom ontogeneze [Growth and development of skeletal muscles of cyprinids in postnatal ontogenesis]. Diss. … kand. biol. nauk. M.: MGAVMB im. Skryabina. 121s.

5. Yarzhombek A. A., Shilo E. I. 2017. Kletochnyj rost muskulatury karpa (kratkoe soobshchenie) [Cellular growth of carp musculature] // Trudy VNIRO. T. 166. S. 81–83.

6. Alami-Durante H. 1990. Growth of organs and tissues in carp (Cyprinus carpio L.) larvae // Growth Development and Aging. Vol. 54. P. 109–116.

7. Alami-Durante H. Fauconneau B., Rouel M., Escaffre A. M., Bergot P. 1997. Growth and multiplication of white skeletal muscle fibres in carp larvae in relation to somatic growth rate // Fish. Biol. Vol. 50. Р. 1285–1302.

8. Alami-Durante H., Rescan P.Y. 2003. Typologie et ontogenèse des fibres musculaires chez les poissons // Productions Animales. Vol. 16(2). P. 145–155.

9. Alami-Durante H., Cluzeaud M. 2019. Muscle growth mechanisms in response to isoenergetic changes in dietary non-protein energy source at low and high protein levels in juvenile rainbow trout // Comparative Biochemistry and Physiology. P. A: Molecular & Integrative Physiology. V. 230. P. 91–99.

10. Cohnheim J. F. 1865. Über den feineren Bau der quergestreiften Muskelfaser // Virchows Archiv. № 34. Р. 606–622.

11. Fauconneau B., Alami-Durante H. 1995. Growth and meat quality relations in carp // Aquaculture. Vol. 129. P. 265–297.

12. Goldspink G., Wilkes D., Ennion S. 2001. Myosin expression during ontogeny, post-hatching growth, and adaptation // Muscle Development and Growth / ed. Johnston I.A. San Diego, CA: Academic Press. P. 43–72.

13. Johnston I. A. 2006. Environment and plasticity of myogenesis in teleost fish // J. Exp. Biol. № 209. Р. 2249–2264.

14. Koumans J. T.M., Akster H. A. 1995. Myogenic cells in development and growth of fish // Comp. Biochem. Physiol. Vol. 110 A. P. 3–20.

15. Listrat A., Lebret B., Louveau I. 2015. Comment la structure et la composition du muscledéterminent la qualité des viandes ou chairs? // ProductionsAnimales. Numéro spécial: Le muscle et la viande. Vol. 28. No 2. Р. 125–136.

16. Picard B., Lefaucheur L., Berri C., Duclos M.J. 2002 Muscle fibre ontogenesis in farm animal species // Reproduction Nutrition Development, EDP Sciences. № 42 (5). Р. 415–431.

17. Rossi G., Messina G. 2014. Comparative myogenesis in teleosts and mammals // Cellular and Molecular Life Sciences. № 71. Р. 3081–3099

18. Rowlerson A., Veggetti A. 2001. Cellular mechanisms of post-embryonic muscle growth // Muscle Development and Growth / ed. Johnston I.A., ed. San Diego, CA: Academic Press. P. 103–140.

19. Slesarenko N., Shilo E., Abramov Р. 2018. Morphological Indicators of Skeletal Muscles in Carp in Case of the Use of Quickened Growth Technology // Research J. of Pharmaceutical, Biological and Chemical Sciences. № 9 (2). Р. 937–943.

20. Stickland N. C., Demirtas B., Clelland K., Ashton C. 2000. Genetic and nutritional influence on muscle growth in farm animals // Comp. Biochem. Physiol. № 126. P. 141.

21. Veggetti A., Mascarello F., Scapolo P.A., Rowlerson A. 1990. Hyperplastic and hypertrophic growth of lateral muscle in Dicentrarchus labrax (L.). An ultrastructural and morphometric study // J. Anatomy and Embryology (Berl) № 82(1). Р.1–10. doi: 10.1007/BF00187522

22. Weatherley A.H., Gill H.S., Lobo A.F. 1988. Recruitment and maximal diameter of axial muscle fibres in teleosts and their relationship to somatic growth and ultimate size // J. Fish Biol. № 33. Р. 851–859.


Review

For citations:


Shilo E.I. On the relationship between hypertrophy and hyperplasia of muscle fibers in postnatal myogenesis in fish of the Cyprinid family. Trudy VNIRO. 2021;185:45-56. (In Russ.) https://doi.org/10.36038/2307-3497-2021-185-45-56



Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.


ISSN 2307-3497 (Print)

По вопросу подписки и приобретения номеров журналов просьба обращаться в ООО «Агентство «КНИГА-СЕРВИС» (т.:  495 – 680-90-88;  E-mail: public@akc.ru  Web: www.akc.ru).