Histological Changes in the Broiler Embryonic Pipping Muscle Between Days 15 and 19 of Incubation


Authors

  • R. Pulikanti Department of Poultry Science, Mississippi State University, Mississippi State, Mississippi, 39762, USA
  • E.D. Peebles Department of Poultry Science, Mississippi State University, Mississippi State, Mississippi, 39762, USA
  • A.O. Sokale Department of Poultry Science, Mississippi State University, Mississippi State, Mississippi, 39762, USA
  • W.R. Maslin College of Veterinary Medicine, Mississippi State University, Mississippi State, Mississippi, 39762, USA

DOI:

https://doi.org/10.3923/ijps.2012.427.432

Keywords:

Broiler, embryo, histology, lymph, pipping muscle

Abstract

Nutritional and metabolic changes in the avian pipping muscle have been discussed by previous researchers. However, there are no reports in the literature on the histology of the embryonic pipping muscle in modern broiler strains. Therefore, the current experiment was conducted to examine histological changes in the embryonic pipping muscle of a modern broiler strain between d 15 and 19 of incubation. Ross x Ross 708 broiler hatching eggs were incubated on 8 replicate tray levels of an incubator. On d 15 and 19 of incubation, 2 embryos per level were extracted and their head and neck portions were preserved. The tissues were processed and stained using standard histological techniques. Subsequently, longitudinal and transverse sections of the embryonic pipping muscles on each of those days were examined under 2x, 4x, 10x, 20x and 40x magnifications. In preparation for hatch between d 15 and 19 of incubation, muscle fiber thickness increased, suggesting protein accretion and nutrient accumulation in the individual muscle fibers. Intra-fascicular muscle fiber density decreased and the inter-fascicular spaces widened and were filled with more cellular and fluid components, suggesting the active and selective infiltration of lymph into the pipping muscle from the surrounding lymph glands. In addition, the inter-fascicular spaces were filled with more cellular debris, which may be a result of muscle cell degeneration, necrosis, or associated apoptotic changes in the actively growing pipping muscle. Results of the current experiment provide an insight into the morphological changes in the pipping muscle during embryogenesis in a modern broiler strain. These together with the other associated changes in the nutritional profiles and the proteome compositions of the pipping muscle, as previously reported from our laboratory, facilitate a more detailed and comprehensive understanding of the various orchestrated cellular, metabolic and physiological events that occur in the pipping muscle of a modern broiler strain during the later part of incubation as the embryo prepares for hatch.

References

Allen, E.R., 1984. The musculus complexus of normal and dystrophic chicken embryos. Poult. Sci., 63: 2087-2093.

Bock, W.J. and R.S. Hikida, 1969. Turgidity and function of the hatching muscle. Am. Midland Nat., 81: 99-106.

Bock, W.J. and R.S. Hikida, 1968. An analysis of twitch and tonus fibers in the hatching muscle. Condor, 70: 211-222.

Fisher, H.I., 1958. The hatching muscle in the chick. Auk, 75: 391-399.

Hayes, V.E. and R.S. Hikida, 1976. Naturally-occurring degeneration in chick muscle development: Ultrastructure of the M. complexus. J. Anat., 122: 67-76.

Harris, H.F., 1900. On the rapid conversion of haematoxylin into haemation in staining reaction. J. Appl. Microse. Lab. Meth., 3: 777-777.

Kristensen, H.K., 1948. An improved method of decalcification. Stain Technol., 23: 151-154.

Mallory, F.B., 1938. Pathological Techniques. W.B. Sauders Publishing Co., Philadelphia, USA.

McClearn, D., R. Medville and D. Noden, 1995. Muscle cell death during the development of head and neck muscles in the chick embryo. Dev. Dyn., 202: 365-377.

Pohlman, A.G., 1919. Concerning the causal factor in the hatching of the chick, with particular reference to the musculus complexus. Anat. Rec., 17: 89-104.

Pulikanti, R., E.D. Peebles, R.W. Keirs, L.W. Bennett, M.M. Keralapurath and P.D. Gerard, 2010. Pipping muscle and liver metabolic profile changes and relationships in broiler embryos on days 15 and 19 of incubation. Poult. Sci., 89: 860-865.

Pulikanti, R., E.D. Peebles and P.D. Gerard, 2011. Physiological responses of broiler embryos to in ovo implantation of temperature transponders. Poult. Sci., 90: 308-313.

Pulikanti, R., E.D. Peebles and P.D. Gerard, 2011. Use of implantable temperature transponders for the determination of air cell temperature, eggshell water vapor conductance and their functional relationships in embryonated broiler hatching eggs. Poult. Sci., 90: 1191-1196.

Parkhurst, C.R. and G.J. Mountney, 1988. Poultry Meat and Egg Production. Van Nostrand Reinhold, New York, ISBN: 9781475706857.

Rigdon, R.H., T.M. Ferguson, J.L. Trammel, J.R. Couch and H.L. German, 1968. Necrosis in the pipping muscle of the chick. Poult. Sci., 47: 873-877.

Romanoff, A.L., 1960. The Avian Embryo. MacMillian Press, New York, USA.

Sokale, A., E.D. Peebles, W. Zhai, K. Pendarvis, S. Burgess and T. Pechan, 2011. Proteome profile of the pipping muscle in broiler embryos. Proteomics, 11: 4262-4265.

Smail, J.R., 1964. A possible role of the musculus complexus in pipping the chicken egg. Am. Midland Nat., 72: 499-506.

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Published

2012-06-15

Issue

Section

Research Article

How to Cite

Pulikanti, R., Peebles , E., Sokale, A., & Maslin, W. (2012). Histological Changes in the Broiler Embryonic Pipping Muscle Between Days 15 and 19 of Incubation. International Journal of Poultry Science, 11(7), 427–432. https://doi.org/10.3923/ijps.2012.427.432

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