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80 GÜNLÜK YABAN DOMUZU FÖTÜSLERİNDE ÖN VE ARKA EXTREMİTELERİN KEMİKLEŞME VE GELİŞİMLERİ

Year 2017, Volume: 6 Issue: 2, 64 - 69, 31.08.2017

Abstract




GİRİŞ ve AMAÇ:: Normal kemik gelişim verileri kemik gelişim çalışmalarını yorumalamak ve açıklamak için vazgeçilmez parametrelerdir. Bu çalışmada 80 günlük yaban domuzu fetüslerine ait 32 ekstremite kullanılmış, extremitelerinin normal kemik gelişiminin ortaya çıkartılması amaçlanmıştır. YÖNTEM ve GEREÇLER: Materyaller % 5’lik formaldehit solusyonunda tespit edildikten ve % 95’lik etanolde bekletildikten sonra saf aseton ile muamele edildi. Materyaller alizarin red alcian blue kombinasyonu ile boyandı. Bu boyama tekniği kıkırdak dokuları maviye, kemik dokuları ise kırmızıya boyadı. Bu teknik gelişen kıkırdak dokuları ve kemiklerdeki erken gelişen kemikleşme merkezlerinin lokalizasyonunu gösterdi. Stereomikroskop altında kıkırdaklaşma ve kemikleşme zamanları dikkatle izlendi.



BULGULAR: Büyük kemiklerin herbirinin bir adet primer kemikleşme merkezine (POC) sahip olduğu gözlendi. Ossa carpi, ossa tarsi ve patella dışındaki tüm kemiklerde gövdedeki kemikleşmenin görüldüğü belirlendi. Görülen kıkırdak modellerin gelişmesini tamamlamış olanlara benzediği saptandı.



TARTIŞMA ve SONUÇ: Sadece radius’a ait bir örnekte distal kısımda sekonder kemikleşme merkezi (SOC) belirlendi.


References

  • 1. Getty R: The Anatomy of the Domestic Animals, pp. 271- 296, W.B. Saunders Company, London (1975).
  • 2. Govindarajan V, Overbeek PA. FGF9 can induce endochondral ossification in cranial mesenchyme. BMC Developmental Biology. 2006;6:1-14.
  • 3. Atalgın ŞH, & Çakır A, Yeni Zelanda Tavşanında os coxae ve femur’un postnatal osteolojik gelişimi. Ankara Üniversitesi Veteriner Fakültesi Dergisi. 2006;53:155–159.
  • 4. Dyce K, M Sack WD, Wensing CJG: Textbook of Veterinary Anatomy, WB, pp. 67- 76, Saunders Company, London (1987).
  • 5. Williams PL, Dyson M: Gray’s Anatomy, The Both Press, pp. 279-322, London (1989).
  • 6. Barone R: Anatomie Comparee Des Mammiferes Domestiques Osteologie Vigotfreres, pp.542-589, Paris (1986).
  • 7. Atalgın ŞH, Kürtül I. A morphological study of skeletal development in Turkey during the prehatching stage. Anatomia Histologia Embryologica. 2009;38: 23–30.
  • 8. Atalgın H, Kürtül I, Bozkurt EU. Postnatal osteological development of hyoid bone in the New Zealand White Rabbit. Veterinary Research Communications. 2007;31:653-660.
  • 9. Paul C, Hodges JR. Ossification in the Fetal Pig a radiographic study. Anatomical Record. 1953;116: 315-325.
  • 10. Evans HE, Sack WO. Prenatal development of domestic and laboratory mammals: Growth curves, external features, and selected references. Anatomia Histologia Embryologia. 1973;2:11-45.
  • 11. Henry VG. Fetal development in European wild hogs. Journal of Wildlife Management. 1968;32: 966-970.
  • 12. Erdoğan D, Kadıoğlu D, Peker T. Visulation of fetal skeletal system by double staining with alizarin red and alician blue. Gazi Med J. 1995;6:55-5.
  • 13. Wrathall AE, Bailey J, Nancy HC. A Radiographic study of development of the appendicular skeleton in the fetal pig. Research in Veterinary Science. 1974;17: 2, 154-168.
  • 14. Denise M Visco, Michael A Hill, David C Van Sicle, Steven A Kincaid. The development of centers of ossification of bones forming elbow joints in young swine. Journal of Anatomy. 1990;171:25-39.
  • 15. Susan A, Connolly DJ, John KH, Frederic S. Skeletal development in fetal pig specimens. MR Imaging of femur with histologic comparison. Radiology. 2004;233:505–514.

OSSIFICATION CENTERS IN THE BONE DRAFTS OF THE FORE- AND HIND- LIMBS OF 80 DAYS OLD

Year 2017, Volume: 6 Issue: 2, 64 - 69, 31.08.2017

Abstract




OBJECTIVE: Having information about the normal skeletogenous stages is essential in order to comment on experimental bone development studies. With this regard, we aimed at revealing the normal ossification status of the 32 extremities of the 80 days old wild pig fetuses.



METHODS: The materials were fixed in 5% formaldehyde solution and 95% ethanol, followed by pure acetone incubation. Then, samples were stained with an alcian blue-alizarin red combination. As a result of the staining procedure, the cartilaginous tissue was stained in blue and the osseous tissue was stained in red. By using this method, it is possible to display the development of the cartilaginous components and localization of the early centers of the ossification areas in the bones. Chondrification and ossification of the bones were observed attentively under a stereo microscopy.



RESULTS: Each big bone has only one primary ossification body center (POC). The ossification centers in all bones have been shown whereas there are no ossification centers in the carpal, tarsal bones and patella. The extremities with the blue stained cartilaginous and red osseous tissues have resembled to the gross structural shapes of the mature stages.



DISCUSSION AND CONCLUSION: Only one secondary ossification center (SOC) was observed in the distal part of radius of one specimen.


References

  • 1. Getty R: The Anatomy of the Domestic Animals, pp. 271- 296, W.B. Saunders Company, London (1975).
  • 2. Govindarajan V, Overbeek PA. FGF9 can induce endochondral ossification in cranial mesenchyme. BMC Developmental Biology. 2006;6:1-14.
  • 3. Atalgın ŞH, & Çakır A, Yeni Zelanda Tavşanında os coxae ve femur’un postnatal osteolojik gelişimi. Ankara Üniversitesi Veteriner Fakültesi Dergisi. 2006;53:155–159.
  • 4. Dyce K, M Sack WD, Wensing CJG: Textbook of Veterinary Anatomy, WB, pp. 67- 76, Saunders Company, London (1987).
  • 5. Williams PL, Dyson M: Gray’s Anatomy, The Both Press, pp. 279-322, London (1989).
  • 6. Barone R: Anatomie Comparee Des Mammiferes Domestiques Osteologie Vigotfreres, pp.542-589, Paris (1986).
  • 7. Atalgın ŞH, Kürtül I. A morphological study of skeletal development in Turkey during the prehatching stage. Anatomia Histologia Embryologica. 2009;38: 23–30.
  • 8. Atalgın H, Kürtül I, Bozkurt EU. Postnatal osteological development of hyoid bone in the New Zealand White Rabbit. Veterinary Research Communications. 2007;31:653-660.
  • 9. Paul C, Hodges JR. Ossification in the Fetal Pig a radiographic study. Anatomical Record. 1953;116: 315-325.
  • 10. Evans HE, Sack WO. Prenatal development of domestic and laboratory mammals: Growth curves, external features, and selected references. Anatomia Histologia Embryologia. 1973;2:11-45.
  • 11. Henry VG. Fetal development in European wild hogs. Journal of Wildlife Management. 1968;32: 966-970.
  • 12. Erdoğan D, Kadıoğlu D, Peker T. Visulation of fetal skeletal system by double staining with alizarin red and alician blue. Gazi Med J. 1995;6:55-5.
  • 13. Wrathall AE, Bailey J, Nancy HC. A Radiographic study of development of the appendicular skeleton in the fetal pig. Research in Veterinary Science. 1974;17: 2, 154-168.
  • 14. Denise M Visco, Michael A Hill, David C Van Sicle, Steven A Kincaid. The development of centers of ossification of bones forming elbow joints in young swine. Journal of Anatomy. 1990;171:25-39.
  • 15. Susan A, Connolly DJ, John KH, Frederic S. Skeletal development in fetal pig specimens. MR Imaging of femur with histologic comparison. Radiology. 2004;233:505–514.
There are 15 citations in total.

Details

Primary Language Turkish
Journal Section Articles
Authors

Sevinç Ateş This is me

Şükrü Hakan Atalgın

İbrahim Kürtül This is me

Lütfi Takçı This is me

Publication Date August 31, 2017
Submission Date April 6, 2017
Published in Issue Year 2017 Volume: 6 Issue: 2

Cite

APA Ateş, S., Atalgın, Ş. H., Kürtül, İ., Takçı, L. (2017). 80 GÜNLÜK YABAN DOMUZU FÖTÜSLERİNDE ÖN VE ARKA EXTREMİTELERİN KEMİKLEŞME VE GELİŞİMLERİ. Balıkesir Sağlık Bilimleri Dergisi, 6(2), 64-69.

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