Biometric assessment of Fulanisheep in Sahelian and Sudanian zones of Chad

Authors

  • BAMARE Herbert DJOMTCHAIGUE Livestock Institut Research for Development (LRID)
  • Mian-Oundanag KOUSSOU Institut de Recherche en Elevage pour le Développement;Djamena, Chad.
  • Djoufack Yannick TADAKENG University of Dschang, Faculty of Agronomy and Agricultural Sciences, Department of Animal Science, Biotechnology and Bioinformatics Research Unit, Dschang-Cameroon
  • Mouctar Kodbe OUMAR University of Djamena, Faculty of Exact and Applied Science, Department of Biology, Chad
  • Vounparet ZEUH University of N'Djamena, Faculty of Exact and Applied Science, Department of Biology, Chad
  • Ndukum Juluis AWAH University of Dschang, Faculty of Agronomy and Agricultural Sciences, Department of Animal Science, Biotechnology and Bioinformatics Research Unit. Dschang-Cameroon
  • Félix MEUTCHIEYE University of Dschang, Faculty of Agronomy and Agricultural Sciences, Department of Animal Science, Biotechnology and Bioinformatics Research Unit, PoBox. 188. Dschang-Cameroon.

DOI:

https://doi.org/10.46325/gabj.v7i1.282

Keywords:

Genetic diversity, Measurement, Fulani, Sahelian and Sudanian zones

Abstract

A survey was conducted in Sahelian and Sudanian agroecological zones to assess the biometric features of the native Fulani sheep breed. 309 adult Fulani sheep individuals were sampled in the dominant pastoral production system. Seventeen (17) body measurements were recorded using the tape measure: Height at withers at (HW), Rump height (RH), Chest circumference (CC), chest depth (CD), body length (BL), total body length (TBL), rump length (RL), rump width (RW), neck length (NL), head length (HL), head width (HW), ear length (EL), tail length (TL), barrel circumference (BC), testicle length (TesL), testicle circumference (TesC) and body weight (BW). Based on these body measurements, eleven (11) biometric indexes were calculated (sternal slenderness index, auriculo-thoracic index, format index, compactness index, massiveness index, slenderness index, frame index, dactylo-thoracic index, body index, caudal index, and auricular index). Phenotypic dimorphism (P˂0.05) was observed in the Fulani sheep population. High, long and heavy sheep were recorded in the Sudanian zone (WH= ​​81.17±4.88; BL = 73.78±6.78 and BW = 39.28±3.03). A high correlation was obtained between BW and WH (r=0.95). The principal component analysis revealed that 5 components contribute to 70.94% of the phenotypic variability observed within the Fulani sheep population. The two components explain 48.36% of the variability observed according to body measurements. As well as the WH and RH could be considered for a program of selection and conservation of Fulani sheep

Author Biography

Félix MEUTCHIEYE, University of Dschang, Faculty of Agronomy and Agricultural Sciences, Department of Animal Science, Biotechnology and Bioinformatics Research Unit, PoBox. 188. Dschang-Cameroon.

Prof Félix a assuré la direction de ce travail et a apporté ses observations pour l'amélioration de la qualité scientifique de ce travail.

References

AU-IBAR. 2015. Pictorial field guide for linear measurements of animal genetic resources, Nairobi, Kenya. 65p.

Amadou H. Dossa LH. Lompo DJ. Abdulkadir A and Schlecht E 2012. A Comparison between Urban Livestock Production Strategies in Burkina-Faso, Mali and Nigeria in West-Africa. Tropical Animal Health and Production. Available at: DOI; 10.1007/s11250-012- 0118-0.

BarkerT. MooreM. Matheson and Selvaraj 2001. Genetic variation and relationships among populations of Asian goats (Capra hircus).Journal of Animal Breeding and Genetics, 118: 213233. doi:10.1046/j.14390388.2001. 00296.x.

Dayo GK. Alfa EE. Talaki K. Soedji S and Sylla Dao B. 2015. Caractérisation phénotypique du mouton de Vogan du Togo et relation avec le mouton Djallonké et le mouton sahélien. Animal Genetic Resources, 2015, 56, 63–78. © Food and Agriculture Organization of the United Nations, 2015 doi:10.1017/S207863361500003X.

Dumas R. 1980. Contribution à l’étude des petits ruminants du Tchad. Revue Elev. Méd. Vét. Pays trop., 33(2): 215- 233.

FAO 2008. L’état des ressources zoogénétiques pour l’alimentation et l’agriculture dans le monde, édité par Barbara Rischkowsky et DafyddPilling. Rome.392p.

FAO 2013. Caractérisation phénotypiques des ressources génétiques animales. FAO sur la production et la santé animale. N° 11. Rome.152p.

Faria FDE. Dias AN. Veloso ALC. Bueno CFD. Couto FAP. Matos JJB. Barreto KZO. Rodrigues PA. Carneiro WA. 2010. Classification of coefficients of variation in experiments with commercial layers. Braz J PoultSci, 12(4): 255 – 257

Faye B. Alharary FZ and Alrwaily SH. 2012. Gestion et évaluation du statut énergétique du dromadaire en Arabie Saoudite. Revue des BioRessources, 2 (2).

Fayeye TR and Adewale IF. 2017. Morphometric characterization of Uda, Balami and West African dwarf sheep. Wayamba Journal of Animal Science – ISSN: 2012-578X; P1553 - P1560, 2017 First Submitted May 21, 2017; Number 1495655400.

Gueye A. 1997. Moutons et Chèvres du Sénégal : Caractérisation morpho-biométrique et typage sanguin. Écoles inter-états des sciences et médicine vétérinaires. Thèse Médecine.Vétérinaire. Dakar, 6, 79p.

Groeneveld LF. Lenstra J.A. Eding H. Toro MA. Scherf B. Pilling D. Negrini R. Finlay E.K. Jianlin H. Groeneveld E and Weigend S 2010. Genetic diversity in farm animals a review. Animal Genetics, 41: 6-31. Doi :10.1111/j.1365-2052.2010.02038.x.

Meka ZII. Martin A. Tadakeng Y. Meutchieye F and Fonteh F. 2021. Biometric Assessment of Blackbelly Sheep in Central Africa. Genet. Biodiv. J , 5(2) : 139-153.

Mopate LY.TellahM. AdoumYI.SouleymanMS. 2020. Rendement carcasse des ovins sahéliens dans la Province du Guera au Centre-Est du Tchad. www.m.elewa.org/journals/on 29thFebruary 2020. https://doi.org/10.35759/JABs.

Muigai A and Hanotte O. 2013.The Origin of African Sheep: Archaeological and Genetic Perspectives. African Archaeological Review. 30. 10.1007/s10437-013-9129-0.

Ndiaye B. Diouf MN. Ciss M. Wane M. Diop M and Sembène M 2013. Morphologie et pratiques d’élevage du mouton Fulani-Fulani du Sénégal. Journal Homepage: -www.journalijar.com Article DOI:10.21474/IJAR01/7089 DOI URL: http://dx.doi.org/10.21474/IJAR01/7089.

Ngono EPJ. Meutchieye F and Manjeli Y. 2019. Biometric assessment of White Fulani cattle in a semi-intensive production system in Northern Cameroon using principal components analysis. Gen. Biodiv. J: 3(2), 62-71.

Njoya A. Awah ND and Bouchel D 1997. Influence de la complémentation et de la prophylaxie sur la variabilité des ovins Foulbé au Nord-Cameroun. Revue Elev. Méd. vét. Pays trop., 50(2): 227-233.

Osaiyuwu OH. Akinyemi MO and Salako AE. 2010. Factor analysis of the morphostructure of mature Balami sheep. Res J Anim Sci. 2010;4(2):63‒65.

Otchere EO. Ahmed HU. Adenowo TK. Kallah MS. Bawa ELK. Olorunju SA and Voh J 1987. Production ovine et caprine dans le secteur agropastoral traditionnel Fulani, au Nigeria septentrional. Revue Mondiale de Zootechnie. 64: 50-55.

Peter F. 2020. Mesures de dispersion et de forme. Statistiques (les stats en bulles) / Pearson Education, 22p.

RodrigoB.AndrésC. Cecilia C. FernandoS.2015. Body arquitecture of main sheep breeds in chile: Journal of Animal Ethnology (2015) 1: 1-9.

Roux M. 2006. Algorithmes de classification. Université Paul Cézanne Marseille, France.

SPSS 21. IBM Corp. Released 2018. IBM SPSS Statistics for Windows, Version 21.0. Armonk, NY : IBM Corp.

Sougnabé P 2013. La sédentarisation comme moyen d’adaptation aux baisses de la pluviométrie chez les éleveurs Peuls en Savane tchadienne. VertigO, 13(1).

Tadakeng DY 2015. Biodiversité des ovins (Ovisaries) des hautes terres de l’ouest-Cameroun. Département des science Animales, Université de Dschang.

Traoré A. Tamboura HH. Kaboré A. Yaméogo N. Bayala B. Zaré I 2006. Caractérisation morphologique des petits ruminants (ovins et caprins) de race locale ‘’Mossi’’ au Burkina Faso. Agri., 39 : 39-50. DOI: 10.1017/S101423390000212.

Traore A. Tamboura HH. Kabore A. Royo LJ. Fernandez I. Álvarez I. Sangare M. Bouchel D. Poivey JP. Francois D. Toguyeni A. Sawadogo L and Goyache F 2008. Multivariate Characterization of Morphological Traits in Burkina Faso Sheep. Small Ruminant Res. 80:62-67.

Wagari G, Getachew T, Bayou E 2020. Multivariate analysis of phenotypic traits of indigenous sheep revealed new population in western part of Ethiopia. Int J Agric Sc Food Technol 6(1): 050-057. DOI: https://dx.doi.org/10.17352/2455-815X.000055

Yakubu A. Raj AO and meje JN 2010. Genetic and phenotypic differentiation of qualitative traits in Nigerian indigenous goat and sheep populations. ARPN J. Agric. Bio. Sci., 5(2): 58-66.

Yunusa AJ. Salako AE and Oladejo OA 2013. Morphometric characterization of Nigeria indigenous sheep using multifactorial discriminant analysis. Vol. 5(10), pp. 661-665, October2013.DOI:10.5897/IJBC2013.0592.ISSN2141243X©2013.AcademicJournalshttp://www.academicjournals.org/IJBC.

Zaitoun IS. Tabbaa MJ and Bdour S 2005. Differentiation of native goat breeds of Jordan on the basis of morphostructural characteristics. Small Ruminant Res. 56 :173-182.

Zeuh V 2000. Caractérisation génétique des ruminants domestiques et inventaire des ressources végétales. ME/LRVZ/SCAC, Projet ASETO-2, Rapport Final, Laboratoire de Farcha, Tchad., 27 p.

Zeuh V. Mopaté LY and Issa Y 2013. Characterization of the Mayo-Kebbi Sheep: a Previously Unrecognised Ovine Breed of the Agro-Pastoral Zone of SouthWest Chad. J Anim Prod Adv 2013, 3(12): 331-341. DOI: 10.5455/japa.20140105080311.

Downloads

Published

01/15/2023

How to Cite

DJOMTCHAIGUE, . B. H., KOUSSOU, M.-O., TADAKENG, D. Y., OUMAR, M. K., ZEUH , V., AWAH, N. J., & MEUTCHIEYE, F. (2023). Biometric assessment of Fulanisheep in Sahelian and Sudanian zones of Chad. Genetics & Biodiversity Journal, 7(1), 148–161. https://doi.org/10.46325/gabj.v7i1.282

Issue

Section

Original Article

Most read articles by the same author(s)

1 2 > >>