Response of Reproductive Performance Related to Blood Metabolite Concentration in Post-Induction Hormone Pasundan Cows

Author(s)

Euis Nia Setiawati ,

Download Full PDF Pages: 135-146 | Views: 306 | Downloads: 112 | DOI: 10.5281/zenodo.5141671

Volume 5 - April 2021 (04)

Abstract

Twenty Pasundan cows were used in this study to see the success of multiple method prostaglandin induction and ovulation synchronization using GnRH in scheduled articial insemination (AI) and the relationship between blood metabolite concentrations to estrous intensity, service preconception and calving rate in Pasundan heifers. The cows were divided into two treatments, 1) simultaneous vigorously with multiple injection of 5 ml dose of PGF2α, 2) a combination of PGF2α and GnRH hormones as much as 2.5 ml per head intramuscularly. Cows in heat are artificially inseminated twice with an interval of 6 hours. The variables observed were estrous intensity, service preconception and calving rate, β-hydroxy butyric acid (BHBA), blood urea nitrogen (BUN), and non esterificated acid (NEFA). Data were processed by analysis of variance and correlation regression. The results showed that the pregnancy rate for the combination of prostaglandins and GnRH was better than double injection of prostaglandins (80.0% vs 70.0%)., the average BHBA, NEFA and BUN, respectively 11.75 ± 1.32 mg / dl vs 11.73 ± 1.78 mg / dl, 1.90 ± 0.20 million / µl, vs 1.8 ± 0.24, million / µl, 23.44 ± 2.60 mg / dL vs 22.92 ± 1.53mg / dL. The results of the regression analysis showed that the concentrations of BHBA, NEFA, and BUN had a significant relationship (P <0.05) to service perception with a determination coefficient of 25.38%, to a conception rate with a determination coefficient of 50.82%. It was concluded that the concentration of β-hydroxybutyric acid (BHBA), non-esterified fatty acid (NEFA), and blood urea nitrogen (BUN), had a strong relationship with the coefficient of determination (> 50%) and was inversely related to the conception rate, but had a weak relationship. with a coefficient of determination (<50%) and inversely proportional to the service preconception.

Keywords

Pasundan cows, exogenous hormone induction, Reproductive performance, Blood Metabolite.

References

          i            Setiawati, E.N., D. M. Saleh and  M.Y. Sumaryadi. 2018. Reproductive Performance of Pasundan Cows in West Java. Proceedings of Livestock Technology and Agribusiness Seminar VI: Development of Genetic Resources of Local Livestock Towards Animal Food Self-sufficiency ASUH, Faculty of Animal Husbandry, Jenderal Soedriman University, July 7, 2018.

        ii            Röttgen, V., Becker, F., Tuchscherer, A., Wrenzycki, C.,  Düpjan. , Schön, P.C. and   B.   Puppe.   2018.   Vocalization as an indicator of estrus climax in Holstein heifers during natural estrus and superovulation. Journal of Dairy Science Vol. 101 No. 3.

      iii            Nuryadi   dan   S. Wahjuningsih. 2011. Penampilan reproduksi sapi Peranakan Ongole dan Peranakan Limousin di Kabupaten Malang. J. Ternak Tropika. 12 (1): 76-81

       iv            Hafizuddin et al. 2016. Peran Interferon-tau (IFN-τ) dalam Penanganan Reproduksi Ternak Ruminansia Betina. Wartazoa. 19(4): 166-171.

         v            Handayani, U.F., M. Hartono and Siswanto. 2014. Rapid response to the emergence of estrus and duration of estrus in Bali cattle after two times of administration of prostaglandin F2α (pgf2α). J. Integrated Animal Science. 2 (1): 33-39

       vi            Kune, P. And Najamudin. 2002. Beef Cattle Estru Response Due to Progesterone, Prostaglandin PGF2α and Estradiol Benzoate in Estrus Synchronization Activity. Agroland Journal. 9 (4): 380 - 384.

     vii            Bharali, M., P.M. Barua, B.C. Deka, D. Kalita, D.J. Dutta, D. Mili and K. Ahmed. 2014. Effect of  GnRH Analogue, PMSG and Progesterone on Induction of Oestrus in Postpartum Anoestrus Jersey Crossbred Cows (Bos Taurus). Int. J. Vet. Healt. Sci. Res. 2(6):31-33.

   viii            Ma’ruf, M. J., E. Kurnianto, dan Sutiyono. 2017. Performa Berahi Sapi PO pada Berbagai BCS yang Disinkronisasi dengan Medroxy Progesteron Acetate di Satker Sumberejo Kendal. Jurnal Ilmu-Ilmu Peternakan. 27(2): 35-43.

       ix            Bernandi,  S.  A. Rinaudo  and  P.  Marini. 2016. Cervical Mucus Characteristics and Hormonal Status at Insemination of Holstein Cows. Iranian Journal of Veterinary  Research.  17(1):  45-49.

         x            Stotzel C, Plöntzke J, Heuwieser W, Roblitz S. 2012. Advances  in  modeling  of  the  bovine  estrous cycle: Synchronization with PGF2α. Journal Dairy Science. 78: 1415-1428.

       xi            Hassan  M., A. Husnain, M.I. Naveed, U. Riaz, N. Ahmad. 2016. Effect of Ovsynch versus Prostaglandin F2α Protocol on Estrus Response, Ovulation   Rate, Timing of Ovulation and Pregnancy Per Artificial Insemination in Sahiwal Cows. J. Anim. Scie. 88:445-450

     xii            Putro, P. P., R. Wasito, H. Wuryastuty and S. Indarjulianto. 2008. Dynamics of follicular development and plasma progesterone profile during the estrous cycle in dairy cows. Maximum Reproduction.10 (2): 73-77.

   xiii            Nascimento AB, Souza AH, Keskin A, Sartori R, Wiltbank MC.  2014. Lack of completeregression of  the  Day  5  corpus  luteum  after  one  or  two doses of PGF2α in nonlactating Holstein cows. Theriogenology. 81: 389-395.

   xiv            Abidin, Z., Y.S. Ondho, and Sutiyono. 2012. The Appearance of Javanese Cows in Heat Based on Poel 1, Poel 2, and Poel 3. J. Anim. Agriculture. 1 (2): 86-92.

     xv            Canani,  R.B.,  M.D. Coztanso.,  L. Leone.,  M. Pedata.,  R. Meli and A. Calignano.  2011.  Potential Beneficial Effects of Butyrate in Intestinal and Extraintestinal Diseases. World Journal of Gastroenterology. 17(12):1519-1528.

   xvi            Gross, J., H.A. Van Dorland., R.M. Brukmaier and F.J. Schwarz. 2011. Performance and Metabolic Profile of Dairy Cows During a Lactational and Deliberately Induced Negative Energy Balance with Subsequent Realimentation. J. Dairy Sci.  94(4):1820-1830

 xvii            Tasse, A.M. 2014. Asam Lemak Pada Ternak. Cetakan I. BP UNM, Makassar

xviii            Prodanovic,   R.,   D.   Kirovski,   H,   Samanc,   I. Vujanac, V. Ivetic, B. Savic, and KureljusicB. 2012. Estimation of herd-basis energy status in clinically ealthy Holstein cows: practical implications of body condition scoring and hortened metabolic profiles. Afr. J. Agric. Res. (3):418425.

   xix            Khan,    S.,    A.    Thangavel       and       S. Selvasubramaniyan.  2010.  Blood biochemical profile in repeat breeding cows. Tamilnadu J. Vet. Anim. Sci. 4: 90-102

     xx            Pemayun, T.G.O. 2009. Induction of estrus with PMSG and GnRH in postpartum anestrus dairy cows. Udayana Veterinary Bulletin. 2 (1): 1-7.

   xxi            Adewuyi,  A.A.,  E.  Gruys  and  F.J.C.M.  Van Eerdenburg. 2005. Non esterified fatty acids   (NEFA) in dairy cattle. A Review, Veterinary Quarterly. 27(3):117-1

 xxii            National Research Council. 2001. Nutrients requirement of dairy cattle. Edisi 7. Natl. Acad. Sci. Washington D.C.

xxiii            Roy, B.B., S. Ghosh, P.K. Pankaj and G. Mandal. 2011. Evaluation of Milk Urea Concentration as

xxiv            Bindari,Y. R., S. Shrestha, N. Shrestha and T.N. Gaire. 2013. Effects of nutrition on reproduction- a review. Adv Appl Sci Res. 4(1):421-429.

  xxv            Alapati, A., S.R. Kapa., S. Jeepalyam., S.M.P. Rangappa and K.R. Yemireddy. 2010. Development of the body condition score system in Murrah buffaloes: validation through ultrasonic assessment of body fat reserves. J. Vet. Sci. 11(1):1-8.

xxvi            Iskandar. (2011). Performance of PO Cattle Reproduction in LowLand and Highlands in Jambi Province. Scientific Journal of Animal Husbandry Sciences, 14 (1): 51-61.

xxvii            Jainudeen, M.R. and E.S.E., Hafez. 2008. Cattle and buffalo. Reproduction in farm animals. 7th Edition. Edited by Hafez E.S.E. Lippincott Williams & Wilkins. Maryland. USA.159

xxviii            Gross, J., H.A. Van Dorland, R.M. Brukmaier and F.J. Schwarz. 2011. Performance and metabolic profile of dairy cows during a lactational and deliberately induced negative energy balance with subsequent realimentation.  J.  Dairy  Scie.  94(4):1820-1830.

xxix            Julie, M.H. and R.O. Thomas. 2013. Using physiological markers to defect health and production problems   in   transition   dairy cows. WCDC Advance in Dairy Technology. 25:329-339.

  xxx            Shaka, M., M. Shamesdini and F. Mohamad- Zadeh. 2006. Serum biochemistr values in Raini Goat of Iran. J. Vet. Med.   6(12):33-45.

xxxi            Reist. M, Erdin D, von Euw D, Tschuemperlin K, Leuenberger H, Chilliard Y, Hammon H M, Morel C, Philipona C, Zbinden Y, Kuenzi N, dan Blum JW. 2002.  estimation  of energy balance  at  individual  and  herd level  using blood and milk traits in high-yielding dairy cows. J. Dairy Sci. 85: 3314-327

xxxii            Franca RT, Costa MM, Martins DB, Pagnoncelli M, Leal ML, Mazzanti CM, Falma HE. Kunert CP, alim FC, Lopes STA. 2011. Protein profile of buffaloes  of  different  ages.  Act  Sci  Vet.  39(4):  995.  ISSN  1679-9216

xxxiii            Wetterman RP, Hill GM & Boyd ME. 2003. Reproductive performance of postpartum beef cows after short-term calf separation and dietary energy and protein supplementation. Theriogenology. 4: 433-443.

xxxiv            Salem MB, Djemali M, Kayouli C & Majdoub A. 2006. A review of enviromental and management factors affecting the productive performance of Holstein Friesian dairy herds in Tunisia. Livestock Research for Rural Development. 18(4): 123-129.

xxxv            Hilmia N, RR Noor, C Sumantri, R. E.Gurnadi, R. Priyanto. 2013. Productivity and Genetic Diversity of Local Cattle in Ciamis-West Java. J.Indonesian.Trop.Anim.Agric. 38(1):10-19.

xxxvi            Grunwalnduced negative energy balance with subsequent  realimentation. J. Dairy ci., 94(4): 1820-30. dt  EG, Guevara  JC, Estevez OR, Vicente A, Rousselle H, Alcunten N, Aguerregaray, Stasi CR. 2005. Biochemical and haematological

xxxvii            Ihsan, M. N., and S. Wahjuningsih. 2011. Performance of beef cattle reproduction in Bojonegoro Regency. J. Tropical Livestock. 2 (2): 76-80.

xxxviii            Putro, P. P. 2008. Dynamics of development of dominant follicles and corpus luteum after estrus synchronization in Holstein Friesian Cattle. Postgraduate Dissertation. Gadjah Mada University, Yogyakarta

xxxix            Arimbawa, I.W.P., I.G.N.B. Trilaksana, T.G.O. Payer. 2012. Overview of the Cattle Progesterone Hormone Bali During One Estrus Cycle. Ind. Med. Vet. 1 (3): 330-336

       xl             Stojevic  Z,  Filipovic N,  Bozic P, Tucek Z, Daud J. 2008. The  metabolic profile of Simmental service bulls. Vet Arhiv. 78 (2): 123-129.

     xli            Balicki . Yildiz A, Gurdogan F. 2007. Blood metabolite concentrations during regnancy and post-partum in Akkaraman ewes. Small Rum. Res. 67, 247-

   xlii            Adass PA, Midau A, Muktar YM, Mshelia ZB. 2012. Assessment of breed, age and body condition score on hematology, blood chemistry and fecal parasitic load of indigenous bulls in Adamawa State. Intern J of Agric Sci.2(1). pp. 087- 089. ISSN: 2167-0447.

 xliii            Ali, A and S. Fahmy. 2007. Ovarian Dynamics and Milk Progesterone Concentrations in Cycling and Non-Cycling Buffalo-Cows (Bubalus bubalis) During Ovsynch Program. Theriogenology.  68(1): 23-28.

 xliv            Laager .K, Jordan E. 2012. The metabolic profile for the modern transition dairy cow. The Mid-South Ruminant Nutrition Conference. Texas Agrilife Extension Service, Texas.

   xlv            Wahyudi, L., T. Susilawati and S. Wahjuningsih. 2013. Display of Dairy Cattle Reproduction at Various Parities in Kemiri Village, Jabung District, Malang Regency. J. Tropical Livestock. 14 (2): 13-22.

 xlvi            Suryahadi. 2003. Study of Integrated Supplementation Techniques to Increase Production   and Quality of Dairy Cows in DKI Jakarta. In: Summary of Research Results Collection Institute for Research and Community Empowerment, Bogor Agricultural University, Bogor

xlvii            Oguike, M.O. and N.L. Okocha. 2008. Reproductive performance of rabbits remated at different intervals post-partum. African J. Agric. Res. 3(6):412-415.

xlviii            Khan, S., A. Thangavel and S. Selvasubramaniyan. 2010. Blood biochemical profile   in   repeat   breeding cows. Tamilnadu J. Vet. Anim. Sci. 4: 90-102.

 xlix            Prihatno, S.A., A. Kusumawati, N.K. Karja and B. Sumiarto. 2013. Biochemical Profile of Blood in Dairy Cows with Repeated Mating. J Veterinary Medicine. 7 (1): 29-31.

          l            Annashru, F., A. Ihsan, M., N. Yekti, A., P., dan A. Susilowati, T. 2017. Pengaruh perbedaan waktu inseminasi buatan terhadap    keberhasilan    kebuntingan Sapi Brahman Cross. Jurnal Ilmu-Ilmu Peternakan 27 (3): 17 – 23.

        li            Caldieramory University School of Medicine, Atlanta, Georgia, Boston.

      lii            RM, Belo AT, Santos CC, Vazques MI, Portugal AV. 2007. The effect f body condition score on blood metabolites and hormonal profiles in wes.Small   Rum.   Res.68(3):233–241.   DOI:   http://dx.doi.org/10.1016/ .smallrumres.2005.08.027

    liii            Hammond. G. 2004. Magnesium in cardiovascular and other disorders. Am J Health-Syst harm. 61:1569-76.

     liv            Pradhan R, K Oshima, Y Ochiai,T Kojima,N Yamamoto, M.E. Ghanem, and N. Nakagoshi, 2008. Effect of total cholesterol, glucose and blood urea nitrogen on embryo quality inpost‐partum superovulated suckling Japanese black cattle. Reprod. Med. and Biology 7(2):55–62.

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