Physiological Response and Endurance of Madurese Cattle and Their Crosses at The Tropical Environment in Pamekasan Regency

Desi Kurniati Agustina, Nurul Hidayati

Abstract


This study aimed to determine the physiological response of Madura cattle and Limura cattle (Limousin x Madura) to the tropical environment. The research was conducted in Galis District, Pamekasan Regency from July to August 2024. The sample consisted of 50 Madura and Limura cattle, selected by purposive sampling. The parameters observed included rectal temperature, respiratory frequency, heart rate frequency, Heat Tolerance Coefficient (HTC), as well as the microclimate of the pen, which included air temperature, relative humidity (RH), and Temperature Humidity Index (THI). The results showed that the average THI at the research site was 83.24. The average rectal temperature (°C) in the morning, afternoon, and evening for Madura and Limura cattle were as follows: 37.7±1.5, 38.7±0.4, 37.2±0.7 for Madura cattle, and 38.6±0.5, 38.9±0.3, 38.5±0.3 for Limura cattle, respectively. The mean respiratory frequency (times/minute) in the morning, afternoon, and evening for Madura and Limura cattle were: 23.5±3.4, 28.6±6.8, 23.3±5.2 for Madura cattle, and 25.6±2.0, 30.3±2.0, 26.7±3.1 for Limura cattle, respectively. The mean heart rate (times/minute) in the morning, afternoon, and evening for both groups were similar: 65.3±4.2, 69.5±9.8, 65.1±6.7 for Madura cattle, and 65.4±3.8, 69.8±11.8, 66.5±4.2 for Limura cattle, respectively. The mean Heat Tolerance Coefficient (HTC) for Madura and Limura cattle were 2.1±0.23 and 2.2±0.1, respectively. It was concluded that both Madura and Limura cattle exhibit similar responses in terms of heart rate and respiration rate. However, Madura cattle have lower rectal temperatures than Limura cattle. The Heat Tolerance Coefficient (HTC) was found to be higher in Limura cattle compared to Madura cattle.

Keywords


HTC; Limura cattle; Madura cattle; physiological; response

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References


Aditia, E.L., Yani, A. Fatonah, A.F., 2017. Respons fisiologis sapi bali pada sistem integrasi kelapa sawit berdasarkan kondisi lingkungan mikroklimat. Jurnal Ilmu Produksi Dan Teknologi Hasil Peternakan. 05 (01): 23–28.

Aritonang, S.B., Yuniati, R., Abinawanto, Imron, M., Bowolaksono, A.1862. physiology response of the indigenous cattle breeds to the environment in west sumbawa, Indonesia. AIP Conference Proceedings 1862 (March 2021): 1–6.

Asmarasari, Santiananda, A., Azizah, N., Puastuti, S.W., Amir, A., Praharani, L., Rusdiana, S. 2023. A review of dairy cattle heat stress mitigation in Indonesia. Veterinary World 16 (5): 1098–1108.

Bie, J., De, K. Proost, H. Van Loo, J. Callens, P. E.J. Bols, E. Fransen, Leroy, J.L.M.R. 2019. β-Carotene and vitamin e in the dairy industry: blood levels and influencing factors - a case study in flanders. Vlaams Diergeneeskundig Tijdschrift 88 (3): 137–49.

Cooke, Reinaldo F., Rodolfo C. Cardoso, Ronaldo L.A., Cerri, G. Cliff Lamb, Ky G. Pohler, David G. Riley, and José L.M. Vasconcelos. 2020. Cattle Adapted to Tropical and Subtropical Environments: Genetic and Reproductive Considerations. Journal of Animal Science 98 (2): 1–14.

Hussain, Tanveer, Qadri, Q.R., Wajid, A., Babar, M.W. 2023. Cattle be in two mind states: an overview of heat stress tolerance in cattle. International Journal of Agriculture and Biology 29 (2): 133–40.

Islam, M.A., Lomax, S., Doughty, A.K., Islam, M.R., Thomson, P.C. Clark, C.E.F. 2023. Revealing the diversity of internal body temperature and panting response for feedlot cattle under environmental thermal stress. Scientific Reports 13 (1): 1–12.

Jeelani, Rakhshan, Konwar, D., Khan, A., Kumar, D., Chakraborty, D., Brahma, B. 2019. Reassessment of temperature-humidity index for measuring heat stress in crossbred dairy cattle of a sub-tropical region. Journal of Thermal Biology 82 (11): 99–106.

Kurniati, A.D., Nugiartiningsih, V.M.A., Kuswati, S. Suyadi. 2022. Study of the physical and physiological response of the madura as a breeding source (case study in waru sub-district, Pamekasan district). KnE Life Sciences.

Machado, Marcelo, G., Edenio Detmann, Hilário C., Mantovani, Sebastião C. Valadares Filho, Cláudia B.P. Bento, Marcos, I. Marcondes, Assunção, A.S. 2016. Evaluation of the length of adaptation period for changeover and crossover nutritional experiments with cattle fed tropical forage-based diets. Animal Feed Science and Technology 22(2): 132–48.

Maylinda, Sucik, Riskila, F. 2023. The effect of type of roof on heat tolerance coefficient and milk production in friesian holstein crossbred cows. Jurnal Ilmu-Ilmu Peternakan 33 (2): 251–62.

Mishra, S.R. 2021. Behavioural, physiological, neuro-endocrine and molecular responses of cattle against heat stress: an updated review. Tropical Animal Health and Production 53 (3): 196-203

Nurhidayat, Irfan, Suprayogi, A., Satyaningtijas, A.S., Ekastuti, D.R., Maheshwari, H., Bustamam, I., Santoso, K., Achmadi, P., Manalu, W., Tarigan, R. 2024. Heat tolerance of several beef cattle breeds in astomulyo village, Lampung tengah district. ARSHI Veterinary Letters 8 (1): 17–18.

Polsky, Liam, Marina, A.G. von Keyserlingk. 2017. Invited review: effects of heat stress on dairy cattle welfare. Journal of Dairy Science 100 (11): 100-110.

Singh, S.V., Kumar, Y., Kumar, S. 2019. Impact of temperature humidity index (THI) on physiological responses and milk yield of tharparkar and karan fries cows exposed to controlled environment. Journal of Agrometeorology 21 (4): 405–10.

Sutedjo, H. 2016. Dampak fisiologis dari cekaman panas pada ternak. Jurnal Nukleus Peternakan 3 (1): 93–105.

Toledo, I.M., Fabris, T.F., Tao, S., Dahl, G.E. 2020. When do dry cows get heat stressed? correlations of rectal temperature, respiration rate, and performance. JDS Communication 1 (1): 21-24

Velayudhan, Mullakkalparambil, S., Brügemann, K., Alam, S., Yin, T., Devaraj, C., Sejian, V., Schlecht, E., König, S. 2023. Molecular, physiological and hematological responses of crossbred dairy cattle in a tropical savanna climate. Biology 12 (1): 1–16.

Wangui, J.C., Bebe, B.O., Ondiek, J.O. Oseni, and S.O. 2018. Application of the climate analogue concept in assessing the probable physiological and haematological responses of friesian cattle to changing and variable climate in the kenyan highlands. South African Journal of Animal Science 48 (3): 572-582.

Yan, Yihuan, Li, X., Tu, J. 2019. Thermal effect of human body on cough droplets evaporation and dispersion in an enclosed space. Building and Environment 14 (8): 96–106.




DOI: https://doi.org/10.17969/agripet.v25i1.42411

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