Ecological substantiation of the normalization of the state of the air environment in the uninsulated barn in the hot period
Abstract
R.V. Mylostyvyi, O. M. Chernenko, O.O. Izhboldina, A.M. Puhach, O.S. Orishchuk, O.V. Khmeleva
The results of the assessment of the temperature-humidity regime in the modern uninsulated barn in the summer period with external temperature fluctuations from +16.6°С to +37.2°С are presented. It was established that the indoor climate was significantly related to the state of the environment (r=0.95; p<0.001). Significant differences were found in terms of the temperature-humidity index (1.6–5.1 units) in different parts of the building, which may affect the state of comfort of the animals. The use of additional (except natural) ventilation in order to normalize the air environment should be carried out taking into account the time of day and the area of the room.
Keywords: Temperature; Relative humidity; Temperature-humidity index; Microclimate; Cow comfort
References
Bertocchi, L., Vitali, A., Lacetera, N., Nardone, A., Varisco, G., & Bernabucci, U. (2014). Seasonal variations in the composition of Holstein cow’s milk and temperature–humidity index relationship. Animal, 8(4), 667–674.
Fedorenko, I.Y.A., Kapustin, N.I., Kapustin, V.N., Byirdin, I.N. (2010). Mathematical modeling of frey (natural) convection in livestock buildings of large capacity. Bulletin of Altai State Agrarian University, 11(73), 66–70.
Gorbachev, M.I. (2010). The economic efficiency of modernization of livestock in the farms of the Moscow region. International Technical and Economic Journal, 1, 15–20.
Hempel, S., Menz, C., Pinto, S., Galán, E., Janke, D., Estellés, F., Amon, T. (2019). Heat stress risk in European dairy cattle husbandry under different climate change scenarios uncertainties and potential impacts. Earth System Dynamics Discussions, 1–38.
Herbut, P. (2013). Temperature, humidity and air movement variations inside a free-stall barn during heavy frost. Annals of Animal Science, 13(3), 587–596.
Herbut, P., Angrecka, S., & Walczak, J. (2018). Environmental parameters to assessing of heat stress in dairy cattle—a review. International Journal of Biometeorology, 62(12), 2089–2097.
Ilin, R.M., Vtoryiy, S.V. (2017). Justification of the parameters of the microclimate monitoring system in livestock buildings. Technologies and technical means of mechanized production of crop and livestock products, 92, 212–217.
Jovovic, V., Pandurevic, T., Vazi, B., & Erbez, M. (2019). Microclimate parameters and ventilation inside the barns in the lowland region of Bosnia and Herzegovina. Journal of Animal Science of bih, 1(2).
Loshkarev, I.Y.U., Aberyasev, A.YA., Loshkarev, V.I. (2018). Assessment of the effectiveness of introducing a light aerator into the ventilation system of a barn. Actual problems of the energy sector, 104-105.
Marciniak, A. (2014). The use of temperature-humidity index (thi) to evaluate temperature-humidity conditions in freestall barns. Journal of Central European Agriculture, 15(2), 73–83.
Martyinova, E.N., Yastrebova, E.A. (2013). The area of animals in the building is a factor in influencing milk production. Modern problems of science and education, 3, 421.
Mijic, P., Gantner, V., Vuckovic, G., Bobic, T., Baban, M., Gregic, M., & Pejic, M. (2019). Production of dairy cows at different environmental climatic parameters. Journal of Animal Science of bih, 1(2).
Mylostyvyi, R. V., & Sejian, V. (2019). Welfare of dairy cattle in conditions of global climate change. Theoretical and Applied Veterinary Medicine, 7(1), 47-55.
Mylostyvyi, R., & Chernenko, O. (2019). Correlations between environmental factors and milk production of Holstein cows. Data, 4(3), 103.
Mylostyvyi, R., Chernenko, O., & Lisna, A. (2019). Prediction of comfort for dairy cows, depending on the state of the environment and the type of barn. Development of Modern Science: The Experience of European Countries and Prospects for Ukraine.
Ortiz, X.A., Smith, J.F., Villar, F., Hall, L., Allen, J., Oddy, A., Collier, R. J. (2015). A comparison of 2 evaporative cooling systems on a commercial dairy farm in Saudi Arabia. Journal of Dairy Science, 98(12), 8710–8722.
Pinto, S., Hoffmann, G., Ammon, C., Amon, B., Heuwieser, W., Halachmi, I., Amon, T. (2019). Influence of barn climate, body postures and milk yield on the respiration rate of dairy cows. Annals of Animal Science, 19(2), 469–481.
Poteko, J., Zähner, M., & Schrade, S. (2019). Effects of housing system, floor type and temperature on ammonia and methane emissions from dairy farming: A meta-analysis. Biosystems Engineering, 182, 16–28.
Sanchis, E., Calvet, S., Prado, A. del, & Estellés, F. (2019). A meta-analysis of environmental factor effects on ammonia emissions from dairy cattle houses. Biosystems Engineering, 178, 176–183.
Schüller, L. K., & Heuwieser, W. (2016). Measurement of heat stress conditions at cow level and comparison to climate conditions at stationary locations inside a dairy barn. Journal of Dairy Research, 83(3), 305–311.
Sofronov, V.G., Danilova, N.I., SHamilov, N.M., Kuznetsova, E.L. (2016). The effect of microclimate on the body and milk productivity of dairy cows. Scientific notes of Kazan State Academy of Veterinary Medicine named after NOT. Bauman, 227(3), 82–85.
Teye, F., Hautala, M., Pastell, M., Praks, J., Veermae, I., Poikalainen, V., Pajumagi, A., Kivinen, T., Ahokas, J. (2007). Microclimate in cowsheds in Finland and Estonia. ISAH-2007 Tartu, Estonia.
Timoshenko, V.N., Muzyika, A.A., Moskalёv, A.A., Kirikovich, S.A., SHmatko, N.N., SHeygratsova, L.N., Puchka, M.P., Timoshenko, M.V. (2017).
The influence of technical and technological solutions on the formation of the habitat of cows in the conditions of farms and complexes. Zootechnical science of Belarus, 52(2), 216–223.
Trofimov, A.F., Timoshenko, V.N., Muzyika, A.A., Moskalev, A.A., Kovalevskiy, I.A., SHeygratsova, L.N. (2014). The formation of a microclimate in livestock buildings of various types for the maintenance of lactating cows. Scientific notes of an educational institution Vitebsk Order Badge of honor State Academy of Veterinary Medicine, 50(2-1), 331–335.
Voloshchuk, V. M., & Khotsenko, A. V. (2017). Dynamika temperatury repeaters of the internal elements in the design of the cinnamon frame is of the type behind the diy factoriv of the usual middleware. Visnik Sumskoho National Angarho University, 5(2), 37–41.
Vtoryi, V., Vtoryi, S., & Ylyin, R. (2018). Investigations of temperature and humidity conditions in barn in winter. Latvia University of Agriculture.
Vtoryiy, V.F., Vtoryiy, S.V., Ilin, R.M. (2018). Model of temperature-humidity regime of a barn depending on environmental parameters. Technologies and technical means of mechanized production of crop and livestock products,96, 203–209.
Vtoryiy, V.F., Vtoryiy, S.V., Lantsova, E.O. (2016). Graphic information model of the microclimate in the barn. Technology and technical means of mechanized production of crop and livestock products, 89, 183–189.
Wang, X., Zhang, G., & Choi, C.Y. (2018a). Evaluation of a precision air-supply system in naturally ventilated freestall dairy barns. Biosystems Engineering, 175, 1–15.
Wang, X., Zhang, G., & Choi, C.Y. (2018b). Effect of airflow speed and direction on convective heat transfer of standing and reclining cows. Biosystems Engineering, 167, 87–98.
Yano, A.A., Adiarto, A., & Widayati, W. (2018). Application of a tunnel-ventilated barn on the physiological responses, milk yield, and dry matter intake of dairy cows in tropical area during the wet season. Journal of Animal Behaviour and Biometeorology, 6(4), 97–101.
Yi, Q., Li, H., Wang, X., Zong, C., & Zhang, G. (2019). Numerical investigation on the effects of building configuration on discharge coefficient for a cross-ventilated dairy building model. Biosystems Engineering, 182, 107–122.