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New methodological approach to calculations for design of energy-saving device for heating water intended for livestock watering

https://doi.org/10.32634/0869-8155-2022-364-11-117-121

Abstract

Relevance. The development and use of new tools and technologies aimed at energy saving in agriculture has been and remains an urgent task. The use of non-traditional and renewable energy sources has become very popular. An advanced role in this direction is acquired by the use of heat released by cattle.
Methods. It is assumed that due to the free heat, which is directed to the disposal of the livestock premises, heating will occur, for which a new device for heating water has been developed. Based on the results of calculations and observations, it was decided that the device for water heating will be placed in the place where the air temperature in the livestock premises reaches maximum values. There are a number of issues that need to be solved. One of them is an important part of the design of a new heating device — this is the calculation of its constructive parameters.
Results. It is necessary to take into account many factors that affect the heat generation of cows, their drinking conditions, possibility of the installation of the heat exchanger to affect the ventilation in premises, its heating capacity. The calculation of these parameters will make it possible to evaluate in real conditions of use of water heating device, working due to the release of heat from cattle. Its use will reduce the consumption of electric energy, which is used to heat water intended for cows.

About the Authors

Yu. M. Dulepova
Nizhny Novgorod state engineering-economic university
Russian Federation

 senior teacher of the chair «Electrification and Automation» 

 Oktyabrskaya 22 A, Knyaginino, Nizhny Novgorod region, 606340, Russian Federation 



D. E. Dulepov
Nizhny Novgorod state engineering-economic university
Russian Federation

 Candidate of Technical Sciences Head of the Department «Electrification and Automation»Nizhny 

Oktyabrskaya 22 A, Knyaginino, Nizhny Novgorod region, 606340, Russian Federation 



A. A. Alexandrova
Nizhny Novgorod state engineering-economic university
Russian Federation

 senior teacher of the chair «Electrification and Automation» 

Oktyabrskaya 22 A, Knyaginino, Nizhny Novgorod region, 606340, Russian Federation 



G. N. Samarin
Federal Scientific Agroengineer Center VIM
Russian Federation

 Doctor of technical sciences, associate professor, chief researcher

1st Institutskiy proezd, 5, 109428, Moscow, Russian Federation 



S. N. Mardaryev
Chuvash State Agrarian University
Russian Federation

Candidate of Technical Sciences Head of the Department of Mechanization, Electrification and Automation of Agricultural Production

st. K. Marx, 29, Cheboksary, 428003, Russian Federation 



References

1. Velkin V. I. Methodology for calculating complex RES systems for use at autonomous facilities: monograph. Yekaterinburg: UrFU. 2015. 226 p. (In Russian)

2. Kolomiets, Yu. G. Efficiency research of converting solar radiation energy into low-potential heat in various climatic conditions. Dissertation for the degree of candidate of technical sciences, Moscow: Joint Institute of High Temperatures of the Russian Academy of Sciences. 2009. 174 p. (In Russian)

3. Maslova А. А., Zhuzhin М. S. Mathematical modeling of operation of the device for water heating by solar energy. Orenburg: Bulletin of Orenburg State Agrarian University. 2019; 2(76): 145–148 (In Russian)

4. Tihomirov D. A., Trunov S. S., Ershova I. G., Ukhanova V. Y., Poruchikov D. V. Installation on renewable energy sources to support microclimate parameters of agricultural objects. Bulletin NGIEI. 2019; 8 (99): 55-65 (In Russian)

5. Ignatkin, I. Yu. Optimizing utilization efficiency of heat developed by air-to-air recuperator. Bulletin of Federal State Educational Institution of Higher Professional Education «Moscow State Agroengineering University named after V.P. Goryachkin». 2018; 1 (83): 34-39 (In Russian)

6. Shatsky, V.P. Shatsky V.P., Gulevsky V.A., Spirina N.G. Application of heat exchangers (recuperators) for the normalization of cattle shed microclimate. News of higher educational institutions. 2013; 9 (657): 64-68 (In Russian)]

7. Makarova, Yu. M., Maslova A. A., Osokin V. L. Optimization of electric energy consumption by agricultural enterprises through the introduction of new water treatment devices. Sustainable development of agricultural and industrial complexes of the regions: situation and prospects. Tom 2: Collection of scientific works on the materials of international scientific and practical conference June 2-4, 2015. TVGSHA; 172-174 (In Russian)

8. Mokhov B.P. Usage of metabolism energy in formation of body thermal state of the cattle. Bulletin of the Ulyanovsk State Agricultural Academy. 2021; 2(54): 234-242.

9. Svistunov V. M., Pushnyakov N. K. Heating, ventilation and air conditioning of objects of agricultural and industrial complex and housing and communal services. Textbook for universities. Polytechnic. 2007. 423 p. (In Russian)

10. Nurminsky, I.N. The use of water heating and circulation in installations for livestock drinking by means of automatic watering machines: dissertation for the degree of candidate of technical sciences. Ulan-ude, 1975 (In Russian)

11. Radko, V. A., Krashennikova T. I. Influence of temperature (drinking) water on animal productivity. Scientific and technical bulletin by electrification of agriculture. 1979; 3: 19-22 (In Russian)

12. Simonov G. A. Drinking cows with warm water in winter increases dairy productivity. Effective animal husbandry. 2015; 10 (119): 52-53 (In Russian)

13. Dulepova Yu. M. Justification of the possibility of application new the energy saving device for water heating. Bulletin of NGIEI. 2017; 6 (73): 61-68 (In Russian)

14. Orishchenko I.V. Justification of the parameters and modes of operation of group automatic watering machine for cattle. Dissertation for the degree of candidate of technical sciences. Zernograd: 2012. 170 p (In Russian)

15. Muzyka A. A., Sheygratsova L. N., Kurak A. S. Evaluation of the temperature and humidity regime of livestock buildings of various standard solutions in the winter period. Actual problems of intensive development of animal husbandry. 2020; 23-2:162-169. (In Russian)

16. Putan A. A. Heat recuperator with the ability to work at low temperatures. Bulletin of NGIEI. 2021; 2(117): 27-40 (In Russian)

17. Trunov S. S., Tikhomirov D. A., Baklachyan R. A., Dobrovolsky Yu. N. Influence of air heat curtains on the energy balance of livestock premises . Innovations in agriculture. 2020; 1(34): 70-79 (In Russian)

18. Samarin G.N. Optimization of microclimate parameters inside livestock build-ings . Advances in intelligent systems and computing. 2019; 866: 337–345.

19. Agakhanova K. M. Calculation of aeration of an agricultural building of dairy production in the cold season. Agrarian scientific journal 2020; 1: 47–49 (In Russian)


Review

For citations:


Dulepova Yu.M., Dulepov D.E., Alexandrova A.A., Samarin G.N., Mardaryev S.N. New methodological approach to calculations for design of energy-saving device for heating water intended for livestock watering. Agrarian science. 2022;1(11):117-121. (In Russ.) https://doi.org/10.32634/0869-8155-2022-364-11-117-121

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