Transfer of scattered energy of the ambient air in the format of energy heat and mass transfer and energy inversion for autonomous full-fledged operation of the energy complex of an air heat pump system

Бесплатный доступ

At present, the process of converting potential energy concentrated in the surrounding air is of considerable interest when using its active component. For many years, searches have been made for ways to increase the efficiency of existing energy sources, the continued study of which would not lead to environmental consequences for mankind. Much attention of scientists is attracted by the problems of energy inversion. And the most acute issue is the control of energy inversion, which is a single process of energy transformation from one state to another, occurring simultaneously in the “concentration-dispersion” format in the surrounding air. This kind of opportunity to use ambient air as renewable energy sources is provided by air heat pump systems, the heat supply of which is practically the only effective, environmentally friendly source of heat supply in buildings at present. However, modern air heat pump systems cannot be attributed to systems operating only on renewable energy sources, since their operation requires, according to the technology, a certain amount of electrical energy to start the compressor engine, which ensures the operation of a closed compression cycle of the evaporative-condensation unit. At present, it is not possible to achieve a full autonomous mode of operation of an air heat pump system without the use of an additional energy source. Continuing the innovative and effective way of developing the extraction of the surrounding air for the purpose of obtaining thermal and electrical energy, scientists propose to use the capabilities of modern quantum wave technology, based on thermodynamics and electrodynamics. To solve this problem, they followed the path of development of modern electronics, realizing that electrons - “quanta” determine the vast majority of the physical and chemical properties of the bodies around us. Such a process of heat and mass transfer, in the conditions of the surrounding air, under the influence of external forces of the energy field, is the environment in which natural and artificial electric currents propagate.

Еще

Energy inversion, concentration, ambient air, dissipation, electrical energy, heat pump systems

Короткий адрес: https://sciup.org/146282565

IDR: 146282565

Список литературы Transfer of scattered energy of the ambient air in the format of energy heat and mass transfer and energy inversion for autonomous full-fledged operation of the energy complex of an air heat pump system

  • Grosheva E. K., Chuprin A. D. Alternative energy sources, their application in Russia. Business education in the knowledge economy, 2020, 19-23
  • Khare V., Nema S., Baredar P. Solar - wind hybrid renewable energy system. Renewable and Sustainable Energy Reviews, 2016, 58, 23-33
  • Chicherin S. V. Reliability and efficiency of medium-temperature heat supply. Materialovedenie. Energy, 2017, 75-79
  • Volodin V. I., Sedlyar K. V. The choice of operating parameters and refrigerant for steam compressor air heat pumps. Proceedings of BSTU. Chemistry and technology of inorganic substances, 2016, 3, 147-153
  • Shcherba A. D. The use of heat pumps in Russia. Education and science in Russia and abroad, 2019, 1 (49), 45-47
  • Rukavishnikov A. M. New Russian patents on refrigeration technology and heat pumps. Refrigeration technology, 2019, 4, 57-59
  • Khalilullina A. R. Renewable energy sources in the form of a geothermal heat pump. Innovative Science, 2019, 2, 42-44.
  • Oshchepkov P. K. "Life and Dream", publishing house "Moscow worker", 1984, 308-315
  • Fedosov S. V., Fedoseev V. N., Zaitseva I. A., Emelin V. A. High-tech system of air heat pump for low-rise and cottage buildings. Journal of Pribory, 2020, 2 (236), 49-53
  • Rumyantsev E. V., Fedosov S. V., Fedoseev V. N., Petrukhin A. B., Chistyakova Yu. A. Innovative solutions for safe and environmentally friendly heat supply systems for industrial buildings as a factor in reducing the energy intensity of the Russian economy. Bulletin of the Voronezh Institute of the State Fire Service of the EMERCOM of Russia (Modern problems of civil protection), 2018, 4, 45-50
  • Fedosov S. V., Fedoseev V. N., Zaitseva I. A. Recirculating air heat pump with recuperation: application experience. AVOK: Ventilation, heating, air conditioning, heat supply and building thermal physics, 2020, 8, 54-57
  • Kim D. H., Park H. S., Kim M. S. The effect of the refrigerant charge amount on single and cascade heat pump systems. International Journal of Refrigeration, 2014, 40, 254-268
  • Fedoseev V. N., Emelin V. A., Voronov V. A., Ostryakova Yu.E., Sviridov I. A. Patent No. 174083, Russian Federation, Heat pump; app. from 01/09/2017; publ. 09/29/2017. Bul. No. 28.
  • Herbert J., Krishnan U. Quantifying environmental performance of biomass energy. Renewable and Sustainable Energy Reviews, 2016, 59, 292-308
  • Makhova A. V., Nelipa A. V. Analysis and prospects for the use of alternative energy sources in Russia in 2014-2024. Eurasian Union of Scientists, 2018, 3-4 (48), 41-44
  • Jung H. W., Kang H., Chung H., Ahn J. H., Kim Y. Performance optimization of a cascade multifunctional heat pump in various operation modes. International Journal of Refrigeration, 2014, 42, 57-68
  • Seregina EA, Beimanov T. Use of heat pumps for heating rooms in Russia. Urban planning. Infrastructure. Communications, 2019, 2 (15), 16-21
Еще
Статья научная