Nanotechnology of ”intellectualization“ of energy accounting and of suppression of fire-energy harm in engineering systems of residential buildings. Part 1

Nanotechnology of ”intellectualization“ of energy accounting and of suppression of fire-energy harm in engineering systems of residential buildings. Part 1

Автор: Belozerov V.V., Belozerov V.V., Dolakov T.B., Nikulin M.A., Oleinikov S.I.

Журнал: Nanotechnologies in Construction: A Scientific Internet-Journal @nanobuild-en

Рубрика: Problems of using nanomaterials and nanotechnology in construction

Статья в выпуске: 2 Vol.13, 2021 года.

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Introduction. Currently, both abroad and in Russia, there is a “general digitalization” not only of certain types of activities, but also of objects of the technosphere, for example, “smart houses”, “safe cities”, etc. However, the “creators” of these objects violated the main principle of automation of Academician V.M. Glushkov, which says: you cannot automate the mess! Therefore, the authors of this article made an attempt to “eliminate clutter” in the automation of engineering systems in the residential sector. Methods, models and tools. Based on the analysis of the engineering systems of multi-apartment residential buildings and individual residential buildings, as a result of the functioning of which not only the delivery of “life support benefits” is carried out, but also fire-energy and environmental damage occurs, a methodology for “intellectualization” of the accounting means for the supplied resources has been developed for diagnostics and suppression of fire and energy harm with the help of modern nanotechnology and, thus, prevention of fires and explosions in the residential sector. Results and discussion. The methodology of “intellectualization” is based on the results of a system analysis of the “functioning of the residential sector” (apartment buildings and individual residential buildings), which made it possible to “discover” the dialectical unity of benefits and harms from consumed energy resources (electricity, domestic gas, hot and cold water), as well as to carry out a systemic synthesis of nanotechnologies and means of “isolation and suppression” of fire and energy harm. The novelty of the research is protected by RF patents. Conclusion. The proposed approach allows “eliminating the disorder before the automation” of engineering systems of multiapartment residential buildings and individual residential buildings, by “intellectualizing” metering devices and optimizing nanotechnologies for suppressing fire and energy harm that brings socio-economic losses.

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Automation, engineering systems of buildings, fire and energy harm, diagnostics of fire and explosion hazard, electric meter-detector, reactive power compensator, membrane air separator, thermomagnetic air separator

Короткий адрес: https://sciup.org/142226919

IDR: 142226919   |   DOI: 10.15828/2075-8545-2021-13-2-95-107

Список литературы Nanotechnology of ”intellectualization“ of energy accounting and of suppression of fire-energy harm in engineering systems of residential buildings. Part 1

  • Meshalkin E.A. Fire safety of residential buildings. Security systems. 2013; 1: 106–109.
  • Perikov A.V. System analysis and nanotechnology of safety in engineering systems of residential high-rise buildings. Nanotechnologies in Construction. 2018; 10(2): 114–130. Available from: doi: 10.15828/2075-8545-2018-10-2-114-130.
  • Boguslavsky E.I., Belozerov V.V., Boguslavsky N.E. Forecasting, analysis and assessment of fire safety. Rostovon-Don: RSSU; 2004.
  • Chlenov A.N., Fomin V.I., Butsynskaya T.A., Demekhin F.V. New methods and technical means of fire detection. Moscow: Academy of State Fire Service of the Ministry of Emergency Situations of Russia; 2007.
  • Yu-Chun Wen, Fa-Xin Yu, Xiao-Lin Zhou, Zhe-Ming Lu. A vector quantization based automatic fire detection system. Information Technology Journal. 2010; 9(4): 758–765. Available from: doi: 10.3923/itj.2010.758.765.
  • Turgay Celik, Hasan Demirel. Fire detection in video sequences using a generic color model. Fire Safety Journal. 2009; 44(2): 147–158. Available from: doi: 10.1016//j.firesaf.2008.05.005.
  • Chlenov A.N., Butsynskaya T.A., Zhuravlev S.Yu., Nikolaev V.A. On the effectiveness of the functioning of a multicriteria fire detector. Fire and Explosion Safety. 2016; 25(12): 55–60. Available from: doi: 10.18322/PVB.2016.25.12.55-60.
  • Belozerov V.V., Oleinikov S.N. Radio detectors of technosphere danger and its navigation with an Internet system of their functioning. Fundamental research. 2013; 10: 2843–2853.
  • Mozgovoy N.V., Zaitsev A.M. Analysis of functional dependences of the temperature curve of a standard fire. Scientific Bulletin of VGASU. 2008; 3: 196–199.
  • Koshmarov Yu. Prediction of hazardous factors of fire in the room. Moscow: AGPS Ministry of Internal Affairs of the Russian Federation; 2000.
  • GOST 12.1.004. Fire safety. General requirements. Moscow: Ed. standards; 1992.
  • GOST R 12.3.047-2012. Fire safety of technological processes. General requirements. Control methods. Moscow: Standartinform; 2014.
  • Recommendations for the use of VESDA aspirating smoke detectors. Parts 1, 2 and 3. Moscow: VNIIPO EMERCOM of Russia; 2003.
  • Belozerov V.V., Topolsky N.G., Smelkov G.I. Probabilistic-physical method for determining the fire hazard of radio-electronic equipment. In: Scientific and technical support for fire-prevention and rescue operations: Materials of the XII All-Russian Scientific and Practical Conference. Moscow: VNIIPO; 1993. p. 23–27.
  • Kushnarev F.A., Reshetnikov Yu.M., Nikiforova V.N., Ermakov V.F. Statistical analyzer of quality and metering of electricity consumption. Russian Federation Patent 2260842. 2008-07-15.
  • GOST 13109-97. The quality of the electrical network. General requirements. Moscow: Ed. standards; 1997.
  • Telemetric meter of electrical parameters of quality, power and amount of electrical energy LPW-305. Operation manual: DLIZH.411722.0001 OM. Moscow: LLC “L Card”; 2011.
  • Avdeev A.S., A.I. Gerasimova The main problems of programming systems “Smart House”. Prospects for Science. 2014; 10: 62–65.
  • Loskutov A.B., Gardin A.I., Loskutov A.A. Automated system for monitoring and metering of electricity. Nizhny Novgorod: NGSTU; 2018.
  • Belozerov V.V., Oleinikov S.N. On the issue of an adaptive fire and energy tax in ensuring fire safety. In: Improvement of the theory and methodology of finance and taxation: Materials of International Scientific and Practical Conference. Volga Research Center. Yoshkar-Ola: Colloquium; 2012. p. 106–111.
  • Encyclopedia of Cybernetics. Ed. acad. Glushkov V.M. Vol. 1. Kiev: Academy of Sciences of the Ukrainian SSR (Chief editor USE); 1974.
  • Belozerov V.V., Oleinikov S.N. Method for determining fire and electrical harm and hazardous factors of fire using an electric meter-detector. Russian Federation Patent 2622558. 2012-09-07.
  • Belozerov V.V. Experimental methods for assessing the quality, reliability and safety of electrical appliances. Technologies of technosphere safety. 2009; 5. Available from: http://agps-2006.narod.ru/ttb/2009-5/09-05-09.ttb.pdf [Accessed 10th April 2021].
  • Belozerov V.V., Lyubavsky A.Yu., Oleinikov S.N. Models for diagnostics of reliability and safety of SVT and ACS of technosphere objects. Moscow: Publishing House of the Academy of Natural Sciences; 2015. 130 p.
  • Belozerov V.V. On the expediency of revising the main fire standards. In: Proceedings of Annual International Scientific and Technical Conference “Security Systems-2014”. Moscow: AGPS EMERCOM of Russia; 2014. p. 274–282.
  • Belozerov V.V., Golubov A.I., Kalchenko I.E., Nguyen T.A., Topolsky N.G. Nanotechnology for testing and diagnostics of materials, structures and elements of engineering systems of buildings with fire retardant coatings. Part 1. Nanotechnologies in Construction. 2020; 12(3): 174–184. Available from: doi: 10.15828/2075-8545-2020-12-3-174-184.
  • Builo S.I., Belozerov V.V., PrusYu.V. Combined thermogravimetric and acoustic emission diagnostics of the stages of thermal destruction of substances and materials. Defektoskopiya. 2008; 44(3): 71–74. Available from: doi: 10.1134/S1061830908030078.
  • Belozerov VV, Belozerov Vl. V. Baro-electro-thermo-acoustic method of analysis of substances and materials and BETA-analyzer, which implements it. In: Fundamental foundations of physics, chemistry and dynamics of scienceintensive technological systems for forming and assembling products: Proceedings of the Scientific Symposium of Mechanical Engineers. Rostov-on-Don: DSTU; 2019. p. 298–306.
  • Belozerov V.V., Oleinikov S.N. On spatio-temporal statistical analysis of fires. Modern problems of science and education. 2013; 4: 58.
  • Oleinikov S.N. Electricity meter – fire and electrical hazard detector. Russian Federation Patent 2013117242.2013-16-04.
  • Belozerov V.V., Dolakov T.B., Oleinikov S.N., Perikov A.V. Synergetics of life safety in the residential sector. Moscow: Publishing house of the Academy of Natural Sciences, 2017. Available from: doi: 10.17513/np.283.
  • Belozerov V.V., Dolakov T. B. Synergetics of automation of protection of the residential sector in rural areas. In: Innovations and engineering in the formation of investment attractiveness of the region: Proceedings of the II Open International Scientific and Practical Forum. Rostov-on-Don: DSTU, SFedU; 2017. p. 362–371.
  • Bely V.V. Electromagnetic compatibility of elements of power supply systems containing reactive power compensation devices. Bulletin of the Altai State Agrarian University. 2009; 6(56); 62–65.
  • Condensing unit for reactive power compensation – KRM 0.4. Moscow: LLC AllianceEnergoService; 2014.
  • Belozerov V.V., Dolakov T.B., Belozerov Vl.V. On safety and prospects of electrical heating in individual residential buildings. Modern science-intensive technologies. 2017; 11: 7–13.
  • Shishkin S.A. Compensation of reactive power and electricity losses in rural distribution networks 6(10)/0.4 kV. Mechanization and electrification of agriculture. 2003; 10: 21–23.
  • Ministry of Fuel and Energy of the Russian Federation. RD 34.20.185-94. Instructions for the design of urban electrical networks. Moscow; 1995.
  • Perikov A.V. Model of an automated microsystem for suppressing fire-electric harm. International student scientific bulletin. 2018; 3-3. Available from: http://www.eduherald.ru/ru/article/view?id=18323 (Accessed 3rd April 2021).
  • Melent’ev V.S., Baskakov V.S., Shutov V.S. Method for determining the power factor. Inventor’s Certificate (USSR) No. 1679401 A1, G 01R21 / 00. 1989-07-18.
  • Belozerov V.V., Denisov A.N., Dolakov T.B., Voroshilov I.V., Nikulin M.A., Oleinikov S.N., Belozerov V.V. Method for early and authenticity detection of hazardous factors of fire, with of suppression of fire-energy harm in residential premises. Application for invention RU 2021122049 of 2021-04-27.
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