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Using an artificial neural network to improve the accuracy of IHP controller settings using the example of higher education buildings

https://doi.org/10.21822/2073-6185-2026-53-1-49-55

Abstract

Objective. The objective of the study is to create a decision support system (DSS) that automatically analyzes sensor data, processes statistical data, and alerts the operator to the need for PLC programming, providing calculation results on the predicted technical and economic effect using an artificial neural network.

Method. The study is based on methods for constructing intelligent control systems for technological processes and production.

Result. The study examined the possibilities of increasing the efficiency of the automated process control system by improving the accuracy of the IHP controller settings. A method for improving the accuracy of the automated process control system by using an artificial neural network is considered. It is proposed to perform forecast calculations based on hydrometeorological center forecasts with a forecast period of 4-6 hours ahead. A set of additional sensors necessary for improving the forecast accuracy is proposed. The additional capital expenditures will pay for themselves within 2 heating periods.

Conclusion. Existing approaches to the digitalization of heat power equipment control methods are considered. The use of an artificial neural network allows for increasing the accuracy of the IHP controller settings.

About the Authors

S. V. Guzhov
National Research University "Moscow Power Engineering Institute"
Russian Federation

Sergey V. Guzhov, Cand. Sci. (Eng.), Assoc. Prof., Director of the Center for Training and Professional Retraining "Automated Thermal Process Control Systems in Energy and Industry",

14 Krasnokazarmennaya St., Bldg. 1, Moscow 111250



A. A. Arbatsky
Research Institute of Energy-Efficient Microclimate Technologies
Russian Federation

Andrey A. Arbatsky, Cand. Sci. (Eng.), General Director,

68V Chkalova St., Room N3, Office 213, Ryazan 390029



E. V. Krylova
National Research University "Moscow Power Engineering Institute"
Russian Federation

Elena V. Krylova, Cand. Sci. (Pedag.), Assoc. Prof.; Deputy Director for Academic Affairs, Institute of Thermal and Nuclear Energy,

14 Krasnokazarmennaya St., Bldg. 1, Moscow 111250



D. Z. Dzakhmisheva
National Research University "Moscow Power Engineering Institute"; AO Atomenergoproekt
Russian Federation

Diana Z. Dzakhmisheva, Design Engineer, 14 Krasnokazarmennaya St., Bldg. 1, Moscow 111250;

7 Bakuninskaya St., Moscow 1107996

 



References

1. Varshavsky, P.R. Architecture of a distributed system for intellectual data analysis based on precedents / P.R. Varshavsky, S.A. Polyakov. Bulletin of the Moscow Power Engineering Institute. Bulletin of MPEI. – 2023; 4:155-161. - DOI 10.24160/1993-6982-2023-4-155-161. - EDN LUTBAJ.

2. Arakelyan, E.K. Selection and assessment of priority areas for improving the intelligence of automated process control systems of thermal power plants / E.K. Arakelyan, A.A. Kosoy. Vesti v elektroenergetike. 2022;5 (121):52-57. - EDN KTVNSG.

3. Mezin, S.V. Comparative analysis of the operation of classical multivariate control systems and systems with a neurocontroller using the example of a real object / S.V. Mezin, D.A. Dementyev. Bulletin of the Moscow Power Engineering Institute. MPEI Bulletin. 2024;2:117-125. - DOI 10.24160/1993-6982-2024-2-117-125. - EDN CNBLGF.

4. Mezin, S.V. Comparative analysis of the operation of classical multivariate control systems and systems with a neurocontroller using the example of a real object / S.V. Mezin, D.A. Dementyev. Bulletin of the Moscow Power Engineering Institute. MPEI Bulletin. 2024; 2: 117-125. – DOI 10.24160/1993-6982-2024-2-117-125. – EDN CNBLGF.

5. DTSхх5.И thermistors with an output signal of 4...20 mA OWEN [Electronic resource]. https://owenufa.ru/shop/proizvoditeli/owen/dtshh5-termosoprotivleniya-s-vyhodnym-signalom-4-20-ma-oven/?ybaip= 1&yclid=4928094631278673919 (date of access 01/14/2026).

6. VTV121 IFM vibration sensor [Electronic resource]. https://ifm-russia.ru/product/vtv121/ (date of access 01/14/2025).

7. Condumax CLS12 Specific Conductivity Sensor [Electronic resource]. https://rizur.ru/catalog/analizEH/analogovyy-datchik-provodimosti-condumax-cls12/?ysclid=mh35apbhs23875283 / (accessed on January 14, 2026).

8. Neptun SW005-10.0 Water Leak Monitoring Sensor [Electronic resource]. https://lunda.ru/catalog/category/c13207/product/datchik-wsp-gidrolock_102349.html?utm_referrer=https%3A%2F%2Fyandex.ru%2F (accessed on January 14, 2025).


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For citations:


Guzhov S.V., Arbatsky A.A., Krylova E.V., Dzakhmisheva D.Z. Using an artificial neural network to improve the accuracy of IHP controller settings using the example of higher education buildings. Herald of Dagestan State Technical University. Technical Sciences. 2026;53(1):49-55. (In Russ.) https://doi.org/10.21822/2073-6185-2026-53-1-49-55

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ISSN 2073-6185 (Print)
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