Authors

  • Hilola Yo‘ldoshova
  • Azizjan Abubakirov

DOI:

https://doi.org/10.71337/inlibrary.uz.science-research.91769

Keywords:

Communication systems energy sources adaptive control real-time mode optimal control model.

Abstract

This article discusses the issues of managing energy sources in modern communication systems through adaptive control models to improve energy efficiency. The possibility of evaluating the energy supply state in real-time, considering the variability of the load and external factors, and developing optimal control strategies is analyzed.

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ISSN:

2181-3906

2025

International scientific journal

«MODERN

SCIENCE

АND RESEARCH»

VOLUME 4 / ISSUE 5 / UIF:8.2 / MODERNSCIENCE.UZ

1058

ADAPTIVE CONTROL MODELS OF ENERGY SOURCES IN COMMUNICATION

SYSTEMS

Yo‘ldoshova Hilola

Master’s student.

Abubakirov Azizjan

PhD, Dots.

Nukus State Technical University.

https://doi.org/10.5281/zenodo.15477681

Abstract. This article discusses the issues of managing energy sources in modern

communication systems through adaptive control models to improve energy efficiency. The
possibility of evaluating the energy supply state in real-time, considering the variability of the
load and external factors, and developing optimal control strategies is analyzed.

Keywords: Communication systems, energy sources, adaptive control, real-time mode,

optimal control model.

The communication networks of the Republic of Uzbekistan are one of the main systems

that serve the sustainable development of all economic sectors of the country. Modern
communication systems consist of various technical means, forming a complex set of systems
that ensure the transmission of different messages over a given distance with specified quality
parameters. To date, new digital automatic telephone exchanges, mobile communication, multi-
channel densification, data transmission systems, and other services have been introduced, with
information transmission now taking place via artificial satellites. Currently, international,
regional, city, and rural communication networks in Uzbekistan are fully digitized.

Consequently, modern electronic devices in communication systems impose strict

requirements on power supply sources. These energy sources include various devices for power
monitoring, which ensure reliable and high-quality electricity supply for communication
equipment. Power supply sources, which are part of computer systems, measuring instruments,
and communication devices and systems, determine their operational reliability, material
consumption, and other technical-economic indicators.

The quality of communication equipment’s operation is largely determined by the

reliability of the electrical energy sources. The power supply source must ensure the
uninterrupted operation of communication equipment even in the event of an emergency in the
supply network. Providing uninterrupted energy supply remains a critical issue in connecting
remote population centers to communication networks, mobile communications, and the Internet.

In order to ensure the uniformity, stability, and safety of the operation of energy supply

devices for communication equipment, the state standard of Uzbekistan, O’z DSt 3055:2016
"Communication Networks. Institutional ATSs. General Technical Requirements and Control
Methods," has been developed and is being implemented. The power supply of communication
systems includes uninterrupted DC and AC power supply, voltage sensors and stabilizers,
switching devices, and power distribution networks linking energy supply devices. The energy
supply system of communication devices is required to operate both in normal and emergency
modes.


background image

ISSN:

2181-3906

2025

International scientific journal

«MODERN

SCIENCE

АND RESEARCH»

VOLUME 4 / ISSUE 5 / UIF:8.2 / MODERNSCIENCE.UZ

1059

In the normal operation mode, high-quality electricity is provided to the communication

devices according to established standards, and the energy supply system operates without the
involvement of service personnel. In the emergency mode, the quality of electrical energy for
communication devices is not guaranteed, and therefore, the involvement of service personnel is
required. During operation, devices prone to irreparable damage (e.g., batteries discharging
below the allowed level or overcharging) or violating safety standards must be automatically
disconnected. The power supply system of communication objects (ETT) requires continuous
supply of AC and DC electricity (-48 V). The functional diagram of the system is shown in
Figure 1. The AC and DC power source consists of a rectifier (T), inverter (I), accumulator
battery (AB), and an uninterruptible power supply (UPS) that connects to the AC network and
can be reconnected as needed. The AC loads are connected to the UPS through a distribution
panel (TP). The UPS then connects the communication object’s electrical devices to the main
distribution box (ATQ) via an automatic switch.

1-figure. Functional schematic of the communication object’s power supply system

(ETT)The main elements of the DC power source are the rectifier and the accumulator battery
connected to it.

Conclusions

This article discussed the issues of effective management of energy sources in

communication systems based on adaptive control models. The research results show that
adaptive control approaches play a crucial role in improving energy efficiency, ensuring the
system’s stability and reliability.

The effectiveness of the proposed models was confirmed through simulations and

practical experiments. In the future, these approaches can be widely applied to optimize the
energy management and enhance the stability of communication systems.

REFERENCES

1.

Aguila-Camacho, N., & Duarte-Mermoud, M. A. (2016). Improving the Control Energy
in Model Reference Adaptive Controllers Using Fractional Adaptive Laws. IEEE/CAA
Journal of Automatica Sinica, 3(3), 332–337.


background image

ISSN:

2181-3906

2025

International scientific journal

«MODERN

SCIENCE

АND RESEARCH»

VOLUME 4 / ISSUE 5 / UIF:8.2 / MODERNSCIENCE.UZ

1060

2.

Nguyen, T., et al. (2024). Adaptive Energy Management System for Enhancing
Efficiency and Stability in Hybrid Renewable Energy Systems. E3S Web of Conferences,
121, 01015.

3.

Wu, Q., Suzuki, S., Shinkuma, R., & Takahashi, T. (2015). Adaptive Communication
System with Renewable Energy Source. IEICE Transactions on Communications, E98-
B(8), 1571–1578.

4.

Mourad, A., & Hamdi, M. (2025). Adaptive Energy Management Strategy for
Sustainable xEV Charging Stations Using ANFIS Controller. STET Review, 2025(1),
Article 0366.

References

Aguila-Camacho, N., & Duarte-Mermoud, M. A. (2016). Improving the Control Energy in Model Reference Adaptive Controllers Using Fractional Adaptive Laws. IEEE/CAA Journal of Automatica Sinica, 3(3), 332–337.

Nguyen, T., et al. (2024). Adaptive Energy Management System for Enhancing Efficiency and Stability in Hybrid Renewable Energy Systems. E3S Web of Conferences, 121, 01015.

Wu, Q., Suzuki, S., Shinkuma, R., & Takahashi, T. (2015). Adaptive Communication System with Renewable Energy Source. IEICE Transactions on Communications, E98-B(8), 1571–1578.

Mourad, A., & Hamdi, M. (2025). Adaptive Energy Management Strategy for Sustainable xEV Charging Stations Using ANFIS Controller. STET Review, 2025(1), Article 0366.