Application of the System Nesting Technology for Studying the Invariance of a Complex Electric System Output in Terms of State Variables

  • Kakhraman R. ALLAYEV
  • Akram M. MIRZABAYEV
  • Takhir F. MAKHMUDOV
  • Temur A. MAKHKAMOV
Keywords: electrical system, system nesting technology, invariance, theory matrices, controller

Abstract

The presented technique for synthesizing the electric system controller based on the system nesting technology is sufficiently simple because it is based on the modern theory of matrices suited for computer applications and therefore can be recommended for investigating complex automatically controlled electric power systems. The conditions for invariance of the electric system output with a synthesized controller to arbitrary external disturbances are substantiated using the matrix canonization method, which serves as a basis of the system nesting technology. The main distinctive feature of using the system nesting technology consists in a reduced amount of computation efforts because this technology rests on matrix analysis techniques, for which software packages have been developed. Another important aspect is that the class of controllers imparting the required dynamic properties to the studied systems, including invariance, is described analytically. The obtained results demonstrate high efficiency of the system nesting technology, due to which it can be recommended for being used in performing dispatch control of complex electrical systems.

Author Biographies

Kakhraman R. ALLAYEV

ALLAYEV Kakhraman R. (Tashkent State Technical University (TSTU), Tashkent, Uzbekistan) — Professor, Dr. Sci. (Eng.)

Akram M. MIRZABAYEV

MIRZABAYEV Akram M. (International Institute of Sunny Energy, Tashkent, Uzbekistan) — Leading Researcher, Dr. Sci. (Eng.)

Takhir F. MAKHMUDOV

MAKHMUDOV Takhir F. (TSTU, Tashkent, Usbekistan) — Graduate Student

Temur A. MAKHKAMOV

MAKHKAMOV Temur A. (LLC «OLAISIS», Moscow, Russia) — Leader of Department

References

Буков В.Н. Вложение систем. Аналитический подход к анализу и синтезу матричных систем. — Калуга: Изд-во Н.Ф. Бочкаревой, 2006, 720 с.

Мисриханов М.Ш. Классические и новые методы анали­за многомерных динамических систем. — М.: Энергоатомиздат, 2004, 438 с.

Щипанов Г.В. Теория и методы проектирования автома­тических регуляторов. — Автоматика и телемеханика, 1939, № 1, с. 49—66.

Буков В.Н., Горюнов С.В., Рябченко В.Н. Анализ и синтез матричных линейных систем. Сравнение подходов. — Автома­тика и телемеханика, 2000, № 11, с. 3—43.

Петров Б.Н. О реализуемости условий инвариантности. — Труды конф. «Теория инвариантности и ее применение в ав­томатических устройствах». Киев, 1958, с. 21—29.

Алиев Р.А. Принт тип инвариантности и его применение. М.: Энергоатомиздат, 1985, 128 с.

Буков В.Н., Бронников А.М. Условия инвариантности выхода линейных систем. М.: Автоматика и телемеханика, 2005, № 2, с. 23—35.
#
Bukov V.N. Vlozheniye sistem. Analiticheskii podkhod k analizu i sintezu matrichnykh sistem (An analytical approach to analysis and synthesis of matrix systems). Kaluga, Publ. of N.F. Bochkarevoi, 2006, 720 p.

Misrikhanov M.Sh. Klassicheskiye i novye metody analiza mnogomernykh dinamicheskikh sistem (Classic and new methods for analyzing multidimensional dynamic systems). Moscow, Energoatomizdat, 2004, 438 p.

Shchipanov G.V. Avtomatika i telemekhanika — in Russ. (Automation and telemechanics), 1939, No. 1, pp. 49—66.

Bukov V.N., Goryunov S.V., Ryabchenko V.N. Avtomatika i telemekhanika — in Russ. (Automation and telemechanics), 2000, No. 11, pp. 3—43.

Petrov B.N. O realizuemosti uslovii invariantnosti. — Trudy konf. «Teoriya invariantnosti i eye primeneniye v avtomaticheskikh ustroistvakh» (On the Realizability of Invariance Conditions. Proceedings of conf. «The theory of invariance and its application in automatic devices). Kiyev, 1958, pp. 21—29.

Aliyev R.A. Printsip invariantnosti i ego primeneniye (The invariance principle and its application). Moscow, Energoatomizdat, 1985, 128 p.

Bukov V.N., Bronnikov A.M. Avtomatika i telemekhanika — in Russ. (Automation and telemechanics), 2005, No. 2, pp. 23—35.
Published
2019-02-21
Section
Article