sapiСистемный анализ и прикладная информатика«System analysis and applied information science»2309-49232414-0481Belarusian National Technical University10.21122/2309-4923-2017-2-30-38sapi-162Research ArticleУправление техническими объектамиManagement of technical objectsСРАВНИТЕЛЬНАЯ ОЦЕНКА АЛГОРИТМОВ ОБЕСПЕЧЕНИЯ МАКСИМАЛЬНОЙ ВЫХОДНОЙ МОЩНОСТИ ФОТОЭЛЕКТРИЧЕСКОЙ СТАНЦИИAN EVALUATION OF PHOTOVOLTAIC SYSTEMS MPPT TECHNIQUES UNDER THE CHARACTERISTICS OF OPERATIONAL CONDITIONSЭлзеинИ. А.ElzeinI. A.ПетренкоЮ. Н.PetrenkoYu. N.Белорусский национальный технический университетБеларусьBelarusian National Technical UniversityBelarus201707082017023038Copyright © Элзеин И.А., Петренко Ю.Н., 20172017Элзеин И.А., Петренко Ю.Н.Elzein I.A., Petrenko Y.N.Данная работа распространяется под лицензией Creative Commons Attribution 4.0.This work is licensed under a Creative Commons Attribution 4.0 License.https://sapi.bntu.by/jour/article/view/162

Приводится расширенный сравнительный анализ методов отслеживания точки максимальной мощности (MPPT). Различные методы MPPT проводятся с окончательной целью того, как максимизировать системную выходную мощность PV, отслеживая Pmax в ряде различных операционных обстоятельств. В этом отслеживании точки максимальной мощности методы MPPT рассмотрены на основе различных параметров, связанных с простотой проекта и/или сложностью, реализацией, аппаратные средства, требуемые, и другие связанные аспекты.

Производственный процесс фотоэлектрических систем улучшался постоянно за прошлое десятилетие, и фотоэлектрические системы стали интересным решением. Точно, системы PV составлены от массивов фотогальванических элементов, прерыватели (главным образом, повышение маркера, или повысьте преобразователь DC/DC), системы управления MPPT и устройства хранения и/или соединения с сетью. Чтобы повысить эффективность таких систем, различные исследования были выполнены.

Спрос систем генерации PV, кажется, повышен и на автономные и на соединенные с сеткой режимы систем PV. Поэтому эффективный метод отслеживания точки максимальной мощности (MPPT) необходим, чтобы инициализировать процесс отслеживания MPP точки максимальной мощности во всех условиях окружающей среды и затем вынудить систему PV работать в точке максимальной мощности.

In this article an extended literature surveying review is launched on a set of comparative studies of maximum power point tracking (MPPT) techniques. Different MPPT methods are addressed with an ultimate aim of how to be maximizing the PV system output power by tracking Pmax in a set of different operational circumstances. In this paper maximum power point tracking, MPPT techniques are reviewed on basis of different parameters related to the design simplicity and/or complexity, implementation, hardware required, and other related aspects.

he technology of solar systems has been booming for a while due to its ability to replace current fossil fuels like coal and gas for generation of electricity that produce air, water, and land pollution. In addition it decreased the issue of global warming and climate changes substantially due to being produced in a clean environmental manner and was proved to be an Eco-friendly resource of energy. The photovoltaic systems’ manufacturing process has been improving continuously over the last decade and photovoltaic systems have become an interesting solution. Precisely, PV systems are constituted from arrays of photovoltaic cells, choppers (mainly buck-boost or boost DC/DC converter), MPPT control systems and storage devices and/or grid connections. To improve the efficiency of such systems, various studies have been performed. The demand of PV generation systems seems to be increased for both standalone and grid-connected modes of PV systems. Therefore, an efficient maximum power point tracking (MPPT) technique is necessary to initialize the process of tracking the maximum power point MPP at all environmental conditions and then force the PV system to operate at that MPP point.

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The authors declare that there are no conflicts of interest present.