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Generation, performance evaluation and control design of single-phase differential-mode buck–boost current-source inverters

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Generation, performance evaluation and control design of single-phase differential-mode buck–boost current-source inverters. / Badawy, Ahmed Darwish; Massoud, Ahmed M.; Holliday, Derrick et al.
In: IET Renewable Power Generation, Vol. 10, No. 7, 08.2016, p. 916-927.

Research output: Contribution to Journal/MagazineJournal articlepeer-review

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Badawy AD, Massoud AM, Holliday D, Ahmed S. Generation, performance evaluation and control design of single-phase differential-mode buck–boost current-source inverters. IET Renewable Power Generation. 2016 Aug;10(7):916-927. doi: 10.1049/iet-rpg.2015.0343

Author

Badawy, Ahmed Darwish ; Massoud, Ahmed M. ; Holliday, Derrick et al. / Generation, performance evaluation and control design of single-phase differential-mode buck–boost current-source inverters. In: IET Renewable Power Generation. 2016 ; Vol. 10, No. 7. pp. 916-927.

Bibtex

@article{0c03d56c8abe4307ba5781c55e904e88,
title = "Generation, performance evaluation and control design of single-phase differential-mode buck–boost current-source inverters",
abstract = "Differential-mode inverter topologies are promising for renewable energy generation since they offer advantages such as passive elements sizes reduction, having decreased power losses and reduced total cost. Single phase buck–boost differential-mode current-source inverters (DMCSIs) can deliver wider range of output voltage above or below the input dc voltage, which is necessary for high-efficiency modern renewable energy applications. Since these inverters have continuous input currents, they are suitable for maximum power point tracking (MPPT) operation of photovoltaic systems. Yet, the investigation, operation and implementation of these types of inverters have not been extensively discussed. As a drawback, the total dc side input current of a single-phase inverter consists of a dc component and an undesirable ac component. This ac component frequency is double the output voltage frequency and thus it affects MPPT resulting in reduced total efficiency. In this study, five promising DMCSIs are proposed and compared in terms of their total efficiencies, high-frequency ripple current in the dc side, total harmonic distortion, devices sizes and ratings. Moreover, the sliding mode controller's design and possible methods of eliminating the input second harmonic current are discussed. 2.5 kW bidirectional inverters are implemented to confirm the design flexibility of the proposed DMCSIs.",
author = "Badawy, {Ahmed Darwish} and Massoud, {Ahmed M.} and Derrick Holliday and Shehab Ahmed",
year = "2016",
month = aug,
doi = "10.1049/iet-rpg.2015.0343",
language = "English",
volume = "10",
pages = "916--927",
journal = "IET Renewable Power Generation",
issn = "1752-1424",
publisher = "Institution of Engineering and Technology",
number = "7",

}

RIS

TY - JOUR

T1 - Generation, performance evaluation and control design of single-phase differential-mode buck–boost current-source inverters

AU - Badawy, Ahmed Darwish

AU - Massoud, Ahmed M.

AU - Holliday, Derrick

AU - Ahmed, Shehab

PY - 2016/8

Y1 - 2016/8

N2 - Differential-mode inverter topologies are promising for renewable energy generation since they offer advantages such as passive elements sizes reduction, having decreased power losses and reduced total cost. Single phase buck–boost differential-mode current-source inverters (DMCSIs) can deliver wider range of output voltage above or below the input dc voltage, which is necessary for high-efficiency modern renewable energy applications. Since these inverters have continuous input currents, they are suitable for maximum power point tracking (MPPT) operation of photovoltaic systems. Yet, the investigation, operation and implementation of these types of inverters have not been extensively discussed. As a drawback, the total dc side input current of a single-phase inverter consists of a dc component and an undesirable ac component. This ac component frequency is double the output voltage frequency and thus it affects MPPT resulting in reduced total efficiency. In this study, five promising DMCSIs are proposed and compared in terms of their total efficiencies, high-frequency ripple current in the dc side, total harmonic distortion, devices sizes and ratings. Moreover, the sliding mode controller's design and possible methods of eliminating the input second harmonic current are discussed. 2.5 kW bidirectional inverters are implemented to confirm the design flexibility of the proposed DMCSIs.

AB - Differential-mode inverter topologies are promising for renewable energy generation since they offer advantages such as passive elements sizes reduction, having decreased power losses and reduced total cost. Single phase buck–boost differential-mode current-source inverters (DMCSIs) can deliver wider range of output voltage above or below the input dc voltage, which is necessary for high-efficiency modern renewable energy applications. Since these inverters have continuous input currents, they are suitable for maximum power point tracking (MPPT) operation of photovoltaic systems. Yet, the investigation, operation and implementation of these types of inverters have not been extensively discussed. As a drawback, the total dc side input current of a single-phase inverter consists of a dc component and an undesirable ac component. This ac component frequency is double the output voltage frequency and thus it affects MPPT resulting in reduced total efficiency. In this study, five promising DMCSIs are proposed and compared in terms of their total efficiencies, high-frequency ripple current in the dc side, total harmonic distortion, devices sizes and ratings. Moreover, the sliding mode controller's design and possible methods of eliminating the input second harmonic current are discussed. 2.5 kW bidirectional inverters are implemented to confirm the design flexibility of the proposed DMCSIs.

U2 - 10.1049/iet-rpg.2015.0343

DO - 10.1049/iet-rpg.2015.0343

M3 - Journal article

VL - 10

SP - 916

EP - 927

JO - IET Renewable Power Generation

JF - IET Renewable Power Generation

SN - 1752-1424

IS - 7

ER -