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Development and 24 Hour Behavior Analysis of a Peak-Shaving Equipment with Battery Storage

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Listed:
  • Wilson Cesar Sant’Ana

    (Instituto Gnarus, Itajuba MG 37500-052, Brazil
    Instituto de Engenharia de Sistemas e Tecnologia da Informacao, Universidade Federal de Itajuba—UNIFEI, Itajuba MG 37500-903, Brazil)

  • Robson Bauwelz Gonzatti

    (Instituto de Engenharia de Sistemas e Tecnologia da Informacao, Universidade Federal de Itajuba—UNIFEI, Itajuba MG 37500-903, Brazil)

  • Germano Lambert-Torres

    (Instituto Gnarus, Itajuba MG 37500-052, Brazil)

  • Erik Leandro Bonaldi

    (Instituto Gnarus, Itajuba MG 37500-052, Brazil)

  • Bruno Silva Torres

    (Instituto de Engenharia de Sistemas e Tecnologia da Informacao, Universidade Federal de Itajuba—UNIFEI, Itajuba MG 37500-903, Brazil)

  • Pedro Andrade de Oliveira

    (Instituto de Engenharia de Sistemas e Tecnologia da Informacao, Universidade Federal de Itajuba—UNIFEI, Itajuba MG 37500-903, Brazil)

  • Rondineli Rodrigues Pereira

    (Instituto de Engenharia de Sistemas e Tecnologia da Informacao, Universidade Federal de Itajuba—UNIFEI, Itajuba MG 37500-903, Brazil)

  • Luiz Eduardo Borges-da-Silva

    (Instituto de Engenharia de Sistemas e Tecnologia da Informacao, Universidade Federal de Itajuba—UNIFEI, Itajuba MG 37500-903, Brazil)

  • Denis Mollica

    (EDP Sao Paulo Distribuicao de Energia, Sao Paulo SP 08820-460, Brazil)

  • Joselino Santana Filho

    (EDP Sao Paulo Distribuicao de Energia, Sao Paulo SP 08820-460, Brazil)

Abstract

This paper presents the development of a peak-shaving equipment, composed by a multilevel converter in a cascaded H-bridge topology and battery banks on the DC links. Between specific time periods, when the demand is higher, the equipment injects active power from the batteries into the grid to provide support to the system. During the other times of the day, when the demand is lower, the converter charges its battery banks with the exceeding (and low producing cost) energy from the grid. The charge and discharge control algorithms are implemented in a digital signal processor (DSP). The precise time of the day information is obtained from a real-time-clock from a global positioning system module (GPS), which communicates with the DSP through the serial interface. This paper presents the control algorithms and experimental results obtained in a 24 h continuous operation of the equipment.

Suggested Citation

  • Wilson Cesar Sant’Ana & Robson Bauwelz Gonzatti & Germano Lambert-Torres & Erik Leandro Bonaldi & Bruno Silva Torres & Pedro Andrade de Oliveira & Rondineli Rodrigues Pereira & Luiz Eduardo Borges-da-, 2019. "Development and 24 Hour Behavior Analysis of a Peak-Shaving Equipment with Battery Storage," Energies, MDPI, vol. 12(11), pages 1-22, May.
    • Handle: RePEc:gam:jeners:v:12:y:2019:i:11:p:2056-:d:235301
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    References listed on IDEAS

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    Cited by:

    1. Ruiyang Jin & Jie Song & Jie Liu & Wei Li & Chao Lu, 2020. "Location and Capacity Optimization of Distributed Energy Storage System in Peak-Shaving," Energies, MDPI, vol. 13(3), pages 1-15, January.

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