Wesley Peres

Dr. Wesley Peres


Research Focus & Metrics

Academic Career Length

10Years (2017-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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18 September 2020 in Electrical Engineering
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Journal Article
Closed access
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FCFrancisco C. R. Coelho
Francisco C. R. Coelho
IJIvo Chaves Silva Junior
Ivo Chaves Silva Junior
Bruno DiasBruno Dias
Bruno Dias
Wesley PeresWesley Peres
Wesley Peres
VFVitor Hugo Ferreira
Vitor Hugo Ferreira
André Luís Marques MarcatoAndré Luís Marques Marcato
André Luís Marques Marcato

7 October 2023 in International Journal of Electrical Power & Energy Systems
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Journal Article
Open access
Wesley PeresWesley Peres
Wesley Peres

10 August 2020 in International Transactions on Electrical Energy Systems
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Journal Article
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Wesley PeresWesley Peres
Wesley Peres
FCFrancisco C. R. Coelho
Francisco C. R. Coelho
JCJunior N. N. Costa
Junior N. N. Costa


1 December 2020 in ISA Transactions
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Journal Article
Closed access
Wesley PeresWesley Peres
Wesley Peres
NCNatan Nascimento da Costa
Natan Nascimento da Costa

6 June 2024 in IEEE Access
Verified
Journal Article
Open access
JCJunior N. N. da Costa
Junior N. N. da Costa
JFJoão Alberto Passos Filho
João Alberto Passos Filho
Wesley PeresWesley Peres
Wesley Peres
This paper presents two new steady-state voltage control methodologies for microgrids. The main idea is to use the power factor angle of photovoltaic (PV) inverters to develop two control schemes, a primary one for local voltage control at the interconnection point and a secondary one for voltage control through the coordinated adjustment of several PV generation units. Mathematically, the proposal is based on a set of non-linear equations that represent the equations of the grid, the PV system model, and the proposed control schemes. These equations form a generalized and expanded power flow problem, which can be solved efficiently by the traditional Newton-Raphson method. Complementarity conditions and sigmoid functions are used to treat the inverter limits, carried out automatically and simultaneously with the problem’s solution. Computational simulations carried out on a small-scale tutorial system and the IEEE 38-bus system demonstrate the effectiveness of the methodologies. In addition, the performance of the secondary control scheme was evaluated under different load, irradiance, and temperature conditions, considering a time horizon of 7 days (168 hours). The results indicate that the developed control has great potential to improve the voltage profile of microgrids.