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Solar cell parameter accuracy improvement, via refinement of the Co-Content function: Part 1: Theoretical analysis

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Solar cell parameter accuracy improvement, via refinement of the Co-Content function: Part 1: Theoretical analysis. / Rangel-Kuoppa, V.T.
In: Engineering Research Express, Vol. 4, No. 1, 015022, 17.02.2022.

Research output: Contribution to Journal/Magazine › Journal article › peer-review

Harvard

Rangel-Kuoppa, VT 2022, 'Solar cell parameter accuracy improvement, via refinement of the Co-Content function: Part 1: Theoretical analysis', Engineering Research Express, vol. 4, no. 1, 015022. https://doi.org/10.1088/2631-8695/ac4c36

APA

Rangel-Kuoppa, V. T. (2022). Solar cell parameter accuracy improvement, via refinement of the Co-Content function: Part 1: Theoretical analysis. Engineering Research Express, 4(1), Article 015022. https://doi.org/10.1088/2631-8695/ac4c36

Vancouver

Rangel-Kuoppa VT. Solar cell parameter accuracy improvement, via refinement of the Co-Content function: Part 1: Theoretical analysis. Engineering Research Express. 2022 Feb 17;4(1):015022. doi: 10.1088/2631-8695/ac4c36

Author

Rangel-Kuoppa, V.T. / Solar cell parameter accuracy improvement, via refinement of the Co-Content function : Part 1: Theoretical analysis. In: Engineering Research Express. 2022 ; Vol. 4, No. 1.

Bibtex

@article{6a97f65cd6e340218c3d5dcf4e00b69e,
title = "Solar cell parameter accuracy improvement, via refinement of the Co-Content function: Part 1: Theoretical analysis",
abstract = "In this Part 1 of this series of articles, the accuracy on the obtention of the shunt resistance (R sh), the series resistance (R s), the ideality factor (n), the light current (I lig), and the saturation current (I sat), via the use of the Co-content function CCV,I= ∫ 0VI-IscdV (where Isc=IV=0 ) is investigated theoretically, as function of the number of measured points per voltage ( PV ) and percentage noise ( pn ). Reasonable values are obtained for R sh, R s, and I lig, with PV = 11 measurement points per V if the pn is 0.1% or less. For a reasonable determination of n at least PV = 101 measurement points per V are needed. I sat determination requires pn of 0.01% or lower with at least PV = 101 measured points per V and should be evaluated at large values of V. The results given in this Part 1 are used in Part 2 to discuss the reported application of the CCV,I to obtain R sh, R s, n, I lig, and I sat found in the literature. ",
keywords = "co-content function, ideality factor, light current, saturation current, series resistance, shunt resistance, solar cell",
author = "V.T. Rangel-Kuoppa",
year = "2022",
month = feb,
day = "17",
doi = "10.1088/2631-8695/ac4c36",
language = "English",
volume = "4",
journal = "Engineering Research Express",
issn = "2631-8695",
publisher = "IOP Science",
number = "1",

}

RIS

TY - JOUR

T1 - Solar cell parameter accuracy improvement, via refinement of the Co-Content function

T2 - Part 1: Theoretical analysis

AU - Rangel-Kuoppa, V.T.

PY - 2022/2/17

Y1 - 2022/2/17

N2 - In this Part 1 of this series of articles, the accuracy on the obtention of the shunt resistance (R sh), the series resistance (R s), the ideality factor (n), the light current (I lig), and the saturation current (I sat), via the use of the Co-content function CCV,I= ∫ 0VI-IscdV (where Isc=IV=0 ) is investigated theoretically, as function of the number of measured points per voltage ( PV ) and percentage noise ( pn ). Reasonable values are obtained for R sh, R s, and I lig, with PV = 11 measurement points per V if the pn is 0.1% or less. For a reasonable determination of n at least PV = 101 measurement points per V are needed. I sat determination requires pn of 0.01% or lower with at least PV = 101 measured points per V and should be evaluated at large values of V. The results given in this Part 1 are used in Part 2 to discuss the reported application of the CCV,I to obtain R sh, R s, n, I lig, and I sat found in the literature.

AB - In this Part 1 of this series of articles, the accuracy on the obtention of the shunt resistance (R sh), the series resistance (R s), the ideality factor (n), the light current (I lig), and the saturation current (I sat), via the use of the Co-content function CCV,I= ∫ 0VI-IscdV (where Isc=IV=0 ) is investigated theoretically, as function of the number of measured points per voltage ( PV ) and percentage noise ( pn ). Reasonable values are obtained for R sh, R s, and I lig, with PV = 11 measurement points per V if the pn is 0.1% or less. For a reasonable determination of n at least PV = 101 measurement points per V are needed. I sat determination requires pn of 0.01% or lower with at least PV = 101 measured points per V and should be evaluated at large values of V. The results given in this Part 1 are used in Part 2 to discuss the reported application of the CCV,I to obtain R sh, R s, n, I lig, and I sat found in the literature.

KW - co-content function

KW - ideality factor

KW - light current

KW - saturation current

KW - series resistance

KW - shunt resistance

KW - solar cell

U2 - 10.1088/2631-8695/ac4c36

DO - 10.1088/2631-8695/ac4c36

M3 - Journal article

VL - 4

JO - Engineering Research Express

JF - Engineering Research Express

SN - 2631-8695

IS - 1

M1 - 015022

ER -