Fractional model of the electrochemical capacitor relaxation phenomenon

V. Martynyuk; M. Ortigueira; M. Fedula; O. Savenko

doi:10.24425/124260

Fractional model of the electrochemical capacitor relaxation phenomenon

V. Martynyuk, M. Ortigueira, M. Fedula, O. Savenko

Research output: Contribution to journal › Conference article

1 Citation (Scopus)

Abstract

The fractional model of the electrochemical capacitor (EC) relaxation phenomenon is presented herein. The EC relaxation phenomenon occurs when EC impedance measurements are performed after charge or discharge current interruption during potential relaxation. The EC fractional model is obtained based on the fractional order transfer function, obtained in turn by means of fitting the EC impedance data. The inverse Laplace transform is used to obtain the EC impulse response. Meanwhile, the EC charge and discharge simulations are performed using the EC impulse response.

Original language	English
Pages (from-to)	441-448
Number of pages	8
Journal	Bulletin of the Polish Academy of Sciences: Technical Sciences
Volume	66
Issue number	4
DOIs	https://doi.org/10.24425/124260
Publication status	Published - 1 Aug 2018
Event	International Conference on Fractional Signals and Systems (FSS) - Lodz, Poland Duration: 9 Oct 2017 → 11 Oct 2017

Keywords

Electrochemical capacitor transfer function
Electrochemical impedance spectroscopy
Impulse response
Potential relaxation

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title = "Fractional model of the electrochemical capacitor relaxation phenomenon",

abstract = "The fractional model of the electrochemical capacitor (EC) relaxation phenomenon is presented herein. The EC relaxation phenomenon occurs when EC impedance measurements are performed after charge or discharge current interruption during potential relaxation. The EC fractional model is obtained based on the fractional order transfer function, obtained in turn by means of fitting the EC impedance data. The inverse Laplace transform is used to obtain the EC impulse response. Meanwhile, the EC charge and discharge simulations are performed using the EC impulse response.",

keywords = "Electrochemical capacitor transfer function, Electrochemical impedance spectroscopy, Impulse response, Potential relaxation",

author = "V. Martynyuk and M. Ortigueira and M. Fedula and O. Savenko",

year = "2018",

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T1 - Fractional model of the electrochemical capacitor relaxation phenomenon

AU - Martynyuk, V.

AU - Ortigueira, M.

AU - Fedula, M.

AU - Savenko, O.

PY - 2018/8/1

Y1 - 2018/8/1

N2 - The fractional model of the electrochemical capacitor (EC) relaxation phenomenon is presented herein. The EC relaxation phenomenon occurs when EC impedance measurements are performed after charge or discharge current interruption during potential relaxation. The EC fractional model is obtained based on the fractional order transfer function, obtained in turn by means of fitting the EC impedance data. The inverse Laplace transform is used to obtain the EC impulse response. Meanwhile, the EC charge and discharge simulations are performed using the EC impulse response.

AB - The fractional model of the electrochemical capacitor (EC) relaxation phenomenon is presented herein. The EC relaxation phenomenon occurs when EC impedance measurements are performed after charge or discharge current interruption during potential relaxation. The EC fractional model is obtained based on the fractional order transfer function, obtained in turn by means of fitting the EC impedance data. The inverse Laplace transform is used to obtain the EC impulse response. Meanwhile, the EC charge and discharge simulations are performed using the EC impulse response.

KW - Electrochemical capacitor transfer function

KW - Electrochemical impedance spectroscopy

KW - Impulse response

KW - Potential relaxation

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DO - 10.24425/124260

M3 - Conference article

AN - SCOPUS:85052559225

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EP - 448

JO - Bulletin of the Polish Academy of Sciences: Technical Sciences

JF - Bulletin of the Polish Academy of Sciences: Technical Sciences

SN - 0239-7528

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T2 - International Conference on Fractional Signals and Systems (FSS)

Y2 - 9 October 2017 through 11 October 2017

ER -