Pypiezo-GO: A software tool for processing electromechanical measurements of piezoelectric reduced graphene oxide-cement composites
Metadatos
Afficher la notice complèteEditorial
Elsevier
Materia
Cyclic voltammetry DataFrame Open circuit potential Piezoelectricity Python language Reduced-graphene-oxide
Date
2023-07Referencia bibliográfica
Daniel A. Triana-Camacho, Jorge H. Quintero-Orozco and Enrique García-Macías. Pypiezo-GO: A software tool for processing electromechanical measurements of piezoelectric reduced graphene oxide-cement composites. SoftwareX 23 (2023) 101451[https://doi.org/10.1016/j.softx.2023.101451]
Patrocinador
Program 890 of MinCiencias by the project numbers 82779 and 8286-3765; Scholarships program of MinCiencias Programa de Becas de Excelencia Doctoral del Bicentenario - Corte 2, 2019; Consejería de Transformación Económica, Conocimiento, Empresas y Universidades de la Junta de Andalucía (Spain) through the research project P18-RT-3128Résumé
Self-diagnostic composites have become increasingly popular for structural health monitoring due to
their ability to develop load-bearing strain sensors. Piezoelectric cement composites, in particular,
represent an emerging area of research with vast potential for developing innovative self-powered or
ultra-low power consumption sensors. In this context, this paper presents Pypiezo-GO, a software
tool designed for the electromechanical characterization of reduced graphene oxide (rGO)-cement
composites. The software tool, developed as an online cloud computing platform, accesses a database
organized into DataFrame structures. The database contains the measurements from a set of experiments
conducted on rGO-cement samples, including open circuit potential, cyclic voltammetry,
and compressive testing. On this basis, Pypiezo-GO allows extracting the electrical properties of
the samples, including their capacitance and piezoelectric factors. Furthermore, the platform enables
the comparison of experimental time series with numerical predictions from a lumped circuit model
implemented in MATLAB/Simulink, which is also included in this contribution. The presented software
code is intended to represent a valuable tool for the development of new piezoelectric cement
composites for strain self-sensing applications.