Consistent and Efficient Modeling of the Nonlinear Properties of Ferroelectric Materials in Ceramic Capacitors for Frugal Electronic Implants

In recent years, the development of implantable electronics has been driven by the motivation to expand their field of application. The main intention is to implement advanced functionalities while increasing the degree of miniaturization and maintaining reliability. The intrinsic nonlinear properti...

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Main Authors: Yves Olsommer, Frank R. Ihmig
Format: Article
Language:English
Published: MDPI AG 2020-07-01
Series:Sensors
Subjects:
Online Access:https://www.mdpi.com/1424-8220/20/15/4206
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author Yves Olsommer
Frank R. Ihmig
author_facet Yves Olsommer
Frank R. Ihmig
author_sort Yves Olsommer
collection DOAJ
description In recent years, the development of implantable electronics has been driven by the motivation to expand their field of application. The main intention is to implement advanced functionalities while increasing the degree of miniaturization and maintaining reliability. The intrinsic nonlinear properties of the electronic components, to be used anyway, could be utilized to resolve this issue. To master the implementation of functionalities in implantable electronics using the nonlinear properties of its electronic components, simulation models are of utmost importance. In this paper, we present a simulation model that is optimized in terms of consistency, computing time and memory consumption. Three circuit topologies of nonlinear capacitors, including hysteresis losses, are investigated. An inductively coupled measurement setup was realized to validate the calculations. The best results were obtained using the Trapezoid method in ANSYS with a constant step size and a resolution of 500 k points and using the Adams method in Mathcad with a resolution of 50 k points. An inductive coupling factor between 7% and 10% leads to a significant improvement in consistency compared to lower coupling factors. Finally, our results indicate that the nonlinear properties of the voltage rectifier capacitor can be neglected since these do not significantly affect the simulation results.
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spelling doaj.art-a2d9bfe7885e4419ad8eeed3c2d472142023-11-20T08:17:13ZengMDPI AGSensors1424-82202020-07-012015420610.3390/s20154206Consistent and Efficient Modeling of the Nonlinear Properties of Ferroelectric Materials in Ceramic Capacitors for Frugal Electronic ImplantsYves Olsommer0Frank R. Ihmig1Fraunhofer Institute for Biomedical Engineering, Department of Biomedical Microsystems, 66280 Sulzbach, Saar, GermanyFraunhofer Institute for Biomedical Engineering, Department of Biomedical Microsystems, 66280 Sulzbach, Saar, GermanyIn recent years, the development of implantable electronics has been driven by the motivation to expand their field of application. The main intention is to implement advanced functionalities while increasing the degree of miniaturization and maintaining reliability. The intrinsic nonlinear properties of the electronic components, to be used anyway, could be utilized to resolve this issue. To master the implementation of functionalities in implantable electronics using the nonlinear properties of its electronic components, simulation models are of utmost importance. In this paper, we present a simulation model that is optimized in terms of consistency, computing time and memory consumption. Three circuit topologies of nonlinear capacitors, including hysteresis losses, are investigated. An inductively coupled measurement setup was realized to validate the calculations. The best results were obtained using the Trapezoid method in ANSYS with a constant step size and a resolution of 500 k points and using the Adams method in Mathcad with a resolution of 50 k points. An inductive coupling factor between 7% and 10% leads to a significant improvement in consistency compared to lower coupling factors. Finally, our results indicate that the nonlinear properties of the voltage rectifier capacitor can be neglected since these do not significantly affect the simulation results.https://www.mdpi.com/1424-8220/20/15/4206ferroelectric materialshysteresisMathcadANSYSelectronic implantsinductive coupling
spellingShingle Yves Olsommer
Frank R. Ihmig
Consistent and Efficient Modeling of the Nonlinear Properties of Ferroelectric Materials in Ceramic Capacitors for Frugal Electronic Implants
Sensors
ferroelectric materials
hysteresis
Mathcad
ANSYS
electronic implants
inductive coupling
title Consistent and Efficient Modeling of the Nonlinear Properties of Ferroelectric Materials in Ceramic Capacitors for Frugal Electronic Implants
title_full Consistent and Efficient Modeling of the Nonlinear Properties of Ferroelectric Materials in Ceramic Capacitors for Frugal Electronic Implants
title_fullStr Consistent and Efficient Modeling of the Nonlinear Properties of Ferroelectric Materials in Ceramic Capacitors for Frugal Electronic Implants
title_full_unstemmed Consistent and Efficient Modeling of the Nonlinear Properties of Ferroelectric Materials in Ceramic Capacitors for Frugal Electronic Implants
title_short Consistent and Efficient Modeling of the Nonlinear Properties of Ferroelectric Materials in Ceramic Capacitors for Frugal Electronic Implants
title_sort consistent and efficient modeling of the nonlinear properties of ferroelectric materials in ceramic capacitors for frugal electronic implants
topic ferroelectric materials
hysteresis
Mathcad
ANSYS
electronic implants
inductive coupling
url https://www.mdpi.com/1424-8220/20/15/4206
work_keys_str_mv AT yvesolsommer consistentandefficientmodelingofthenonlinearpropertiesofferroelectricmaterialsinceramiccapacitorsforfrugalelectronicimplants
AT frankrihmig consistentandefficientmodelingofthenonlinearpropertiesofferroelectricmaterialsinceramiccapacitorsforfrugalelectronicimplants