Design of CMOS Analog Integrated Fractional-Order Circuits Design of CMOS Analog Integrated Fractional-Order Circuits

Design of CMOS Analog Integrated Fractional-Order Circuits

Applications in Medicine and Biology

    • 42,99 €
    • 42,99 €

Descripción editorial

This book describes the design and realization of analog fractional-order circuits, which are suitable for on-chip implementation, capable of low-voltage operation and electronic adjustment of their characteristics. The authors provide a brief introduction to fractional-order calculus, followed by design issues for fractional-order circuits of various orders and types. The benefits of this approach are demonstrated with current-mode and voltage-mode filter designs. Electronically tunable emulators of fractional-order capacitors and inductors are presented, where the behavior of the corresponding chips fabricated using the AMS 0.35um CMOS process has been experimentally verified. Applications of fractional-order circuits are demonstrated, including a pre-processing stage suitable for the implementation of the Pan-Tompkins algorithm for detecting the QRS complexes of an electrocardiogram (ECG), a fully tunable implementation of the Cole-Cole model used for the modeling of biologicaltissues, and a simple, non-impedance based measuring technique for super-capacitors.
Discusses systematic design methods for deriving fractional–order circuits, including filters of arbitrary type and order, as well as tunable emulators of fractional-order capacitors and inductors;
Demonstrates fractional-order circuits (e.g. filters and component emulators) which are suitable for implementation in silicon, with electronic adjustable characteristics and, also, experimental verification of their behavior;
Describes applications of fractional-order fully integrated circuits in biology and medicine through practical design examples.

GÉNERO
Técnicos y profesionales
PUBLICADO
2017
12 de abril
IDIOMA
EN
Inglés
EXTENSIÓN
126
Páginas
EDITORIAL
Springer International Publishing
TAMAÑO
3,3
MB