Titlebook: High-Performance CMOS Continuous-Time Filters; José Silva-Martínez,Michiel Steyaert,Willy Sansen Book 1993 Springer Science+Business Media

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Introduction,ding blocks as possible. In the design of high-performance electronic circuits the use of analog filters is unavoidable. The advance of the Very-Large Scale Integration (VLSI) techniques demands for high-frequency and high-performance active filtering. In Telecommunication applications, for instance

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Very Low-Distortion Operational Transconductance Amplifiers for High-Frequency Applications,constant and the dc gain of the lossy integrators [1]. Several techniques for the implementation of full CMOS continuous-time integrators have been already reported [2–5,7,12–22,24,25]. These design techniques can be divided in RC active filters, MOSFET-C filters and OTA-C filters.

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High-Performance Realizations of Continuous-Time Filters, type of structures, ladder filters and biquadratic based filters [1–15, 17–24]. The frequency of these filters ranges from 100 kHz up to 10.7 MHz. For the design of these filters, the techniques described in chapters 2 to 4 are employed. The employed OTAs use the low-distortion input-stage presente

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General Conclusions,opologies and techniques, the design of large-signal (up to 3 Volts peak to peak with power supplies of ± 2.5 V) and low-distortion (total harmonic distortion lower than — 60 dB) continuous-time filters is feasible in 1.2–1.5 p.m CMOS technologies. Due to the very large linear range of the linearize

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