2021Unpublished venueRequires access

Design of Low Voltage Current Conveyor based on Bulk-driven Self-cascode approach

Anjali M. Agrawal, Maneesha Gupta, Shweta Kumari

Open publisher page 4 citations

Abstract

This paper proposes two possible approaches towards low voltage, low power and high performance second generation current conveyor (CCII) based on bulk-driven self- cascode (BD SC) structure. Bulk-driven transistors and self- cascode technique are extensively used separately for the design of low voltage current conveyor (CCII). The combination of these two techniques has been used as a novel approach to improve the performance of low voltage current conveyors in terms of bandwidth, terminal parasitic impedances and voltage gain accuracy. The proposed CCIIs operate at a low supply voltage of ±0.25V which is even lesser than the threshold voltages of a standard MOS transistor. A detailed comparison of proposed circuits with existing CCIIs has been done to highlight the utility of the design. A voltage mode universal filter is presented as an application of the proposed CCII+. All the simulations are performed in 0.18μm CMOS technology.

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What this paper is about

This paper proposes two possible approaches towards low voltage, low power and high performance second generation current conveyor (CCII) based on bulk-driven self- cascode (BD SC) structure. Bulk-driven transistors and self- cascode technique are extensively used separately for the design of low voltage current conveyor (CCII). The combination of these two techniques has been used as a novel approach to improve the performance of low voltage current conveyors in terms of bandwidth, terminal parasitic impedances and voltage gain accuracy. The proposed CCIIs operate at a low supply voltage of ±0.25V which is even lesser than the threshold voltages of a standard MOS transistor. A detailed comparison of proposed circuits with existing CCIIs has been done to highlight the utility of the design. A voltage mode universal filter is presented as an application of the proposed CCII+. All the simulations are performed in 0.18μm CMOS technology.

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Available abstract

This paper proposes two possible approaches towards low voltage, low power and high performance second generation current conveyor (CCII) based on bulk-driven self- cascode (BD SC) structure. Bulk-driven transistors and self- cascode technique are extensively used separately for the design of low voltage current conveyor (CCII). The combination of these two techniques has been used as a novel approach to improve the performance of low voltage current conveyors in terms of bandwidth, terminal parasitic impedances and voltage gain accuracy. The proposed CCIIs operate at a low supply voltage of ±0.25V which is even lesser than the threshold voltages of a standard MOS transistor. A detailed comparison of proposed circuits with existing CCIIs has been done to highlight the utility of the design. A voltage mode universal filter is presented as an application of the proposed CCII+. All the simulations are performed in 0.18μm CMOS technology.

Key concepts: Current conveyor, Cascode, CMOS, Low voltage, Voltage, Electronic engineering, Electrical engineering, Transistor

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Design of Low Voltage Current Conveyor based on Bulk-driven Self-cascode approach — Research Paper | ScholarLens