Design of Low Voltage Current Conveyor based on Bulk-driven Self-cascode approach
Anjali M. Agrawal, Maneesha Gupta, Shweta Kumari
Abstract
Anjali M. Agrawal, Maneesha Gupta, Shweta Kumari
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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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