Low Power Regulator Circuitry With Segmented Transistors

The patent divides the single transistor into multiple transistors (first output transistor, second output transistor, third output transistor) with different conductivity types. These segmented transistors work in coordination, where the first and third transistors have reduced gate widths to minimize self-consumption current, while the second transistor compensates to maintain load driving capability. This segmentation resolves the contradiction by distributing functions across multiple smaller components.

Different transistors are assigned different gate widths based on their specific functions. The first and third transistors have reduced gate widths optimized for low self-consumption current, while the second transistor has appropriate gate width for load driving. This local differentiation of transistor properties allows simultaneous optimization of both power consumption and driving capability.

The patent segments the voltage regulation function across multiple transistors with different gate widths. The first output transistor has reduced gate width for low current consumption, while the second output transistor compensates to maintain voltage stability. This segmentation allows each transistor to be optimized for its specific role, resolving the contradiction between stability and power consumption.

The control transistor acts as an intermediary that coordinates the operation of the first, second, and third output transistors. It manages the gate voltages to ensure that the reduced-gate-width transistors still achieve adequate voltage regulation performance while minimizing overall current consumption. The intermediary control mechanism enables the system to maintain reliability with lower power dissipation.