IEEE Journal of Solid-State Circuits · 2008 · 54 citations · 21 references
EngineeringComputer EngineeringElectrical EngineeringAnalog ElectronicsCircuit TheoryLow-power DesignCmos Circuit DesignDigital Integrated Circuit DesignDigital Integrated CircuitsLow-noise Circuit DesignLow-power Digital Circuit DesignPower ManagementComparator DesignDigital Logic CircuitsEnergy-efficient Digital CircuitsLow-power Cmos DesignRegulatorsSource Follower StagesStatic Power DissipationSupply Noise Reduction
Despite their use in analog or mixed-signal applications, the high power overheads of traditional linear regulators (both series and shunt) have precluded their successful adoption in regulating the supply of energy-efficient digital circuits. In this paper, we show that linear regulation can in fact reduce the effective supply impedance of digital circuits without increasing their total power dissipation. Achieving this goal requires minimizing the static power dissipation of the regulator, leading to a push-pull topology (similar to the regulators demonstrated by Wu and Sanders, 2001, Poon et al, 1999, and Intersil, 1998) with comparator-based feedback and a switched source-follower output stage. Measured results from a regulator implemented in a 65 nm SOI test-chip verify that by using these techniques, regulation reduces the effective supply noise by ~30% while also enabling a slight decrease (1.4%) in total power dissipation.
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Sliding mode control of DC/DC converters
Vadim Utkin · Journal of the Franklin Institute · 2013 · 372 citations
Sliding mode control for DC/DC converters
Alberto Cavallo, Beniamino Guida · 2012 · 250 citations