Abstract: Systems, methods, and devices provide management of power domains. Methods include activating a first power domain of a memory controller in response to receiving a memory command associated with a storage location coupled to the memory controller, and performing a first portion of a sequence of operations determined based on the memory command, the first portion being performed using a first plurality of processing elements included in the first power domain. Methods further include activating a second power domain of the memory controller based on a timing determined by the sequence of operations, and performing a second portion of the sequence of operations using a second plurality of processing elements included in the second power domain.

Abstract: Technologies related to transient response of low dropout regulator (LDO) circuits are described. The LDO circuit has a lower standby output voltage and a greater active output voltage. When transitioning to the greater active output voltage, a wakeup circuit controls peak current between voltage supply and LDO output.

Abstract: Technologies related to low dropout regulation circuitry stabilization are described. A circuit includes an amplifier to supply a voltage based on a comparison of a feedback loop voltage and a reference voltage. A comparison circuit coupled to the amplifier dynamically adjusts an amount of current supplied to the amplifier based on a measured temperature.

Abstract: Systems, methods, and devices provide management of power domains. Methods include activating a first power domain of a memory controller in response to receiving a memory command associated with a storage location coupled to the memory controller, and performing a first portion of a sequence of operations determined based on the memory command, the first portion being performed using a first plurality of processing elements included in the first power domain. Methods further include activating a second power domain of the memory controller based on a timing determined by the sequence of operations, and performing a second portion of the sequence of operations using a second plurality of processing elements included in the second power domain.

Abstract: A system and method for protecting against a voltage glitch are provided. Generally, the system includes a reset-detector coupled to a supply voltage (VCC) and to a power-on-reset (POR) block, and a glitch-detector coupled to VCC and the reset-detector. The reset-detector is operable to provide a signal to the POR block to generate a global-reset-signal when VCC decreases below a minimum and remains low for at least a first time. The glitch-detector is operable to provide a glitch-signal to the reset-detector to cause it to provide the signal to the POR block when VCC decreases below the minimum and remains low for at least a second time, where the second time is less than the first. The reset-detector can further include a retention-circuit operable to recall a glitch-signal was received and signal the POR block when VCC is restored. Other embodiments are also disclosed.

Abstract: A system and method for protecting against a voltage glitch are provided. Generally, the system includes a reset-detector coupled to a supply voltage (VCC) and to a power-on-reset (POR) block, and a glitch-detector coupled to VCC and the reset-detector. The reset-detector is operable to provide a signal to the POR block to generate a global-reset-signal when VCC decreases below a minimum and remains low for at least a first time. The glitch-detector is operable to provide a glitch-signal to the reset-detector to cause it to provide the signal to the POR block when VCC decreases below the minimum and remains low for at least a second time, where the second time is less than the first. The reset-detector can further include a retention-circuit operable to recall a glitch-signal was received and signal the POR block when VCC is restored. Other embodiments are also disclosed.