Abstract: A fluid handling system for supplying a working fluid to a fluid flow instrument is disclosed. The system includes a controller configured to receive sensor signals indicative of a deformation of a flexible barrier located between a control fluid volume containing a control fluid and a working fluid volume containing the working fluid. Based on the sensor signals, the controller may send signals to control the operation of a working fluid flow generator in order to regulate or control the fluid characteristic of the working fluid being provided to the fluid flow instrument.

Abstract: Systems, methods and/or devices are used to reduce anomalous charging current by selectively shunting biasing current away from a control terminal of a controlled device that conducts the charging current during a charging mode. In some embodiments, a power-control circuit includes: (1) a controlled device with a first terminal coupled to a power-supply node, a second terminal to provide a first output voltage, and a control terminal; (2) a current source to provide a biasing current to the control terminal of the controlled device during a charging mode; and (3) a selective current shunt to shunt a portion of the biasing current away from the control terminal of the controlled device in response to a determination that a charging current through the first and second terminals of the controlled device satisfies a threshold during the charging mode.

Abstract: The various embodiments described herein include systems, methods and/or devices used to enable power inrush management of storage devices (e.g., DIMM devices). In one aspect, the method includes, for at least one storage device populated in a slot of a plurality of storage device slots, the plurality of storage device slots configured to be populated by two or more storage devices: (1) detecting a unique location associated with the storage device, (2) determining a time delay for the storage device in accordance with the unique location associated with the storage device, and (3) delaying at least one power-on operation of the storage device by the time delay for the storage device.

Abstract: The various implementations described herein include systems, methods and/or devices used to enable performing supervisory functions for a dual in-line memory module (DIMM), at a controller in the DIMM. The method includes upon power-up, determining a power supply voltage provided to the DIMM. In accordance with a determination that power supply criteria are satisfied, the method includes: (1) performing one or more power-up operations, including initiating a usage counter, (2) monitoring a temperature of the DIMM, (3) monitoring the DIMM for occurrence of one or more of a set of predetermined trigger events, and (4) in response to detecting one of the set of predetermined trigger events, logging information corresponding to the detected predetermined event.

Abstract: A power supply injects a series of “tickle” pulses into a pulse width modulated (PWM) controller to induce the controller to generate PWM pulses at a minimum switching frequency, preferably one that is super-sonic (especially for audio applications). The switching frequency may also be selected or controlled such that it avoids resonances in the power supply. The “tickle” pulses may be clocked by the same clock that times the PWM controller, and they may be shaped to help ensure that the power supply maintains some regulation during low-load conditions.

Abstract: A storage control system, and a method of operation thereof, including: a host interface module for receiving a host command from a host system; a power measurement module, coupled to the host interface module, for reading a current value of an electrical power supplied by the host system in response to the host command; and a schedule module, coupled to the power measurement module, for scheduling new operations to be executed in parallel in non-volatile memory devices, the new operations are scheduled when the current value of the electrical power does not exceed a power limit.

Abstract: Systems, methods and/or devices are used to reduce anomalous charging current by selectively shunting biasing current away from a control terminal of a controlled device that conducts the charging current during a charging mode. In some embodiments, a power-control circuit includes: (1) a controlled device with a first terminal coupled to a power-supply node, a second terminal to provide a first output voltage, and a control terminal; (2) a current source to provide a biasing current to the control terminal of the controlled device during a charging mode; and (3) a selective current shunt to shunt a portion of the biasing current away from the control terminal of the controlled device in response to a determination that a charging current through the first and second terminals of the controlled device satisfies a threshold during the charging mode.

Abstract: The various implementations described herein include systems, methods and/or devices used to enable power sequencing and a data hardening module in a storage device. In one aspect, the method includes determining whether a power supply voltage provided to the storage device is lower than an under-voltage threshold. The method further includes, in accordance with a determination that the power supply voltage is lower than the under-voltage threshold, performing a power fail operation, the power fail operation including: (1) signaling a power fail condition to a plurality of controllers on the storage device, (2) transferring data held in volatile memory to non-volatile memory, and (3) removing power from the plurality of controllers on the storage device.

Abstract: The various embodiments described herein include systems, methods and/or devices used to enable power fail latching based on monitoring multiple power supply voltages in a storage device. In one aspect, the method includes: (1) determining whether a first power supply voltage provided to the storage device is out of range for a first time period, (2) determining whether a second power supply voltage provided to the storage device is out of range for a second time period, and (3) in accordance with a determination that at least one of the first power supply voltage is out of range for the first time period and the second power supply voltage is out of range for the second time period, latching a power fail condition.

Abstract: The embodiments described herein include a method and device for adjusting trip points within a storage device. The method includes: obtaining one or more configuration parameters; and based on the one or more configuration parameters, determining a trip voltage. The method also includes comparing the trip voltage with an input voltage. The method further includes triggering a power fail condition in accordance with a determination that the input voltage is less than the trip voltage.

Abstract: The various implementations described herein include systems, methods and devices used to protect data in a storage device. In one aspect, a method includes, performing a soft power fail operation on a section of the device, the operation including: (1) signaling a power test condition to a first controller on the storage device; (2) providing one or more controllers with power from an energy storage device, where the energy storage device is distinct from a power supply used during normal operation; (3) signaling a power fail condition to the one or more controllers on the storage device, where the one or more controllers communicate with the first controller and correspond to said section of the storage device, and where, in response to the power fail condition, each of the one or more controllers performs a data hardening operation; and (4) resuming normal operation on said section of the storage device.

Abstract: The various implementations described herein include systems, methods and/or devices used to enable power sequencing and data hardening in a storage device. In one aspect, a method includes, in response to a first signal received by the storage device, performing a soft power fail operation on a first section of the storage device. The soft power fail operation including: (1) signaling a power fail condition to a first plurality of controllers on the storage device, where the first plurality of controllers correspond to the first section of the storage device, (2) transferring data held in volatile memory of the storage device to non-volatile memory of the storage device, and (3) removing power from the first plurality of controllers.

Abstract: A storage control system, and a method of operation thereof, including: a host interface unit for receiving a host command from a host system; a power measurement hardware, coupled to the host interface unit, for reading a current value of electrical power supplied by the host system in response to the host command; and a power monitor controller, coupled to the power measurement hardware, for adjusting a bus speed for controlling data transfer through a channel shared by a number of non-volatile memory devices, the bus speed is adjusted based on the current value of the electrical power.

Abstract: The various implementations described herein include systems, methods and/or devices used to protect data in a storage device. In one aspect, a method includes (1) powering a power control processor (PCP) (also sometimes called a storage-level microcontroller) using a first input voltage, (2) while the PCP is powered using the first input voltage: (a) operating the PCP in a first mode, and (b) enabling charging of an energy storage device, (3) after achieving a predefined internal state, which includes the energy storage device charged to a predefined level, powering the PCP using a power supply voltage distinct from the first input voltage, and (4) while the PCP is powered using the power supply voltage, operating the PCP in a second mode, where the PCP operates at a higher performance level in the second mode than in the first mode.

Abstract: The various embodiments described herein include systems, methods and/or devices used to enable dynamic brownout adjustment in a storage device. In one aspect, the method includes: (1) obtaining a set of power tolerance settings, the set of power tolerance settings used for determining whether one or more power supply voltages provided to the storage device are out of range, (2) in response to a predefined trigger, adjusting the set of power tolerance settings in accordance with one or more parameters of the storage device, (3) determining, in accordance with the adjusted set of power tolerance settings, whether the one or more power supply voltages are out of range, and (4) in accordance with a determination that the one or more power supply voltages are out of range, latching a power fail condition.

Abstract: The various implementations described herein include systems, methods and/or devices used to enable power sequencing and data hardening in a storage device. In one aspect, the method includes determining whether a power supply voltage provided to the storage device is higher than an over-voltage threshold. The method further includes, in accordance with a determination that the power supply voltage is higher than the over-voltage threshold, performing a power fail operation, the power fail operation including: (1) signaling a power fail condition to a plurality of controllers on the storage device, (2) transferring data held in volatile memory to non-volatile memory, and (3) removing power from the plurality of controllers on the storage device.

Abstract: The various embodiments described herein include systems, methods and/or devices used to enable dynamic brownout adjustment in a storage device. In one aspect, the method includes: (1) obtaining a set of power tolerance settings, the set of power tolerance settings used for determining whether one or more power supply voltages provided to the storage device are out of range, (2) in response to a predefined trigger, adjusting the set of power tolerance settings in accordance with one or more parameters of the storage device, (3) determining, in accordance with the adjusted set of power tolerance settings, whether the one or more power supply voltages are out of range, and (4) in accordance with a determination that the one or more power supply voltages are out of range, latching a power fail condition.

Abstract: The various implementations described herein include systems, methods and/or devices used to protect data in a storage device. In one aspect, a method includes (1) powering a power control processor (PCP) (also sometimes called a storage-level microcontroller) using a first input voltage, (2) while the PCP is powered using the first input voltage: (a) operating the PCP in a first mode, and (b) enabling charging of an energy storage device, (3) after achieving a predefined internal state, which includes the energy storage device charged to a predefined level, powering the PCP using a power supply voltage distinct from the first input voltage, and (4) while the PCP is powered using the power supply voltage, operating the PCP in a second mode, where the PCP operates at a higher performance level in the second mode than in the first mode.

Abstract: The various embodiments described herein include systems, methods and/or devices used to enable power inrush management of storage devices (e.g., DIMM devices). In one aspect, the method includes, for at least one storage device populated in a slot of a plurality of storage device slots, the plurality of storage device slots configured to be populated by two or more storage devices: (1) detecting a unique location associated with the storage device, (2) determining a time delay for the storage device in accordance with the unique location associated with the storage device, and (3) delaying at least one power-on operation of the storage device by the time delay for the storage device.

Abstract: The various implementations described herein include systems, methods and devices used to protect data in a storage device. In one aspect, a method includes, performing a soft power fail operation on a section of the device, the operation including: (1) signaling a power test condition to a first controller on the storage device; (2) providing one or more controllers with power from an energy storage device, where the energy storage device is distinct from a power supply used during normal operation; (3) signaling a power fail condition to the one or more controllers on the storage device, where the one or more controllers communicate with the first controller and correspond to said section of the storage device, and where, in response to the power fail condition, each of the one or more controllers performs a data hardening operation; and (4) resuming normal operation on said section of the storage device.