Abstract: A system, method, and computer-readable medium for performing an information technology (IT) ecosystem management and monitoring operation. The IT ecosystem management and monitoring operation includes: providing a sustainability application to an information handling system, the information handling system being located within an IT ecosystem; obtaining sustainability information regarding the information handling system via the sustainability application; providing an IT ecosystem monitoring and management console, the IT ecosystem monitoring and management console comprising an IT ecosystem sustainability system, the IT ecosystem sustainability system comprising a sustainability component; and, communicating between the sustainability component and the sustainability application to perform an IT inventory sustainability planning operation, the communicating providing the sustainability component with the sustainability information regarding the information handling system.

Abstract: An information handling system polls telemetry data from sensors associated with a central processing unit, and determines current offsets for each one of the sensors based on the telemetry data. The system may also determine a domain current offset associated with a calibration domain, determine a voltage regulator offset based on the domain current offset, and adjust power provided by the voltage regulator to the central processing unit based on the voltage regulator offset.

Abstract: An information handling system includes a management controller that may determine average power consumption of a processor, and determine average power measurement at a power supply unit. If the average power consumption of the processor does not match the average power measurement at the power supply unit, then the system may calibrate the average power consumption of the processor to match the average power measurement at the power supply unit.

Abstract: An information handling system includes a management controller that may determine average power consumption of a processor, and determine average power measurement at a power supply unit. If the average power consumption of the processor does not match the average power measurement at the power supply unit, then the system may calibrate the average power consumption of the processor to match the average power measurement at the power supply unit.

Abstract: An information handling system includes a PSU current level combiner, a current level indication splitter, and a load element. The PSU current level combiner receives a PSU current level indication from each of a plurality of PSUs, and provides a system current level indication that indicates a total amount of current supplied by the PSUs. Each PSU current level indication is a current signal and wherein a current level of each PSU current level indication is proportional to the amount of current supplied by the associated PSU. The system current level indication is a current signal. A current level of the system current level indication is proportional to the total amount of current. The system current level indication splitter receives the system current level indication, and provides copies of the system current level indication.

Abstract: An information handling system includes a power assist unit (PAU) and a baseboard management controller (BMC). The PAU is coupled to a power rail and includes a power storage element, a converter coupled to the power storage element and the power rail, and a controller. The controller receives a current level indication indicating a current provided to a load of the information handling system, directs the converter to provide power from the power storage element to the power rail when the current level indication is greater than a threshold level, directs the converter charge the power storage element from the power rail when the current level indication is greater than the threshold level, and provides a charge level indication that indicates an amount of charge on the power storage unit. The BMC receives the charge level indication, and sets a peak power limit for the information handling system based on the charge level indication.

Abstract: An information handling system (IHS) includes a power supply unit (PSU) and a power assist unit (PAU). The PSU provides power to a power rail at a first voltage level when he IHS is in a first platform state, and at a second voltage level when the IHS is in a second platform state. The PAU includes a power storage element, a converter coupled to the power storage element and to the power rail, and a controller. The controller determines whether the IHS is operating in the first or second platform state, directs the converter to provide power from the power storage element to the power rail at the first voltage level when the information handling system is in the first platform state, and to direct the converter to provide power from the power storage element to the power rail at the second voltage level when the information handling system is in the second platform state.

Abstract: An information handling system includes a power supply unit (PSU) and a power assist unit (PAU). The PSU provides a power rail to power a load, and a constant current indication that indicates whether the power supply unit is operating in a constant current mode. The PAU is coupled to the power rail, and includes a power storage element, a converter coupled to the power storage element and to the power rail, and a controller. The controller receives an enable signal when the constant current indication indicates that the first power supply unit is operating in the constant current mode, and in response, the controller directs the converter to convert a voltage from the power storage element and to a current to the power rail to meet an additional demand of the load for power. When the controller does not receive the enable signal, the controller directs the converter to charge the power storage element from the power rail.

Abstract: An information handling system includes a PSU current level combiner, a current level indication splitter, and a load element. The PSU current level combiner receives a PSU current level indication from each of a plurality of PSUs, and provides a system current level indication that indicates a total amount of current supplied by the PSUs. Each PSU current level indication is a current signal and wherein a current level of each PSU current level indication is proportional to the amount of current supplied by the associated PSU. The system current level indication is a current signal. A current level of the system current level indication is proportional to the total amount of current. The system current level indication splitter receives the system current level indication, and provides copies of the system current level indication.

Abstract: An information handling system includes a PSU current level combiner, a current level indication splitter, and a load element. The PSU current level combiner receives a PSU current level indication from each of a plurality of PSUs, and provides a system current level indication that indicates a total amount of current supplied by the PSUs. Each PSU current level indication is a current signal and wherein a current level of each PSU current level indication is proportional to the amount of current supplied by the associated PSU. The system current level indication is a current signal. A current level of the system current level indication is proportional to the total amount of current. The system current level indication splitter receives the system current level indication, and provides copies of the system current level indication.

Abstract: An information handling system includes a memory module having a volatile memory, a non-volatile memory, and a save controller configured to execute a save operation that transfers at least all modified information of the volatile memory to the nonvolatile memory. A processor of the information handling system is configured to access the volatile memory of the first memory module. A management controller of the information handling system is configured to, during boot operation of the information handling system send a signal to the first memory module to initiate the save operation of the first memory module, to monitor a first thermal indicator at a location proximate to first memory module during the save operation of the first memory module, and determines a configuration of the information handling system during normal operation based upon whether the thermal indicator exceeds a first threshold.

Abstract: A memory module, such as an NVDIMM receives access requests from a master device at a memory port requesting information from a volatile memory of the memory module. In response to receiving a save operation command at a command port, such as during a power failure, the memory module transfers the information stored at the volatile memory to a nonvolatile memory of the memory module based upon a programmable transfer rate.

Abstract: An information handling system includes a PSU current level combiner, a current level indication splitter, and a load element. The PSU current level combiner receives a PSU current level indication from each of a plurality of PSUs, and provides a system current level indication that indicates a total amount of current supplied by the PSUs. Each PSU current level indication is a current signal and wherein a current level of each PSU current level indication is proportional to the amount of current supplied by the associated PSU. The system current level indication is a current signal. A current level of the system current level indication is proportional to the total amount of current. The system current level indication splitter receives the system current level indication, and provides copies of the system current level indication.

Abstract: An information handling system (IHS) includes a power supply unit (PSU) and a power assist unit (PAU). The PSU provides power to a power rail at a first voltage level when he IHS is in a first platform state, and at a second voltage level when the IHS is in a second platform state. The PAU includes a power storage element, a converter coupled to the power storage element and to the power rail, and a controller. The controller determines whether the IHS is operating in the first or second platform state, directs the converter to provide power from the power storage element to the power rail at the first voltage level when the information handling system is in the first platform state, and to direct the converter to provide power from the power storage element to the power rail at the second voltage level when the information handling system is in the second platform state.

Abstract: An information handling system includes a power supply unit (PSU) and a power assist unit (PAU). The PSU provides a power rail to power a load, and a constant current indication that indicates whether the power supply unit is operating in a constant current mode. The PAU is coupled to the power rail, and includes a power storage element, a converter coupled to the power storage element and to the power rail, and a controller. The controller receives an enable signal when the constant current indication indicates that the first power supply unit is operating in the constant current mode, and in response, the controller directs the converter to convert a voltage from the power storage element and to a current to the power rail to meet an additional demand of the load for power. When the controller does not receive the enable signal, the controller directs the converter to charge the power storage element from the power rail.

Abstract: An information handling system includes a power assist unit (PAU) and a baseboard management controller (BMC). The PAU is coupled to a power rail and includes a power storage element, a converter coupled to the power storage element and the power rail, and a controller. The controller receives a current level indication indicating a current provided to a load of the information handling system, directs the converter to provide power from the power storage element to the power rail when the current level indication is greater than a threshold level, directs the converter charge the power storage element from the power rail when the current level indication is greater than the threshold level, and provides a charge level indication that indicates an amount of charge on the power storage unit. The BMC receives the charge level indication, and sets a peak power limit for the information handling system based on the charge level indication.

Abstract: An information handling system may implement techniques for triggering power loss protection on solid-state storage devices (SSDs) based on PSU pre-warning signals (such as de-asserted POK or VIN_GOOD signals) indicating that power loss is imminent. The pre-warning signals may be provided directly to SSDs over a dedicated connection or may be passed through other components of the information handling system (such as power loss warning logic, a platform controller hub, or a CPU) to a storage controller. The pre-warning signal may be provided to the storage controller as a power loss warning interrupt. This interrupt may cause the storage system controller to issue an in-band message/command to the SSDs or to provide a signal on a dedicated connection to the SSDs in order to trigger power loss protection actions on the SSDs, including switching their power sources and flushing write queues before available hold-up energy is depleted.

Abstract: An information handling system may implement a method for controlling cache flush size by limiting the amount of modified cached data in a data cache at any given time. The method may include keeping a count of the number of modified cache lines (or modified cache lines targeted to persistent memory) in the cache, determining that a threshold value for modified cache lines is exceeded and, in response, flushing some or all modified cache lines to persistent memory. The threshold value may represent a maximum number or percentage of modified cache lines. The cache controller may include a field for each cache line indicating whether it targets persistent memory. Limiting the amount of modified cached data at any given time may reduce the number of cache lines to be flushed in response to a power loss event to a number that can be flushed using the available hold-up energy.

Abstract: A halt event separates a boot up operation from a run time operation. A controller grants a request from a baseboard management controller for an electrical power associated with a boot-up operation. As the baseboard management controller completes the boot-up operation (such as a power on self-test), the baseboard management controller predicts the electrical power that is required for a run time operation (e.g., executing an operating system). The baseboard management controller is then required or forced to submit a subsequent request for the additional electrical power that is required for the run time operation. The controller compares the electrical power predicted for the run time operation to a power availability from a power supply (such as a safe or maximum operating condition). If the power supply can provide the electrical power predicted to be required during the run time operation, then the controller may permit or authorize a transition from the boot up operation to the run time operation.

Abstract: An SCM memory mode NVDIMM-N cache system includes an SCM subsystem, and an NVDIMM-N subsystem having at volatile memory device(s) and non-volatile memory device(s). A memory controller writes data to the volatile memory device(s) and, in response, updates a cache tracking database. The memory controller then writes a subset of the data to the SCM subsystem subsequent to the writing of that data to the volatile memory device(s) and, in response, updates the cache tracking database. The memory controller then receives a shutdown signal and, in response, copies the cache tracking database to the volatile memory device(s) in the NVDIMM-N subsystem. The NVDIMM-N subsystem then copies at least some of the data and the cache tracking database from the volatile memory device(s) to the non-volatile memory device(s) prior to shutdown. The data and the cache tracking database may then be retrieved from non-volatile memory device(s) when the system is restored.