Abstract: Systems and methods for backlight dimming via buck-boost conversion in an information handling system (IHS) are described. In some embodiments, an IHS may include an embedded controller (EC), and a memory coupled to the EC, the memory having program instructions stored thereon that, upon execution, cause the EC to: determine a characteristic of a display having a backlight; and dim the display by controlling a buck-boost converter to reduce a voltage applied to the backlight.

Abstract: An example device for image transfer can include a memory device, a service cubby to house a computing device and coupled to the memory device, a controller coupled to the memory device. The controller can retrieve, from the memory device, an image requested for transfer to the computing device in the memory device, perform an integrity check on the image, and transfer, via a local network of the device, the image to the computing device while the computing device is coupled to the service cubby.

Abstract: A context hub receives and processes data from multiple sensors. An operation method of the context hub includes identifying a pattern of context data input to the context hub from at least one of the sensors, determining a dynamic voltage-frequency scaling (DVFS) level corresponding to the identified pattern of the context data, and processing, at the context hub, the context data by using a clock signal or a driving voltage corresponding to the determined DVFS level.

Abstract: A datacenter power management system and method is disclosed. A plurality of computing units are enabled to operate at a second frequency, higher than a first frequency, in response to determining from respective power coefficients for these computing units, that a power level at this higher frequency remains below a power budget.

Abstract: A system and method for efficient use of zones in a storage system. The method includes: building a frontier set comprising one or more zones of one or more storage devices for writing to; writing data to at least one zone of the one or more zones included in the frontier set; and during a bootup sequence: accessing a frontier set list to identify the one or more zones in the frontier set; and scanning the one or more zones to identify the at least one zone that data was written to.

Abstract: In an embodiment, a circuit includes: an error amplifier; a temperature sensor, wherein the temperature sensor is coupled to the error amplifier; a discrete time controller coupled to the error amplifier, wherein the discrete time controller comprises digital circuitry; a multiple bits quantizer coupled to the discrete time controller, wherein the multiple bits quantizer produces a digital code output; and a heating array coupled to the multiple bits quantizer, wherein the heating array is configured to generate heat based on the digital code output.

Abstract: A voltage regulator is embedded in a circuit intermediate a first node (coupled to a battery) and a second node (supplying power to an external memory). The voltage regulator is activatable in a first mode of operation for startup during which an voltage is applied to the second node that increases towards a supply threshold. In response to the voltage at the second node reaching the supply threshold, the voltage regulator transitions to a second mode of operation where a programmable regulated voltage (higher than the supply threshold) is applied to the second node. In response to receipt of a low-power operation request, a first high-drive regulator circuitry is deactivated and a second low-power regulator circuitry is activated to provide a third mode of operation at low power.

Abstract: An example power source device includes a universal serial bus interface to couple to a power sink device, a power supply interface to couple to a power supply, a power measurement controller to measure a total power consumption of the power sink device and the power source device, a power contract manager to select a power delivery contract for the power sink device based on the total power consumption, a power supply rating of the power supply and a previous power delivery contract, and a power delivery controller to deliver power to the power sink device according to the selected power delivery contract.

Abstract: A dynamically configurable clock divider may include a multifrequency clock divider circuit for generating a programmable frequency output clock signal from a given frequency input clock signal may include a first counter, and a second counter. The second counter may alternate between an active state and an inactive state with opposite states of the first counter to control delivery of the programmable frequency clock signal. When the first counter is programmed to be transitioned from the inactive state to the active state, the second counter may continue to maintain the active state and a previous frequency value of the output clock signal for a predetermined number of clock signals before transitioning to the inactive state and handing control of the output clock signal to the first counter which assumes the active state.

Abstract: An integrated router is provided. The integrated router includes at least one network interface, a power supply input, a power supply output, and a power cycling switch. The at least one network interface is operative to place a first network device in electronical communication with a second network device. The power supply input is operative to receive electrical power from a power supply. The power supply output is operative to provide the electrical power to the second network device. The power cycling switch electrically connects the power supply input to the power supply output and is operative to be toggled by a remote network device via the at least one network interface so as to power cycle the second network device.

Abstract: A converged device including a first subsystem and a second subsystem, configured to operate in multiple operation modes with varying levels of security. One example provides a method for operating the device. The method includes determining, during a startup sequence of the first subsystem and with a first processor of the first subsystem, a last operation mode for the first subsystem. The method includes determining, responsive to detecting that a SIM is installed in the converged device, a network type for the SIM. The method includes controlling, with the first processor, a first communication interface based on the network type and the last operation mode. The method includes determining, during a startup sequence of the second subsystem and with a second processor of the second subsystem, the last operation mode for the first subsystem and controlling, with the second processor, a second communication interface based on the last operation mode.

Abstract: A first communication device generates an Operation, Administration, and Maintenance (OAM) frame that includes i) OAM message content and ii) an OAM frame header outside of the OAM message content, wherein generating the OAM frame comprises generating the OAM frame header to include information that signals one of i) a low power sleep (LPS) request, and ii) a wake-up request (WUR). The first communication device transmits the OAM frame to a second communication device via a communication medium to signal to the second communication device the one of i) the LPS request, and ii) the WUR.

Abstract: The present invention is a Power over Ethernet (PoE) control module, comprising; an input connector adapted to receive a connection from a first cable, wherein the first cable provides a power signal and a command signal; an output connector adapted to receive a connection from a second cable, wherein the second cable sends a power signal to a set of light fixtures; a bridge circuitry connected to the input and output connectors, wherein the bridge circuitry separates the command signal from the power signal; and a microcontroller connected to the bridge circuity, wherein the microcontroller processes the command signal and sends the command signal to the set of light fixtures wirelessly.

Abstract: An information handling system may include a processor, a plurality of information handling resources communicatively coupled to the processor, a power subsystem configured to deliver electrical energy to the processor and the plurality of information handling resources to enable operation of the processor and the plurality of information handling resources and a management controller. The management controller may be configured to create an inventory of the plurality of information handling resources; based on the inventory, determine a worst-case maximum power consumption of the processor and the plurality of information handling resources; determine if the worst-case maximum power consumption exceeds a power limit associated with the power subsystem; and if the worst-case maximum power consumption exceeds the power limit, cause a remedial action to be taken to maintain power consumption of the processor and the plurality of information handling resources below the power limit.

Abstract: A low power docking station and a power consumption monitoring method thereof are provided. The low power docking station includes a processing module, a monitoring module, a power supply module, and a power supply control module. The processing module is used for interpreting, transcoding, and distributing the input data to peripheral ports. The monitoring module is used for monitoring whether or not the plurality of peripheral ports is connected to a peripheral device to generate a corresponding one of a monitoring signal. The power supply module is used for supplying power to the plurality of peripheral ports, the processing module, and the monitoring module. The power supply control module is connected to the monitoring module and the power supply module. The power supply control module is used for controlling the power supply module to output power according to the monitoring signal.

Abstract: Embodiments relate to a system, program product, and method for mitigating voltage overshoot in one or more cores in a multicore processing device including a plurality of cores. The method includes determining, in real-time, an indication of power consumption within each core of the one or more cores. The method also includes determining, through the indication of power consumption, a voltage overshoot condition in the one or more cores. The method further includes increasing, for the one or more cores, a power demand thereof. The method also includes increasing, subject to the increasing the power demand, power delivery to the one or more cores, thereby at least arresting the rate of increase of the voltage overshoot.

Abstract: A method is provided that includes grouping a plurality of ports at power sourcing equipment receiving pulse power and transmitting power from the group of ports at the power sourcing equipment to a power interface module operable to combine the power and provide an AC (alternating current) outlet configured to provide AC power to one or more devices.

Abstract: Provided are an energy management method in a self-powered network, and an energy management apparatus and an energy management system to perform the method. The energy management system includes a first energy management unit and at least one second energy management unit configured to be communicable with the first energy management unit. Here, the at least one second energy management unit may acquire observation data using collected data and may transmit the acquired observation data to the first energy management unit, the first energy management unit may acquire a global neural network parameter by performing learning based on the observation data and may transfer the neural network parameter to the second energy management unit, and the at least one second energy management unit may determine an energy dispatch by performing learning using the neural network parameter and the collected data.

Abstract: Embodiments are directed to improving boot process for early display initialization and visualization. An embodiment of a system includes a plurality of processor cores; a cache coupled to the plurality of processor cores; and a controller circuit to: initialize a portion of the cache as static memory for hardware initialization code usage before beginning execution of the hardware initialization code after a power on of the hardware processor; and cause initialization of a display device to be performed using the portion of the cache, the initialization of the display device performed independently of initialization of dynamic memory of the hardware processor.

Abstract: A power supply includes a Primary or “high voltage” side and a Secondary or “low voltage” side. The primary side has boost stage circuitry that includes a boost stage controller that causes the boost stage circuitry to provide electrical energy, at least at a minimum boost voltage, to an energy storage capacitor. The energy storage capacitor may be charged by electrical energy at the minimum boost voltage and discharge electrical energy during a ride through event to power the electronic device.