Abstract: A universal serial bus (USB) dock includes USB ports, each configured to connect to a respective USB element. The USB dock includes a circuit communicatively coupled to the USB ports and configured to determine a first temperature measurement in the USB dock, determine a power demand for each USB element connected to the USB ports, determine an allocation of power for the USB elements, and, based on the first allocation of power, provide less than the power demand for one or more of the USB elements based upon a total power demand by the USB elements and the first temperature measurement.

Abstract: A method for controlling power supply in a semiconductor device including a CPU and a PLD which can hold data even in an off state is provided. The semiconductor device includes a processor, a programmable logic device, and a state control circuit. The programmable logic device includes a first nonvolatile memory circuit and has a function of holding data obtained by arithmetic processing of the programmable logic device when it is turned off. The state control circuit obtains data on the amount of a task performed by the programmable logic device in accordance with an operation of the processor. The programmable logic device detects the state of progress of the task and outputs a signal to the state control circuit. The state control circuit monitors the amount of the task and the state of progress of the task and turns off the programmable logic device when the task is completed.

Abstract: A system includes a computing device operatively coupled to one or more user interface components, and a thermal cooling system for cooling the computing device. The system further includes a proximity sensor positioned adjacent a thermal vent and configured to set a proximity flag in response to detecting an object in proximity to the thermal vent. The system further includes an orientation sensor coupled to the computing device and configured to set an orientation flag in response to detecting an orientation of the computing device being such that the thermal vent is facing downward. The system further includes a processor communicatively coupled to the proximity sensor, the orientation sensor, and the one or more user interface components. The processor is configured to provide an alert for output through the one or more user interface components in response to having the proximity flag set or the orientation flag set.

Abstract: A method for managing electrical power to a server or server system is used in a power management system. The power management system comprises a power module, a backup power module, and a server system, the method comprises setting the server system to operate under a first working mode and controlling initialization of a BMC by an initialization command. A specified pin of the BMC is measured for a logic low voltage level and the server system is set to operate under a second working mode if the specified pin of the BMC is at the logic low voltage level. In different modes, the manner of supplying power and the working parameters of the server system are adjusted.

Abstract: A semiconductor apparatus may include a first semiconductor apparatus configured to transmit a first input signal as first data in synchronization with a first edge of a first clock signal having a first frequency. The semiconductor apparatus may also include a second semiconductor apparatus including: a first storage unit, configured to receive the first data as a set signal and output a second input signal as an internal signal in synchronization with a first edge of a second clock signal having a second frequency; and a second storage unit, configured to output the internal signal as second data in synchronization with a second edge of the second clock signal.

Abstract: A power backup method for use in a communication network monitoring device and a communication network monitoring device are provided. The method includes detecting an external power failure to a communication network monitoring device; switching to a backup power source internal to the communication network monitoring device upon detecting the external power failure: and while powered by the backup power source: generating an issue report recording the detected external power failure; communicating the issue report; shutting down operation of the communication network monitoring device after communicating the issue report.

Abstract: An in-vehicle control device includes a processor configured to: control a device of a first type, which has a function of switching an operation mode between a normal mode and a mode in which power consumption is limited compared to the normal mode in accordance with an instruction via communication and a device of a second type, which does not have the function; specify a limited device that is a device of which power consumption is to be limited, based on information acquired from outside; transmit to the limited device via a communication line an instruction to shift the operation mode to the mode in which power consumption is limited compared to the normal mode, when the limited device is the device of the first type; and stop power supply to the limited device when the limited device is the device of the second type.

Abstract: A method for controlling display of at least one item in an electronic device is provided. The method includes, while a display screen of the electronic device is in an off state, detecting a gesture performed on a portion of the display screen using a low power controller and controlling, by the low power controller, to display the one or more items on the display screen in response to the detecting of the gesture. The one or more items are displayed in part of the portion of the display screen of the electronic device.

Abstract: An information handling system may include at least one information handling resource and a power management subsystem configured to: receive signals from a plurality of power supply units, each signal indicative of an environmental parameter associated with a respective power supply of the plurality of power supply units; determine, for each of the plurality of power supply units, a respective environmental effective power capacity based on the respective signal indicative of the environmental parameter for such power supply unit and an environmental profile for such power supply unit; and manage power consumption of the at least one information handling resource based on environmental effective power capacities of the plurality of power supply units.

Abstract: Techniques are disclosed performing a power logging in a computer system at a sub-process level. An exemplary method includes an operating system of the computer system determining process information indicative of which sub-portions of one or more processes are running on the computer system at different points in time, as well as may determining power information for the computer system at different points in time. The operating system may the create, from the process information and the power information, a power log indicative of power usage of sub-portions of processes at a plurality of points in time. The power logging may extend to both core and non-core resources of the system. For non-core resources, the power usage may be estimated in some cases based on the type of non-core resource being called as well as parameters passed to the non-core resource.

Abstract: An apparatus to initialize a port includes a first input-output port to connect to a first device and a control unit to initialize all input-output ports of the apparatus when the apparatus is booted and to skip a power-on self-test (POST) of the first input-output port in response to a request to skip initialization of the first input-output port while the first input-output port is enabled.

Abstract: A power device discovery and visualization system identifies and categorizes smart power and energy devices deployed within an industrial enterprise, and generates interfaces that render customized presentations of a plant's power and energy usage based on data retrieved from the discovered devices. The system also facilitates remote configuration of the discovered smart devices via interaction with a single consolidated interface that affords access to all discovered power and energy devices. The system constructs a device profile for each discovered smart device based on information retrieved from the device, and categorizes each discovered device according to device type (e.g., power meter, IED, VFD, controller, etc.). The system retrieves available historical, real-time, and/or configuration data from each discovered smart device and makes this data available for viewing or modification via the system interface, thereby unifying plantwide power and energy data into a common presentation.

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: 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: 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 method for regulating power dissipation at an information handling system may include determining a present value of a first parameter, the first parameter controlling an operating frequency, frequency boost, and a supply voltage at a central processing unit. The method may further include determining a present value of a second parameter, the second parameter defining a user's preference for optimizing operation of the system for noise level, skin temperature, and performance. The method may further include determining that a program executing at the system is specified at a list of software applications. In response to determining that a skin temperature of the system exceeds a threshold, the first parameter may be adjusted to reduce power dissipation of the CPU by a first amount if the value of the second parameter is equal to a first value. The first parameter may be adjusted by a second amount if the present value of the second parameter is equal to a second value.

Abstract: A clock skew correcting method, device and system are provided. The method includes: determining at least two modules; determining a period of a clock signal and calculating a delay parameter of each of the at least two modules, in a case where a clock generator transmits the clock signal to each of the at least two modules; determining one of the at least two modules as a slave module and the other of the at least two modules as at least one main module; correcting a clock phase for each of the at least one main module based on the delay parameter of the slave module; and performing, for each of the at least one main module, the following step of generating a corrected clock for the main module based on the period and the corrected clock phase for the main module.

Abstract: Systems and methods according to one or more embodiments are provided for detecting or recognizing a user and intelligently altering or adjusting user device settings appropriate for the detected user. In an embodiment, a method comprises detecting, electronically by a processor, a first user interacting with a user device via a user input interface of the user device; determining, electronically by the processor, one or more characteristics associated with a primary user of the user device; determining, electronically by the processor, the first user is not the primary user based at least in part on comparing interactions of the first user with the user device and the one or more characteristics associated with the primary user of the user device; and altering one or more settings of the user device.

Abstract: The present disclosure describes a system 400 for transmitting power to a remote Power over Ethernet (PoE) subsystem by forwarding Powered Device (PD) input voltage where the subsystem includes a PD and a Power Sourcing Equipment (PSE) device. Included is a master PSE device 402, a first subsystem 410, and a second subsystem 428. The first subsystem 410 includes a first PD 418 that includes a first power switching device 426 and a first PSE device 424. The first power switching device 426 forwards the input power from the first PD 418 to the first PSE 424 without disturbing the PoE handshaking between the devices. The first power switching device 426 uses a switching device with level detection that detects the required input voltage. The second subsystem 428 receives the power from the first subsystem's 410 first PSE device 424. And the second subsystem 428 operates in a manner similar to the first subsystem 410.

Abstract: The present disclosure describes a system 400 for transmitting power to a remote Power over Ethernet (PoE) subsystem by forwarding Powered Device (PD) input voltage where the subsystem includes a PD and a Power Sourcing Equipment (PSE) device. Included is a master PSE device 402, a first subsystem 410, and a second subsystem 428. The first subsystem 410 includes a first PD 418 that includes a first power switching device 426 and a first PSE device 424. The first power switching device 426 forwards the input power from the first PD 418 to the first PSE 424 without disturbing the PoE handshaking between the devices. The first power switching device 426 uses a switching device with level detection that detects the required input voltage. The second subsystem 428 receives the power from the first subsystem's 410 first PSE device 424. And the second subsystem 428 operates in a manner similar to the first subsystem 410.