Abstract: An electronic device including: a regulator circuit configured to output a regulated voltage based on a reference voltage and a feedback voltage; and an oscillator configured to generate an output frequency signal based on a reference frequency signal and the regulated voltage output from the regulator circuit, wherein the regulator circuit includes: a feedback loop configured to output the regulated voltage based on a difference between the reference voltage and the feedback voltage; a first capacitor; a precharge circuit connected to the feedback loop, and configured to charge the first capacitor with a second voltage which is based on a first voltage; a first switch configured to connect the precharge circuit with the first capacitor; and a second switch configured to connect the first capacitor with the feedback loop.

Abstract: Methods, systems, and devices for programming power management circuits in a system are described. An apparatus may include a set of one or more power management circuits configured to provide one or more operating voltages for the apparatus. The apparatus may also include an interface coupled with a controller via a bus. The apparatus may include a first switching circuit configured to isolate the bus from the controller and to couple the bus with a second switching circuit. The second switching circuit may be configured to isolate the set of one or more power management circuits from the controller and to couple the set of one or more power management circuits with the first switching circuit.

Abstract: An example device comprising: first clock divider circuitry to be coupled to a first clock; first counter circuitry configured to be coupled to the first clock divider circuitry, the first counter circuitry configured to increment based on the first clock and a second clock; second clock divider circuitry to be coupled to a third clock; second counter circuitry configured to be coupled to the second clock divider circuitry, the second counter circuitry configured to increment based on the third clock and the second clock; and comparison circuitry coupled to the first and second counter circuitry.

Abstract: A method of power management of one or more line modules in a network device includes obtaining a power rating of a line module of the one or more line modules; determining, based on the power rating, one or more of a current threshold and a shutdown voltage for the line module; and providing the current threshold and the shutdown voltage to the line module for storage thereon, wherein the line module is configured to monitor the current threshold and the shutdown voltage and operate based thereon.

Abstract: An untrusted orchestrator function subsystem inventory and verification system includes an untrusted orchestrator device, an operating system, a BIOS, and a management device. In response to presentation by the untrusted orchestrator device of a function subsystem to the operating system during runtime, the operating system generates a function subsystem detection alert that identifies the function subsystem. In response to the function subsystem detection alert, the BIOS generates and transmits a BIOS inventory update. The management device receives the BIOS inventory update, and determines whether the operating system is authorized to use the function subsystem at least in part based on the BIOS inventory update. If so, the management device allows the operating system to utilize the function subsystem while, if not, the management device prevents the operating system from utilizing the function subsystem.

Abstract: A clock gating method and circuit for avoiding out-of-spec clock operations. The circuit comprises a clock gating section that gates a clock signal according to an enabling signal generated by an enabling signal controller, the enabling signal controller generating the enabling signal according to a set signal and a reset signal. The circuit further comprises a set signal generator that generates the set signal, a reset signal generator that generates the reset signal, and a feedback section that uses the enabling signal to generate the feedback signal for the reset signal generator. The reset signal generator generates the reset signal by using the feedback signal. The enabling signal controller further generates an acknowledgement signal having a high signal during a blocking period when the clock signal is blocked and utilizes the acknowledgement signal as an announcement to a higher circuit that the clock signal is blocked.

Abstract: A memory system includes a memory chip and a memory controller that controls the memory chip. In a write operation, the memory controller transfers a first timing signal synchronized with a first clock and first data synchronized with the first timing signal to the memory chip. In a read operation, the memory controller transfers a second timing signal synchronized with at least a second clock to the memory chip. The second clock has a frequency different from a frequency of the first clock. In the read operation, the memory chip generates a third timing signal synchronized with the second clock based on the second timing signal, and transfers the third timing signal and second data synchronized with the third timing signal to the memory controller.

Abstract: Computerized systems and methods are provided to intelligently and dynamically manage a data center comprising at least one server and at least one central manager. The central manager is programmed to access the at least one server on a predetermined schedule to determine whether at least one application is functioning properly by determining a functionality level. Alternatively, the central manager determines whether the at least one server is actively used by determining an activity level for the server. Based on the central manager's determinations, the system dynamically adjusts the power level of the server, resulting in reduced power consumption and a reduction in wasted resources and unnecessary processing power in the management of servers in a data center.

Abstract: Disclosed herein is a server management apparatus, comprising: a server information acquisition unit configured to acquire configuration information and identifier information of a plurality of servers that constitute a network; a script generation unit configured to generate a script for booting each server for each of the plurality of servers based on the configuration information and the identifier information of the plurality of servers acquired; a remote disk setting unit configured to write the script generated by the script generation unit to a remote disk to be mounted on each of the plurality of servers to set the remote disk; and a command issuance unit configured to issue, to each of the plurality of servers via the network, a command to mount the remote disk set by the remote disk setting unit on a corresponding server.

Abstract: In one embodiment, an apparatus comprises an input power interface for receiving input power, a power control system for transmitting DC (Direct Current) pulse power on multiple phases over a cable to a plurality of powered devices and verifying cable operation during an off-time of pulses in the DC pulse power, and a cable interface for delivery of the DC pulse power on the multiple phases and data over the cable to the powered devices. A method for transmitting multiple phase pulse power is also disclosed herein.

Abstract: Methods, apparatus, systems, and articles of manufacture are disclosed to reduce display connection latency. An example apparatus includes interface circuitry to: detect when a display is plugged into a port; and notify processor circuitry of the detection. In response to the notification, the processor circuitry of the example apparatus moves discrete circuitry into a high power state. The example apparatus also includes discrete circuitry to, while in the high power state, identify the display.

Abstract: An interface device and a signal transceiving method thereof are provided. The interface device includes a master circuit and a slave circuit. The slave circuit includes a second receiver, a clock generator, a sampler, and a comparator. The first receiver and second receiver respectively receive input data and a clock signal from the master circuit. The clock generator delays the clock signal according to a delay value to generate a delayed clock signal, and generates a plurality of sampling signals according to the delayed clock signal. The sampler samples the input data according to the sampling signals to generate a plurality of sampling results. The comparator compares the sampling results to generate a comparison result. The clock generator adjusts the delay value according to the comparison result.

Abstract: The present disclosure generally relates to ensuring a data storage device consumes as little power as possible. Different HW modules in the data storage device can operate at different frequencies to ensure any bottleneck HW modules operate at as fast a frequency as possible, while non-bottleneck HW modules operate at slower frequencies and hence, consume less power. The frequency for each HW modules is dynamic and is adjusted based upon detected bottlenecks so that the data storage device can operate as efficiently as possible and consume as little power as possible.

Abstract: Battery management systems and methods for using the same to obtain battery shock and/or rollover data. An exemplary battery management system of the present disclosure comprises an accelerometer configured to obtain acceleration data, a microcontroller operably connected to the accelerometer and configured to receive the acceleration data from the accelerometer, and a data storage medium in communication with the microcontroller, the data storage medium configured to store the acceleration data therein, wherein when the battery management system is in communication with a battery, the accelerometer can obtain the acceleration data relating to the battery, and the microcontroller can operate to disconnect the battery from a load connected thereto should the acceleration data meet or exceed a threshold limit.

Abstract: Shared hoteling workspaces and computer equipment are preconfigured based on location. A location associated with a mobile device is monitored. As the mobile device moves toward a workspace, computer peripheral equipment assigned to the workspace are identified and a best known configuration is retrieved. As the mobile device continues moving toward the workspace, the mobile device installs the best known configuration. Location-based policies and configuration events are defined and executed to ensure the best known configuration is timely installed. When the mobile device arrives at the workspace, the mobile device has been automatically configured to the computer peripheral equipment at the workspace. The mobile device is thus preconfigured, perhaps just in time, for immediate productivity and optimum user experience. Moreover, when the location of the mobile device no longer matches the workspace, the best known configuration may be automatically deleted to conserve memory.

Abstract: The present disclosure provides a method and system for controlling peak power consumption, which dynamically controls frequency by monitoring the load in real-time, thereby reducing the power consumption, and providing sufficient computing performance while controlling peak power consumption. The method and system for controlling peak power consumption of the present disclosure monitor the load in real-time, and reduce power consumption by dynamically and intelligently controlling the operating frequency, to achieve a balance between performance and power consumption, such that the chip works at the highest frequency when the peak power consumption does not exceed the load threshold, thereby effectively improving the work efficiency while achieving the power consumption control.

Abstract: The present application provides a method and an apparatus for controlling device operation, and a terminal device and a storage medium, and relates to the technical field of device control. The method includes: acquiring an input expected operation duration of a target device; calculating to obtain a target power of the target device according to the expected operation duration and a target battery voltage of the target device; and controlling the target device to operate at the target power, wherein when the target device operates at the target power, an operable duration of the target device is greater than or equal to the expected operation duration. By means of the solutions provided by the present application, the operation of the device can be better controlled, so that the requirement of a user for service time required by continuous operation of the target device is met.

Abstract: A system and method for polling a plurality of client devices of different types are provided. A reboot and polling tool pre-polls client devices, where the pre-poll is specific to a type of client device and identifies a state of the client devices. The reboot and polling tool then executes a script on the client devices that changes the state of the plurality of client devices. After the script is executed, the reboot and polling tool post-polls the client devices where the post-poll is specific to the type of client device and the post-poll provides information that identifies changes in the state of the client devices caused by the script.

Abstract: A method of performing clock synchronisation across multiple devices, the method including: in a first device: emitting timing pulses based on a first clock signal; and, outputting event data including events associated with first event times based on the first clock signal; in a second device: receiving the timing pulses; and, generating reference data including an indication of each timing pulse associated with a reference time based on a second clock signal; and, in one or more processing devices: receiving the event data; recording an approximate local event time for each event based on a time of local receipt determined using a local clock signal; using the local event times and first event times to derive a first function that relates the first clock signal and the local clock signal; using the first function and the reference data to derive a synchronisation function relating the first and second clock signals; and, using the synchronisation function to perform clock synchronisation of the first and se

Abstract: The invention relates to a method for implementing an ONU Management and Control Interface (OMCI) management instance based on a configuration file. The method is constructed on a passive optical network. The passive optical network includes an ONU and an OLT, the OLT using an OMCI specification as a management protocol to create a management entity in the ONU. The method includes: executing a software for the ONU to activate an OMCI process; and checking if a configuration file exists under a specific system path of the ONU by the software; if the configuration file exists, loading the configuration file by the software, and configuring the management entity according to the configuration file.