Abstract: A voltage stacked system that includes a stack of near threshold computing (NTC) chips for achieving inter-chip communication with simple wires as interconnections is disclosed. The chips include at least two secondary supply voltages and at least a secondary ground voltage electrically coupled to the stack of the chips arranged in series. The secondary supply and ground voltages are tapped in a predefined sequence at one or more predefined access points in the stack to generate two versions of an internal voltage within each of the chips. Each of the two versions of the internal voltage is a voltage difference between respective supply voltages and ground voltages, and the two have a set voltage shift such that the chips in the stack have supply voltages overlapping with those in the neighboring chips. Optionally, the two voltages are boosted to further higher voltages as needed using charge pumps.

Abstract: Techniques and apparatus for providing power monitoring processes are described. In one embodiment, for example, an apparatus may include at least one storage device and logic coupled to the at least one storage device. The logic may be configured to poll a power device comprising a plurality of power elements via an alarm status identifier operative to cause the power device to return an alarm status string comprising a plurality of alarm status bits, each of the plurality of alarm status bits indicating an active alarm state of one of the plurality of power elements, and determine each of the plurality of power elements in the active alarm state based on the alarm status string. Other embodiments are described.

Abstract: The present disclosure provides a control method. The method includes when an electronic device is in a first operating mode and has an abnormal situation, switching the electronic device to a second operating mode, to process the abnormal situation in the second operating mode; and when the electronic device has returned to normal, switching the electronic device to the first operating mode. Power consumption and/or available system resource of the electronic device in the first operating mode are less than power consumption and/or available system resource of the electronic device in the second operating mode.

Abstract: A Power over Ethernet (PoE) Powered Device (60) is described herein that includes an auxiliary processor (62) that negotiates a power level with a PoE Power Sourcing Equipment using a first link layer (650), means for holding the PoE Powered Device in a low power state, and a second link layer (50) that allows the main processor to communicate over the Ethernet.

Abstract: Disclosed are systems and methods for efficient power management for storage devices. A method includes receiving a request to transition a flash memory to a first stand-by mode, wherein the flash memory comprises a plurality of dies. The method also includes causing one or more guard dies of the plurality of dies to transition to the first stand-by mode while causing one or more other dies of the plurality of dies to transition to a second stand-by mode, wherein the second stand-by mode is configured to consume less power than the first stand-by mode. The method also includes receiving an input/output (I/O) request for the flash memory. The method also includes causing the I/O request to be performed on the one or more guard dies that are in the first stand-by mode but not in the second stand-by mode.

Abstract: A rack adapted for receiving a component, a system including the rack and the component and a method of delivering power to the component mounted in the rack are disclosed. The rack comprises a backplane, a power panel, and a main controller. Each stage of the backplane includes a backplane power connector and a backplane data connector that are respectively connectable to a component power connector and to a component data connector when the component is inserted in the backplane stage. The main controller detects an insertion of the component in a given backplane stage by receiving a signal emitted by the backplane data connector of that backplane stage, acquires a set of power parameters of the component, and causes the power panel to provide power to the backplane power connector of that backplane stage according to the set of power parameters of the component.

Abstract: Consensus protocols for asynchronous networks are usually complex and inefficient, leading practical systems to rely on synchronous protocols. The invention proposes an approach to simplify asynchronous consensus by building it atop a novel threshold logical clock abstraction, allowing the consensus protocol to operate in “virtual synchrony.” Leveraging accountable state machine techniques to detect and suppress Byzantine nodes, and verifiable secret sharing for random leader election, we obtain simple and efficient protocols for asynchronous Byzantine consensus.

Abstract: Systems and methods for improving power efficiency of electronic systems are disclosed. An intelligent voltage regulator module (VRM) can self-regulate the output power provided to one or more components of an electronic system. For example, output voltage to a component can be increased when more computational power is needed or lowered when appropriate. The intelligent VRM can regulate the output power, for instance, based on one or more of usage or activity of the component. In some cases, the intelligent VRM can independently regulate the output power without input from a host device or override one or more output power parameters. Adjustment of the output power can be performed using machine learning (ML).

Abstract: Methods and articles of manufacture for hosting a safety critical application on an uncontrolled data processing device are provided. Various combinations of installation, functional, host integrity, coexistence, interoperability, power management, and environment checks are performed at various times to determine if the safety critical application operates properly on the device. The operation of the SCA on the UDPD may be controlled accordingly.

Abstract: Computing devices and methods for determining opening and closing of touch sensitive interfaces are disclosed. In one example, a computing device comprises a touch screen display on a first substrate that is rotatably coupled to a second substrate that includes a trackpad. A trackpad identification signal transmitted by the trackpad is received at the touch screen display, and a touch screen identification signal transmitted by the touch screen is received at the trackpad. If the trackpad identification signal matches a trackpad identification key and the touch screen identification signal matches a touch screen identification key, then an energy level of one or both signals is compared to an energy level threshold. Based at least in part on the comparison of the energy level to the threshold, a power state transition is initiated.

Abstract: An information processing apparatus that detects processing to be executed by a processor includes: a display that displays a status of the processing to be executed by the processor; and a switching controller that switches between a first adjustment mode and a second adjustment mode in association with predetermined processing to be executed without displaying the execution status on the display. The first adjustment mode sets, as a target for selection, a first selection range including a plurality of processing power classes classified according to the magnitude of the processing power. The second adjustment mode sets, as a target for selection, a second selection range in which a first processing power class related to relatively high processing power is excluded from among the first processing power class, a second processing power class, and a third processing power class of the first selection range.

Abstract: Technologies are described for multiple accelerators for a neural network, and methods thereof. In an example implementation, a neural network can be mapped to a system comprising a control unit and multiple accelerators, where the controller unit controls each accelerator's behavior, sends data to and receives data from each accelerator through the interconnections. Sub-networks may be created by grouping several network layers or dividing a network layer into multiple sub-layers depending on data to be processed and memory capacity of each accelerator. Accelerators have internal storage, thus, do not require external memory.

Abstract: Disclosed are self-checkout terminals and systems and methods for controlling the same. The systems and methods may include receiving a first image of the customer queuing area from the first camera and determining that a customer is in the customer queuing area. A first wakeup signal may be transmitted to one of the self-checkout terminals when the customer is in the customer queuing area. A second image of the customer queuing area may be received from the first camera and a determination may be made that the customer queuing area is void of customers. A first sleep signal may be transmitted to the one of the self-checkout terminals when the customer queuing area is void of the customers.

Abstract: The reservation management system includes an input device and a reservation management unit. The input device includes a manual operation part movable between a first position and a second position and sends a wireless signal containing movement information of the manual operation part and ID information. The reservation management unit performs reservation management based on the wireless signal sent from the input device. The reservation management unit includes a clock unit, a storage unit, and a determination unit. The clock unit measures time. The storage unit associates reservation information containing a reservation start time, and the ID information with each other and stores them. The determination unit determines a reservation performance status based on a current time, the reservation start time, and the movement information.

Abstract: Managing runtime qubit allocation for executing quantum services is disclosed. In one example, a processor device of a quantum computing system implements a quantum backoff service (QBS) that enables safe runtime qubit allocation for executing quantum services. The QBS receives a request from a quantum service scheduler for allocation of one or more qubits for an executing quantum service. Upon receiving the request for allocation, the QBS determines whether the one or more qubits are unavailable for execution. If the QBS determines that the one or more qubits are unavailable for allocation, the QBS places the executing quantum service into a sleep state. The QBS in some examples may subsequently receive an indication that the one or more qubits have become available for allocation. The QBS then restores the executing quantum service into an executing state and allocates the one or more qubits for the executing quantum service.

Abstract: A data processing system comprises a hybrid processor comprising a big TPU and a small TPU. At least one of the TPUs comprises an LP of a processing core that supports SMT. The hybrid processor further comprises hardware feedback circuitry. A machine-readable medium in the data processing system comprises instructions which, when executed, enable an OS in the data processing system to collect (a) processor topology data from the hybrid processor and (b) hardware feedback for at least one of the TPUs from the hardware feedback circuitry. The instructions also enable the OS to respond to a determination that a thread is ready to be scheduled by utilizing (a) an OP setting for the ready thread, (b) the processor topology data, and (c) the hardware feedback to make a scheduling determination for the ready thread. Other embodiments are described and claimed.

Abstract: An electronic device, a method, and a non-transitory, computer-readable medium storing instructions for dynamically verifying trusted applications (TAs) during a boot sequence. The electronic device includes a memory and a processor operably connected to the memory. The processor executes instructions stored in the memory to cause the electronic device to initialize a kernel boot sequence in response to confirming that executable codes for booting the electronic device are from a trusted binary and then verify one or more registered TAs during the kernel boot sequence. Completion of the kernel boot sequence is based on verification results of the set of registered TAs.

Abstract: Diagnostics and boot up for AV hardware and software of a computer system of an autonomous vehicle may be performed based at least on receiving a shutdown or power off indication, then a computing state of the computer system may be suspended with the computer system entering a low-power mode. The suspended computing state can be rapidly restored without requiring a reboot and diagnostics for key-on. To ensure the integrity of the saved computing state, the computer system may exit the low-power mode, rerun the diagnostics, reload the programs, and then reenter the low-power mode. Restoring the suspended computing state may be triggered by a user inserting an ignition key, pressing a button to turn on the vehicle, opening a door to the vehicle, remotely unlocking the vehicle, remotely starting the vehicle, etc.

Abstract: Many mobile devices are used for documenting different scenarios that are encountered by the users as they go about their daily lives. In many situations, a mobile device may be used to document the scenario. This data may be of significant forensic interest to an investigator. In many situations, the owner of the phone may be willing to provide the investigator access to this data (through a documented consent agreement). Such consent is usually contingent upon the fact that not all the data available on the phone may be extracted for analysis, either due to privacy concerns or due to personal reasons. Courts have also opined in several cases that investigators must limit data extracted, so as to focus on only “relevant information” for the investigation at hand. Thus, only selective (or filtered) data should be extracted as per the consent available from the witness/victim (user). Described herein is the design and implementation of such a targeted data extraction system (TDES) for mobile devices.

Abstract: A system for power management of an electronic device. The system comprises a programmable system microcontroller; power ports configured to sink or source electrical power; and a programmable power multiplexor connected between the power ports and the system microcontroller. The system further comprises bi-directional load switches connected between the power port and a bi-directional voltage convertor, and configurable to allow electrical power to flow through the bi-directional load switch. The bi-directional voltage convertor converts a first voltage supplied by the bi-directional load switch to a second voltage and supplies power at the second voltage to the electronic device or external device through the power ports. The programmable system microcontroller controls the direction in which each bi-directional load switch allows power to flow and the second voltage, such that the system sinks or sources power at each of the power ports according to programming of the system microcontroller.