Abstract: A method for handling power faults in a primary electronic device is provided. The method includes setting a power-off duration to an initial value and powering on a hardware interface. In response to detecting a power fault at the hardware interface, the hardware interface is power-cycled by a plurality of power cycles having progressively increasing power-off durations until a limit is reached. A primary electronic device for carrying out the method is also provided. The primary electronic device includes a controller, a memory, and a hardware interface for coupling the telematics device to a secondary electronic device.

Abstract: A processing system includes a reset circuit, a memory storing configuration data, and a hardware configuration circuit transmitting the configuration data to configuration data clients. The system executes a reset phase, configuration phase, and software runtime phase. First and second reset terminals are associated with first and second circuitries which are respectively associated with configuration data clients. The configuration data includes first and second mode configuration data for the first and second terminals. During the reset and configuration phase, the first circuitry activates a strong pull-down, and the second circuitry activates a weak pull-down.

Abstract: Systems and methods for discrete power control of components within a computer system are described herein. Some illustrative embodiments include a system that includes a subsystem with a plurality of components (configurable to operate at one or more power levels), a control register (coupled to the plurality of components) including a plurality of bits (each uniquely associated with a one of the plurality of components), and a power controller coupled to, and configurable to cause, the plurality of components to operate at the one or more power levels. The power controller asserts a signal transmitted to the subsystem, commanding the subsystem to transition to a first power level. A first of the plurality of components, associated with an asserted bit of the control register, operates at a second power level corresponding to a level of power consumption different from that of the first power level indicated by the power controller.

Abstract: An information handling system determines a difference between a first set of initialization information and a second set of initialization information during a pre-extensible firmware interface initialization phase of a boot process that is based on a first basic input/output system (BIOS), wherein the first set of initialization information is associated with the first BIOS and the second set of initialization information is associated with a second BIOS. The system also creates and publishes a hand-off block that includes an entry which describes the difference between the first set of initialization information and the second set of initialization information. The system parses the hand-off block during a driver execution environment phase to determine the difference between the first set of initialization information and the second set of initialization information, wherein the hand-off block is passed from the pre-extensible firmware interface initialization phase of the boot process.

Abstract: A scheme for restoring a password-protected endpoint device (e.g., a memory device) of a computer system to an operational state from a low power state without requiring user input of a device password. A password received for unlocking the device during a boot process is stored in a secure memory. The password-protected endpoint device subsequently enters the low power state, causing it to lock. During a transition from the low power state to an operational state, it is detected that the password for the endpoint device is stored in the secure memory. The password is fetched from the secure memory and used to unlock the endpoint device, thereby restoring the endpoint device to an operational state.

Abstract: An information processing device includes: an ECU; a management ECU that provides the ECU with a virtual storage including a first storage area and a second storage area, one of which stores a first program to be executed by the ECU on start-up; an update controller that obtains, from an external device, a second program that is an update to the first program, and causes a remaining one of the first storage area and the second storage area to store the second program obtained; and a switching unit that switches a program to be executed by the ECU on start-up from the first program to the second program stored in the remaining one of the storage areas, after the second program is stored in the remaining one of the storage areas.

Abstract: Techniques are disclosed relating to thermal control implemented by a power management unit. In some embodiments, the power management unit itself is configured to monitor thermal conditions, implement control for one or more thermal loops, and send reduction alerts, via an inter-chip interconnect, to the processor circuitry it powers. In some embodiments, the power management unit implements both thermal and electromigration control loops. Disclosed techniques may advantageously reduce or avoid thermal issues, potentially with reduced impact on processor performance relative to traditional techniques.

Abstract: Methods and systems for managing configurable devices are disclosed. A configurable device may be a type of hardware device that may be configured for various purposes. The operation of the configurable device may depend on its configuration. To manage the configurable devices, a system may configure the configurable devices to provide desired functionalities. Once configured, the configured configurable devices may be deployed to a deployment site where they may provide their respective functionalities. As part of the process of configuring and deploying the configurable devices, the configurable devices may be moved between various locations. To protect and otherwise physically manage the configurable devices, the configurable device may be packaged with compliant packaging. The compliant package may facilitate configuration of the configurable devices.

Abstract: An example computing device includes a tracking device, an interface, a processor, and a controller. The interface including a power pin, a data pin, and a clock pin, where the interface is to couple the tracking device to the computing device via the power pin and the data pin, and the clock pin is disconnected from the tracking device. The controller is communicatively coupled to the processor and the interface, the controller is to control an operation of the tracking device via the data pin.

Abstract: Methods, systems, and apparatus, including computer programs encoded on a computer storage medium, for rollback resistant security are disclosed. In one aspect, a method, during a boot process of a computing device, includes the actions of obtaining a secret key derived from device-specific information for the computing device. The method further includes verifying that a signature for a software module is valid. The method further includes obtaining information indicating a current version of the software module. The method further includes using the secret key to generate a first encryption key corresponding to the current version of the software module and a second encryption key corresponding to a prior version of the software module. The method further includes preventing future access to the secret key until the computing device is rebooted. The method further includes providing the software module access to the first encryption key and the second encryption key.

Abstract: In an embodiment, a hardware configuration circuit reads and decodes an encoded life-cycle data and provides the decoded life-cycle data to a hardware circuit. A reset circuit monitors an external reset signal received via a reset terminal and, in response to determining that the external reset signal has a first logic level, executes a reset, a configuration, and a wait phase. The reset circuit waits until the external reset signal has a second logic level. A communication interface is activated during the wait phase and configured to receive a request. A hardware verification circuit generates a life-cycle advancement request signal when the request includes a given reference password and a reset circuit is in the wait phase. A write circuit writes a bit of the encoded life-cycle data stored in a non-volatile memory when the life-cycle advancement request signal is set, advancing the life-cycle to a given predetermined life-cycle stage.

Abstract: The present disclosure provides various embodiments of information handling systems and related methods to generate a cryptographic key, which may be used to cryptographically verify information handling system (IHS) platform components and track events associated with the platform components. In the embodiments disclosed herein, a wide variety of platform-related information may be collected from a plurality of system platform components and embedded into a single cryptographic key. Once a cryptographic key is generated, it may be decoded and/or compared with cryptographic key(s) subsequently generated by the IHS to securely verify the system platform components, determine if changes have been made to the system platform components, facilitate system diagnostics and/or perform additional functions.

Abstract: Apparatuses and methods for providing internal power voltages are described. An example apparatus includes a first, second, and third clamp circuits, and a clamp control circuit. The first clamp circuit is configured to receive a first external power voltage and provide a first voltage drop to provide a first internal power voltage. The second clamp circuit is configured to receive the first external power voltage and provide a second voltage drop to provide a second internal power voltage, wherein the first voltage drop is greater than the second voltage drop. The third clamp circuit is configured to receive a second external power voltage and provide the second external power voltage as the second internal power voltage when the second external power voltage is activated. The clamp control circuit is configured to activate the third clamp circuit when the second external power voltage reaches a trigger voltage level.

Abstract: Introduced herein is a computer-implemented system for creating a digital twin of an electrical system using auto-discovery techniques. The system receives power data from meters in an electrical system. For each meter, the system captures a power profile related to a component connected to the meter and creates a set of delta data representing change in power over time. The system detects correlated changes by comparing the sets of delta data and generates a system dataset by combining the sets of delta data. The system detects echoes of power fluctuations of the electrical system from the system dataset. The system creates a digital twin of the electrical system, where the digital twin includes a one-line diagram representing connections between components in the electrical system.

Abstract: Described herein are systems, methods, and software to manage power consumption in a software build environment. In one implementation, a monitoring service monitors power consumption information associated with a build environment for one or more software components. The monitoring service further identifies one or more trends associated with the power consumption information based at least on the power consumption information satisfying one or more criteria and generates a summary for display that indicates at least the one or more trends. The monitoring service may also identify and display as part of the summary one or more suggestions to improve power consumption based on the one or more trends.

Abstract: An initialization geo-locking system includes a chassis housing a location determination subsystem and an initialization management subsystem. During an initialization process that begins in response to receiving initialization power, the initialization management system determines that geo-locking is activated and, in response, causes power to be provided to the location determination subsystem and then subsequently identifies a first current location determined by the location determination subsystem. The initialization management subsystem then determines whether the first current location determined by the location determination subsystem corresponds to an authorized initialization location stored in the initialization management subsystem and, if so, halts the initialization process while, if not, allows the initialization process to complete.

Abstract: A deployment system for IoT including an edge server, multiple gateways, and multiple agent modules is disclosed. Each gateway is respectively connected with different peripheral devices to support different function. The edge server includes a flow editor used to edit a flow for a target gateway. The edge server performs a deploying procedure to the target gateway in accordance with the flow, wherein the deploying procedure is to first read a script and a parameter of one or more function nodes included in the flow, then encapsulate the script and the parameter into a packet, and then transmit the packet to the target gateway through one of the agent modules. The target gateway receives the packet through one of the agent modules and sequentially executes the function nodes according to the content of the flow, so as to implement a corresponding IoT function.

Abstract: A vehicle control apparatus may include a host including a driving application of a vehicle controller and a hardware security module that determines whether to transmit a message for allowing booting of the host to the host, according to a result of a secure boot at an n-th cycle, and determines whether to perform the secure boot at a (n+1)-th cycle, depending on whether the message is transmitted to the host.

Abstract: A method is disclosed for maintaining a current operating state of an enclosure when a controller card of the enclosure is repaired and/or replaced. In one embodiment, such a method maintains, within a controller card of an enclosure, operating parameters used to establish an operating state of the enclosure. The method further offloads, from the controller card while the controller card is installed in the enclosure, the operating parameters to a location external to the controller card. Upon removal of the controller card from the enclosure, the method maintains the operating state of the enclosure using the operating parameters stored in the external location. Upon reinstalling the controller card in the enclosure, the method optionally retrieves the operating parameters from the external location and initializes the controller card with the operating parameters. A corresponding system and computer program product are also disclosed.

Abstract: Example implementations includes a method of partitioning a non-transitory memory device by detecting a boot state of a processing device including a non-transitory memory device, identifying a startup state of the processing device based on the boot state, and partitioning the memory device into at least one secure address region, in accordance with a determination that the startup state satisfies an operating state condition. Example implementations also include a method of generating a secure partition associated with a non-transitory memory device by identifying a target processing instruction restricted to execution at a secure subsystem of a processing device, assigning to the target processing instruction a secure address, associating the secure address with a secure address region of a non-transitory memory device of the processing device, and generating a secure partition table including the secure address.