A system on chip (SoC) includes an internal read-only memory (ROM) configured to store a first boot loader; a first internal static random access memory (SRAM) configured to receive a second boot loader output from a booting device, store the second boot loader, and perform a booting sequence according to control of the first boot loader; a second internal SRAM configured to receive a third boot loader output from the booting device, store the third boot loader, and perform a wake-up sequence according to control of the first boot loader; and a dynamic random access memory (DRAM) controller configured to load an operating system (OS) from the booting device into a DRAM according to control of the second boot loader.

An electronic device and a code patching method are provided. The electronic device includes a processor, a read-only memory (ROM), and a one-time programmable (OTP) memory. The ROM stores a boot code, and the boot code includes at least one checkpoint code segment. The OTP memory stores at least one patch code. The processor executes the boot code and queries whether there is a corresponding patch code in the OTP memory when the checkpoint code segment is executed, and if yes, executes the corresponding patch code.

The present disclosure relates to a chip booting control method, a chip, a display panel, and an electronic apparatus. The method is applied to a control circuit of a chip, and the chip further includes a buffer. The method includes: reading first booting information from the buffer in response to a chip triggering non-power-down reset, the first booting information being used to boot the chip; determining whether the first booting information satisfies a first preset condition; and booting the chip according to the first booting information in response to the first booting information satisfying the first preset condition.

A system-on-a-chip sharing a graphics processing unit supporting multi-master is provided. A system on chip (SoC) comprises a plurality of central processing units (CPUs) for executing at least one operating system, a graphics processing unit (GPU) that is connected to each of the plurality of CPUs via a bus interface and communicates with each of the plurality of CPUs, and at least one state monitoring device that is selectively connected to at least one CPU among the plurality of CPUs and transmits execution state information of at least one operating system executed in the connected CPU to the GPU. The GPU is shared by at least one operating system and controls a sharing operation by the at least one operating system based on the execution state information of the at least one operating system.

Methods that boot a secondary operating system (O/S) kernel with reclaimed primary kernel memory are disclosed herein. One method includes booting, via a processor performing a boot algorithm, a secondary kernel for an O/S in response to a primary kernel for the O/S going offline, in which the secondary kernel is configured to be loaded to a reserved memory area. The method further includes reclaiming memory space from the primary kernel for use in booting the secondary kernel in response to a determination that the reserved memory area includes insufficient memory space for completing the boot algorithm. Also disclosed herein are apparatus, systems, and computer program products that can include, perform, and/or implement the methods for providing a secondary kernel that includes a reserved area in memory.

A wearable medical monitoring device includes a plurality of ECG electrodes configured to receive an ECG signal when the wearable medical monitoring device is worn by a patient, and a monitor coupled to the plurality of ECG electrodes. The monitor is configured to detect an impending cardiac event based on the received ECG signal of the patient. The device includes at least one processor configured to execute a plurality of instructions to implement an update manager configured to receive a software update corresponding to the at least one software module for the monitor, determine an event estimation of risk score for a predetermined period of time, cause an installation of the update when the event estimation of risk score indicates a low likelihood of an impending cardiac event, and cause a delay in the installation when the event estimation of risk score indicates a high likelihood of impending cardiac event.

Software configuration deployment techniques for disaggregated computing architectures, platforms, and systems are provided herein. In one example, a method includes presenting a user interface configured to receive instructions related to deployment of software to compute units, and receiving user selections of a software element for deployment to a compute unit comprising a processing element and a storage element. Responsive to the user selections, the method includes instructing a management processor of a communication fabric to deploy the software element for use by the compute unit by at least establishing a first partitioning in the communication fabric between the management processor and the storage element, deploying the software element to the storage element using the first partitioning, de-establishing the first partitioning, and establishing a second partitioning in the communication fabric between the processing element and the storage element comprising the software element, wherein the processing element operates using the software element.

Boot code is loaded to the data storage device controller in a flexible manner by being able to receive chunks of the boot code from two separate locations, the host memory buffer (HMB) and the memory device, which may be a NAND device. Part of the boot code may be received from the HMB and another part of the boot code may be received from the memory device. If either the HMB or the memory device can deliver the chunks faster than the other, then the controller can receive the chunks from the faster location and periodically confirm the speed of delivery to ensure the boot code latency is optimized. The controller is configured to track an HMB turnaround latency and derive whether a next request should be sent to the HMB or the memory device when the data is present in both the HMB and the memory device.

Disclosed herein are network elements for use in a transport network and methods of using the same. The network elements may comprise an embedded device having a processor, a communication device in communication with the processor, a first memory, a second memory, and a third memory. The third memory may store a hybrid boot sequence comprising computer-executable instructions that when executed by the processor of the embedded device cause the embedded device to: determine whether a first kernel image is stored on the first memory; responsive to the determination that the first kernel image is not stored on the first memory, obtain a second kernel image stored on a remote network element; store at least one of the first kernel image and the second kernel image on the second memory as a primary kernel image; and boot the primary kernel image stored on the second memory.

Systems, methods, and non-transitory computer-readable media for a personalized avatar experience during a system boot process.