Abstract: The present disclosure provides an inter-core communication method and apparatus, a computer equipment, and a computer-readable storage medium. The inter-core communication method comprising: transmitting, with respect to at least one interrupt pass-through core configured for an interrupt pass-through mode among a plurality of cores, a physical interrupt directly to a client without going through a Hypervisor in response to the physical interrupt occurring, the Hypervisor being a virtual machine manager, and performing communication between the plurality of cores using a Fast Interrupt Request (FIQ).

Abstract: A method for implementing a virtual machine introspection includes: receiving a read request to access a memory area of a virtual machine through a Hypervisor for data reading; the Hypervisor accessing the memory area of the virtual machine to perform an operation of reading data according to the read request to return an operation result; and reconstructing semantic information based on the operation result, on an apparatus located outside a virtualization system that includes the Hypervisor.

Abstract: The disclosure relates to a scheduling method, a virtual machine monitor, an electronic device and a storage medium. The scheduling method including obtaining running data of a guest operating system running on the virtual machine monitor and/or scheduling information of a first scheduler of the virtual machine monitor and adjusting a parameter of the first scheduler at least based on the obtained running data and/or adjusting a parameter of a second scheduler of the guest operating system at least based on the obtained scheduling information may be provided.

Abstract: A device is deployed with a preset operating system. A booting method of the device includes: performing, by a main processor, at least one first kernel task of a kernel of the preset operating system in a preset initialization phase of the kernel of the preset operating system; and distributing at least one second kernel task of the kernel of the preset operating system to at least one secondary processor for processing. The boot processor and the secondary processor are both processors of the device. The boot processor boots the preset operating system. Tasks of the kernel of the preset operating system in the preset initialization phase are divided into the at least one first kernel task and the at least one second kernel task.

Abstract: A memory access method and device are provided for a Non-Uniform Memory Access (NUMA) system including nodes, each node configured to run a predetermined program and including a preset memory allocated for the predetermined program, where a same global physical address corresponds to each of the preset memories of each of the nodes, respectively, the method including: performing an operation on a first preset memory local to a first node of the nodes when the predetermined program is running on the first node; and synchronizing the operation performed on the first preset memory to each preset memory local to each of the nodes, respectively, where each of the nodes is configured to access its local preset memory using the same global physical address when running the predetermined program on the node.

Abstract: A device is deployed with a preset operating system. A booting method of the device includes: performing, by a main processor, at least one first kernel task of a kernel of the preset operating system in a preset initialization phase of the kernel of the preset operating system; and distributing at least one second kernel task of the kernel of the preset operating system to at least one secondary processor for processing. The boot processor and the secondary processor are both processors of the device. The boot processor boots the preset operating system. Tasks of the kernel of the preset operating system in the preset initialization phase are divided into the at least one first kernel task and the at least one second kernel task.

Abstract: At least one example embodiment of the inventive concepts include an embedded system including processing circuitry configured to execute an extensible hypervisor, the extensible hypervisor including a micro kernel and a virtualization service layer, the micro kernel is configured to provide a virtualization environment for at least one first-type virtual machine, the virtualization service layer is configured to provide a service interface for at least one second-type virtual machine, and the micro kernel is executed at a first privilege layer, and the virtualization service layer is executed at a second privilege layer.