6 results about "Boot disk" patented technology

The application provides a Jetson module automatic flashing and upgrade maintenance method, comprising: constructing a pre-flashing environment, deploying a resource agent service unit on a host end and a server end, automatically synchronizing flashing resources of all types of Jetson modules, constructing an automatic script and an all-type mapping table, and making a start-up disk; connecting the start-up disk and the Jetson device to the host end, identifying the device type, matching the mapping table to obtain the flashing resources, performing full-automatic flashing after patch injection and MD5 check, supporting failure retry and verification after flashing; the server end detects official resource update and pushes upgrade notification to the device, the device downloads the upgrade package through network port breakpoint resume transmission and upgrades in the background, and local reinstallation, user data reservation and system rollback are simultaneously supported. The application realizes batch automatic flashing, remote upgrade and efficient maintenance of the Jetson module, significantly reduces manual intervention, and guarantees system version consistency and deployment reliability.

The application relates to an edge micro server AI computing module system installation method and device and a storage medium. In the application, a hardware communication link between an AI computing module and a COME module in an edge micro server is established, and the edge micro server is connected with a PXE server; the PXE server provides an operating system for the COME module, and a to-be-installed system of the AI computing module is placed in a specified directory of the operating system; the COME module is powered on and started by the PXE server; the COME module after starting creates a simulated boot disk for storing the to-be-installed system by using the to-be-installed system in the specified directory; the simulated boot disk is connected to the AI computing module through the hardware communication link; after the simulated boot disk is created, the AI computing module is powered on and started by the simulated boot disk, and installation of the to-be-installed system in the AI computing module is realized.

This application relates to the field of digital storage technology, providing a method and system for recovering from long-term storage failures in mobile terminals. Through a built-in independent power supply design, the boot disk can continue to supply power even when the mobile terminal is powered off, overcoming the limitations of traditional OTG devices. The storage controller automatically monitors the read / write status of flash memory chip data blocks and generates real-time health reports; when a warning data block is detected, a bidirectional communication protocol is triggered. During the data backup phase, the boot disk employs a layered verification mechanism to generate CRC codes for each data block and stores them centrally, while simultaneously calculating the overall SHA-256 code and synchronizing it across both ends. In the recovery phase, SHA-256 code comparison ensures backup integrity, and CRC code verification verifies data accuracy block by block. Finally, the backup files are automatically migrated to a non-volatile partition. This achieves a seamless closed loop from fault detection to data recovery, addressing the system booting challenges after long-term device storage.

The application provides a GRUB-based disk data protection method, device, equipment and medium, and belongs to the data protection field of a solid state disk. The method comprises the following steps: a first state and a second state are set for a disk, and the disk comprises a customized GRUB program; when the disk is started, the first state is entered, in the first state, the customized GRUB program reads key feature data, and generates a first identity authentication private key according to the key feature data; in the first state, a user data storage area of the disk cannot be accessed; the customized GRUB program verifies the first identity authentication private key, if the first identity authentication private key is verified, the disk is switched to the second state, the user data storage area of the disk is unlocked, and if the identity authentication private key is not verified, the disk remains in the first state. The GRUB-based disk data protection method provided by the application can prevent others from obtaining the data on the disk even if they obtain the disk, and improves the security of the disk.

This application relates to a method, device, system, medium, and product for testing network interface cards (NICs), comprising: after power-on, the test device invokes a pre-boot execution environment function to obtain a network boot loader from a remote boot device and loads and executes it; through the network boot loader, it sends a request carrying its own identification information to a remote storage device, and receives a boot configuration script generated by the remote storage device based on the identification information; it parses and executes the boot configuration script, establishes a connection with the remote storage device through the NVMe-oF protocol based on RDMA network transmission, maps the target NVMe namespace to the test device's NVMe block device as the system boot disk; loads and boots the target operating system, and executes the NIC test tasks. This application can improve NIC testing efficiency and hardware resource utilization.

The application relates to the technical field of spacecraft electronic systems and discloses a multi-stage fault-tolerant starting method for a satellite-borne computer. BOOT The method comprises the following steps: in step 1, a management FPGA reads a BIOS startup source identification bit of a register, and a main BIOS storage address or a backup BIOS storage address is selected according to the identification bit value; in step 2, the management FPGA starts a BIOS-level watchdog timer corresponding to the BIOS storage address, and the timer length is configured by the BIOS register; in step 3, when the BIOS-level watchdog timer times out without receiving a reset signal, the management FPGA modifies the BIOS register of the startup source identification bit, and a system reset signal is generated. WDT The method comprises the following steps: in step 1, a management FPGA reads a BIOS startup source identification bit of a register, and a main BIOS storage address or a backup BIOS storage address is selected according to the identification bit value; in step 2, the management FPGA starts a BIOS-level watchdog timer corresponding to the BIOS storage address, and the timer length is configured by the BIOS register; in step 3, when the BIOS-level watchdog timer times out without receiving a reset signal, the management FPGA modifies the BIOS register of the startup source identification bit, and a system reset signal is generated. BOOT The method comprises the following steps: in step 1, a management FPGA reads a BIOS startup source identification bit of a register, and a main BIOS storage address or a backup BIOS storage address is selected according to the identification bit value; in step 2, the management FPGA starts a BIOS-level watchdog timer corresponding to the BIOS storage address, and the timer length is configured by the BIOS register; in step 3, when the BIOS-level watchdog timer times out without receiving a reset signal, the management FPGA modifies the BIOS register of the startup source identification bit, and a system reset signal is generated. The application takes the management FPGA as a core, combines a dual-BIOS redundancy architecture and a multi-disk hot backup mechanism, solves the problem of system starting single-point failure caused by BIOS firmware code bit flip or starting disk physical damage, realizes autonomous fault-tolerant recovery of firmware and storage media, and improves the defect that the existing single-BIOS single-storage medium architecture cannot self-repair hardware failure.