A network switch can be configured using a boot loader after a reset of a controller within the network switch. The boot loader configures switching logic within the network switch prior to an operating system becoming operational. By allowing the boot loader to configure the switching logic, the network switch can become operational as fast as possible.

A device interoperability system for one or more user devices associated with a user, wherein said one or more user devices comprises a first user device, said device interoperability system comprising a communications module, wherein a first connection is established between said first user device and said communications module; storage associated with said device interoperability system and coupled to said communications module, wherein said storage stores an operating system, one or more programs, and data associated with the user, further wherein said operating system is booted by said first user device via said first connection; and one or more processors to support said device interoperability system.

The present embodiments relate to edge attestation of a host node to access a cloud infrastructure environment. A set of authentication data can be obtained from a console for authorization of the host node. The set of authentication data can include a first endorsement key and an authentication policy identifying characteristics of the host node. The host node can send a request for a network address to connect to the cloud infrastructure environment. The host node can generate a second endorsement key and authentication data that can be verified as corresponding to the set of authentication data received from the console. Responsive to validating the second endorsement key and the received host node authentication data, the network address can be provided to the host node that can be used to connect to the cloud infrastructure environment using the network address.

A method of provisioning a self-provisioning computer system is disclosed. The method includes executing code in a secure base activation image to perform various functions. This includes executing an identification process, using a cryptographically created identifier included in the base activation image, with an activation service to confirm an identity of the computer system with the activation service. This further includes confirming system integrity of the computer system with the activation service. Based on confirming the identity of the computer system and confirming system integrity of the computer system, The computer system is unlocked for load installation. Load installation is performed by providing capabilities for the computer system to the activation service and receiving the load based on the provided capabilities.

A system for granular reset management without reboot is disclosed. The system may include a subsystem, a processor including a reset management circuit coupled to the subsystem. The reset management circuit may include circuitry to receive a command to reset the subsystem, determine whether the subsystem can be reset without performing a system wide reboot, and based on a determination that the subsystem can be reset without performing a system wide reboot, block the use of the subsystem, drain the subsystem, and reset the subsystem. Circuity and method are also disclosed.

A computing environment includes multiple client devices that may each be configured to serve a particular function within the computing environment. The client devices are each coupled to a client management server that communicates with and manages functions of the client devices. When a client device first boots, the client management server communicates with the client device over a network in order to provision the client device with an enrollment image. Using the enrollment image, a client device can become enrolled with the client management server. Once enrolled, the client management server can provision the client device with a functional operating system image. The functional operating system image can support device applications that require a restricted number of runtime states within the client device. A new functional operating system image is downloaded from the client management server and installed on the client device each time the device is rebooted.

A network fabric deployment system includes a fabric deployment management system that is coupled to a DHCP server. The fabric deployment management system generates a cloud-based network fabric that is based on a network fabric topology file and that includes a plurality of cloud-based networking devices that are assigned a physical networking device identifier that identifies a corresponding physical networking device. The fabric deployment management system configures and validates each of the plurality of cloud-based networking devices causing each physical networking device identifier being mapped to an IP address at the DHCP server and then retrieves a deployment image file from each of the plurality of cloud-based networking devices that have been configured and validated, and stores each of the deployment image files in a database in association with the physical networking device identifier such that the corresponding physical networking device boots from that deployment image file.

A wireless router receives a firmware update from a remote server, and destructively overwrites router firmware in flash memory in a chunk-wise manner, and then writes a kernel memory before going live with upgraded firmware. Some routers authenticate the firmware image. In some cases, image chunks are re-ordered into an executable order after receipt and before finishing their final arrangement in the flash memory. In some routers, a maximum firmware image size is at least two chunk sizes smaller than the flash memory storage capacity. Some routers remap ROM to RAM memory. Some decompress data from flash into a RAM. Some save text file configuration settings in flash before rebooting. Some detect a user's inactive billing status and redirect a web browser to a billing activation page.

Methods and devices for provisioning a hyper-converged infrastructure of bare metal systems are disclosed herein. Two fabric elements are configured in a master-slave arrangement to ensure high availability. ONIE capable fabric elements may be pre-installed with an operating system as firmware to run open network operating systems, such as Linux. The Linux operating system includes a KVM hypervisor to run virtual machines. An operating system of the virtual machines can access an external network by creating a bridge between switch management ports and a virtual network interface. New node elements may be added by connecting the network ports of the new node element to the fabric elements and booting the new node element in a network/PXE boot mode. The new node element obtains an IP address from a DHCP server and boots an image downloaded from a PXE server.

A method for managing an initiation of a computing system. In an embodiment, the method includes a computer processor detecting that a first computing system receives a request to initiate a second computing system. The method further includes accessing a table that includes information associated with a plurality of storage entities that include bootable OS images, where the plurality of storage entities are included in at least one storage system. The method further includes determining a first storage entity that includes a corresponding instance of a first bootable OS image of the requested second computing system. The method further includes initiating the requested second computing system based, at least in part, on the instance of the bootable OS image of the first storage entity.