A method for instantiating and transparently migrating executing containerized processes includes receiving, by a container engine executing on a first machine, an instruction to instantiate a container image on the first machine. The container engine transmits, to a modified container runtime process, executing on the first machine, the instruction to instantiate the container image on the first machine. The modified container runtime process generates, on the first machine, a shim process representing the instantiated container image. The shim process forwards the instruction to an agent executing on a second machine, via a proxy connected to the agent via a network connection. The agent directs instantiation of the container image as a containerized process. A scheduler component executing on the first machine determines to migrate the containerized process to a third machine. The scheduler component directs migration of the containerized process to the third machine, during execution of the containerized process.

In one or more embodiments, one or more systems, one or more methods, and/or one or more processes may: execute a first application within a first operating system (OS) virtualization on a first information handling system (IHS); suspend the first application at a point of execution; determine one or more statuses associated with the first application, in which the one or more statuses includes the point of execution where the first application was suspended; provide the one or more statuses to a second IHS; configure a second application and a second OS virtualization with the one or more statuses associated with the first application within the first OS virtualization; establish input/output associated with the second application with one or more components of the first IHS via the network; and execute the second application within the second OS virtualization on the second IHS at the point of execution.

Technical solutions are described for performing a live update of an operating system. An example method includes cloning an original root volume group associated with an operating system instance executing in a first logical partition to generate a cloned root volume group for booting a second logical partition. The method further includes applying the update to the cloned root volume group, and booting the second logical partition. The method further includes migrating an application instance, from the original root volume group to the second logical partition. The migration includes creating a network tunnel between the first and second logical partitions, and restarting the application instance on the second logical partition. The migration further includes forwarding data directed to the application instance on the first logical partition to the application instance on the second logical partition, and assigning a network address of the first logical partition to the second logical partition.

A remote backup agent that provides restoration services to virtual machines in accordance with one or more embodiments of the invention includes a persistent storage and a processor. The persistent storage stores a resource map. The processor obtains a restoration request for a virtual machine of the virtual machines; identifies a high computing resource availability host that does not host the virtual machine in response to obtaining the restoration request using the resource map; while the virtual machine is exposed, performs a restoration of the virtual machine in the identified high computing resource availability host; migrates the restored virtual machine to a second host that hosts the virtual machine; conceals the virtual machine; and exposes the restored virtual machine.

A computing system that provides virtual computing services may generate and manage remote computing sessions between client computing devices and virtual desktop instances hosted on the service provider's network. A computing resource instance manager may monitor connections to and disconnections from a virtual desktop instance during particular time periods, and may apply a resource management policy to determine whether and when to shut down an underlying virtualized computing resource instance following a disconnection (e.g., immediately, after some period of time, or only between certain hours). A storage volume for the virtual desktop instance may be detached during a shutdown. In response to a reconnection request, the virtualized computing resource instance (or another such instance) may be restarted and the storage volume may be reattached. The computing resource instance manager may develop a model for predicting when to shut down or restart an instance based on historical data or machine learning.

In accordance with embodiments of the present disclosure, a system may include a plurality of slots each configured to receive a modular information handling system, a plurality of air movers each configured to cool at least one modular information handling system disposed in at least one of the plurality of slots, and a controller communicatively coupled to the plurality of slots and the plurality of air movers and configured to, based on one or more thermal operational parameters associated with the plurality of slots and the plurality of air movers, determine an optimal allocation of at least one workload to a particular information handling system of a plurality of modular information handling systems received in the plurality of slots.

A virtual disk and associated methods for facilitating live migration of virtual machines in distributed computing systems are disclosed herein. In one embodiment, a method includes during a live migration of a virtual machine, determining whether a destination virtual disk on a node contains a block of data corresponding to the migrated virtual machine. The method can also include, in response to determining that the destination virtual disk does not contain the block of data, retrieving the block of data from a source virtual disk of the migrated virtual machine, writing the retrieved block of data to one or more empty sectors on the destination virtual disk, and marking the one or more written to sectors containing the block of data as read-only on the destination virtual disk.

Disclosed herein is a method and system for dynamically integrating a plurality of BOTs. The method comprises creating the plurality of BOTs offering one or more automated services, wherein each of the plurality of BOTs has a common BOT structure comprising one or more field parameters. One or more predefined functions are assigned to each of the plurality of BOTs, wherein at least one of the one or more predefined functions comprises a function value. A maturity score for each of the plurality of BOTs is determined based on the one or more field parameters and the function value upon assigning the one or more predefined functions to each of the plurality of BOTs. Finally, the plurality of BOTs are integrated by synchronizing data amongst the plurality of BOTs based on the maturity score.

A plurality of virtual machines are each restored to a previous state, by, for each virtual machine of the plurality, obtaining a first snapshot of an exemplary virtual machine, obtaining a set of local changes of a virtual machine, deriving a snapshot of the virtual machine based at least in part on the first snapshot and the set of local changes, and restoring the virtual machine to a previous state based on the snapshot.

Technical solutions are described for performing a live update of an operating system. An example method includes cloning an original root volume group associated with an operating system instance executing in a first logical partition to generate a cloned root volume group for booting a second logical partition. The method further includes applying the update to the cloned root volume group, and booting the second logical partition. The method further includes migrating an application instance, from the original root volume group to the second logical partition. The migration includes creating a network tunnel between the first and second logical partitions, and restarting the application instance on the second logical partition. The migration further includes forwarding data directed to the application instance on the first logical partition to the application instance on the second logical partition, and assigning a network address of the first logical partition to the second logical partition.