Abstract: Aspects of the disclosure allocate shares of processing resources or other physical resources among virtual machines (VMs) operating as, for example, virtual desktops on a plurality of host computing devices. Allocations of resources are adjusted based on the user activity, VM activity, and/or application activity detected by an agent executing on each VM. Allocated shares may be boosted, unboosted, or normalized, depending on the type and duration of detected activity, by a resource allocation manager executing on a management server.

Abstract: Examples perform creation of a non-persistent virtual machine with a persistent machine identity associated with the user of the virtual machine, to provide consistent virtual desktop sessions to the user. Some examples contemplate that the machine identity is inserted into a virtual machine created through cloning, forking, or from a virtual machine pool.

Abstract: A desktop is unlocked or locked using a mobile client device, such as a smart phone, tablet, smart watch, etc. The authentication mechanism of the mobile client device, such as fingerprint, facial recognition, voice recognition, username and password, is leveraged for faster, less-cumbersome user authentication on the desktop. In this vein, a client device is added to an authentication agent on the desktop, and the desktop recognizes successful attempts to access the mobile client device as a method of unlocking or locking the desktop.

Abstract: Methods, computer-readable storage medium, and systems described herein facilitate provisioning a virtual desktop infrastructure having virtual shared storage. A provisioning manager receives a desktop pool type and provisions virtual shared storage among a cluster of hosts. The provisioning manager configures the virtual shared storage based on the desktop pool type and provisions at least one virtual machine to each host in the cluster of hosts. The provisioning manager optimizes the virtual shared storage by receiving a storage performance benchmark from each host and performing an optimization on the cluster of hosts if the storage performance benchmark results do not meet a threshold within a pre-defined tolerance.

Abstract: Documents or other files opened on a remote desktop are mirrored onto a mobile client device that allows a user to seamlessly work on such documents or files in either a stationary or mobile fashion. The mirrored files may be presented to the user on the mobile client device with the capacity for the user to sign his or her name—or otherwise mark—the mirrored document on the client device. Once signed, various techniques are executed that cause the signed version of the mirrored files to be communicated back to the remote desktop where the signed files are saved. Such techniques may operate transparent to a user, eliminating the need for the user to constantly have to save and transport signed files between multiple devices when working on the go.

Abstract: Embodiments support instant forking of virtual machines (VMs) and state customization. A computing device initiates execution of a first group of services (e.g., identity-independent) in a first VM. A second VM is instantiated from the first VM. The second VM shares memory and storage with the first VM. The computing device customizes the second VM based on configuration data associated with the second VM. A second group of services (e.g., identity-dependent) starts executing on the second VM after configuring the identity of the second VM. Customizing the second VM includes configuring one or more identities of the second VM. In some embodiments, a domain identity is selected from a pool of previously-created identities and applied to the second VM, before bootup completes on the second VM.

Abstract: Methods, computer-readable storage medium, and systems described herein facilitate provisioning a virtual desktop infrastructure having virtual shared storage. A provisioning manager receives a desktop pool type and provisions virtual shared storage among a cluster of hosts. The provisioning manager configures the virtual shared storage based on the desktop pool type and provisions at least one virtual machine to each host in the cluster of hosts. The provisioning manager optimizes the virtual shared storage by receiving a storage performance benchmark from each host and performing an optimization on the cluster of hosts if the storage performance benchmark results do not meet a threshold within a pre-defined tolerance.

Abstract: Embodiments provision and customize virtual machines (VMs), such as desktop VMs, without rebooting the desktop VMs. In response to a request to provision the VMs, a computing device creates a clone VM from a parent VM template identified in the request. One or more customization that prompt rebooting of the clone VM are applied to the clone VM. The computing device instantiates a plurality of child VMs from the customized clone VM. A child VM configuration is applied to at least one of the instantiated child VMs without provoking a reboot of those child VMs.

Abstract: User interface virtualization describes a technique for providing a user with access to one computing device from another computing device, while translating the ergonomics of one computer's user interface style into the ergonomics of the other's. An agent running on a remote desktop exchanges metadata and input events with a corresponding client running on a client device that accepts a “touch and swipe” style input. The agent running on the remote desktop may use an interface interaction API or software framework to programmatically manipulate the user interface of the remote desktop and act as a proxy for the corresponding client. The client constructs and displays native graphical user interface elements at the client device that are virtual representations of a corresponding user interface element at the remote desktop, including file dialogs, clipboards, start menus, and task switchers.

Abstract: Aspects of the disclosure allocate shares of processing resources or other physical resources among virtual machines (VMs) operating as, for example, virtual desktops on a plurality of host computing devices. Allocations of resources are adjusted based on the user activity, VM activity, and/or application activity detected by an agent executing on each VM. Allocated shares may be boosted, unboosted, or normalized, depending on the type and duration of detected activity, by a resource allocation manager executing on a management server.

Abstract: Embodiments provision and customize virtual machines (VMs), such as desktop VMs, without rebooting the desktop VMs. In response to a request to provision the VMs, a computing device creates a clone VM from a parent VM template identified in the request. One or more customization that prompt rebooting of the clone VM are applied to the clone VM. The computing device instantiates a plurality of child VMs from the customized clone VM. A child VM configuration is applied to at least one of the instantiated child VMs without provoking a reboot of those child VMs.

Abstract: User interface virtualization describes a technique for providing a user with access to one computing device from another computing device, while translating the ergonomics of one computer's user interface style into the ergonomics of the other's. An agent running on a remote desktop exchanges metadata and input events with a corresponding client running on a client device that accepts a “touch and swipe” style input. The agent running on the remote desktop may use an interface interaction API or software framework to programmatically manipulate the user interface of the remote desktop and act as a proxy for the corresponding client. The client constructs and displays native graphical user interface elements at the client device that are virtual representations of a corresponding user interface element at the remote desktop, including file dialogs, clipboards, start menus, and task switchers.

Abstract: Examples quickly suspend and resume virtual desktops on demand or on schedule. Virtual desktops, or desktops as a service, are provided to users, where the virtual desktop is a forked VM, cloned VM, or otherwise at least a partial duplicate of an existing VM. The virtual desktop points to existing memory maintained by the existing VM, and the virtual desktop only writes to memory the pages that the virtual desktop creates or modifies.

Abstract: Examples described herein enable memory state sharing among a plurality of virtual machines (VM) including a parent VM and a child VM. A request for memory state sharing between the parent VM and the child VM is received, and the parent VM is suspended. The child VM resumes execution of one or more suspended applications. In one example, the child FM is forked with pre-loaded, suspended applications from the parent VM. Aspects of the disclosure offer a high performance, resource efficient solution that outperforms traditional approaches in areas of software compatibility, stability, quality of service control, re-source utilization, and more.

Abstract: Examples perform creation of a non-persistent virtual machine with a persistent machine identity associated with the user of the virtual machine, to provide consistent virtual desktop sessions to the user. Some examples contemplate that the machine identity is inserted into a virtual machine created through cloning, forking, or from a virtual machine pool.

Abstract: A method of enabling “fast” suspend and “rapid” resume of virtual machines (VMs) employs a cache that is able to perform input/output operations at a faster rate than a storage device provisioned for the VMs. The cache may be local to a computer system that is hosting the VMs or may be shared cache commonly accessible to VMs hosted by different computer systems. The method includes the steps of saving the state of the VM to a checkpoint file stored in the cache and locking the checkpoint file so that data blocks of the checkpoint file are maintained in the cache and are not evicted, and resuming execution of the VM by reading into memory the data blocks of the checkpoint file stored in the cache.

Abstract: User interface virtualization describes a technique for providing a user with access to one computing device from another computing device, while translating the ergonomics of one computer's user interface style into the ergonomics of the other's. An agent running on a remote desktop collaborates with a corresponding client running on a client machine that accepts a “touch and swipe” style input. The agent and client exchange user interface metadata and user interface input events and translate the exchanged information to provide native graphical user interface elements (at the client machine) and simulated user actions (at the remote desktop). The agent running on the remote desktop may use an interface interaction API or library to programmatically manipulate the user interface of the remote desktop responsive and act as a proxy for the corresponding client.

Abstract: In one embodiment, a method includes establishing a session to a remote desktop determined for a user of a client device. The session allows the client device to remotely access the remote desktop to have one or more services performed for the user of the client device using resources of the remote desktop. The client device sends a request for a service in the one or more services to be performed on the remote desktop in the session and receives a result set determined from the service being performed by the remote desktop. A native viewer for the client device is determined based on a type of the result set. The native viewer is then invoked to display the result set.

Abstract: Embodiments described herein rapidly migrate child virtual machines (VM) by leveraging shared memory resources between parent and child VMs. In a first, proactive phase, parent VMs are migrated to a plurality of potential target hosts. In a second, reactive phase, after a request is received to migrate a child VM to a selected target host, memory blocks that are unique to the child VM are migrated to the selected target host. In some examples, memory blocks are compressed and decompressed as needed. In other examples, the operation environment is modified. Aspects of the disclosure offer a high performance, resource efficient solution that outperforms traditional approaches in areas of software compatibility, stability, quality of service control, resource utilization, and more.

Abstract: User interface virtualization describes a technique for providing a user with access to one computing device from another computing device, while translating the ergonomics of one computer's user interface style into the ergonomics of the other's. An agent running on the remote desktop may use an interface interaction API or software framework to programmatically manipulate the user interface of the remote desktop and act as a proxy for a corresponding client running on a client device that accepts a “touch and swipe” style input. A user interface virtualization profile is used to specify application-specific augmentations and application-specific support for the interface interaction API.