Abstract: Disclosed are various embodiments for integrating an email client with hosted applications. An email is received from an email client. An image that is a component of the email is identified and sent to an optical character recognition (OCR) service. Extracted text is received from the OCR service. A request for an action object is then sent to a connector for an application, the action object representing a potential action that could be performed with the application based on the extracted text from the OCR service. The action object is then sent to the email client, which is configured to display a prompt allowing a user to perform the action represented by the action object.

Abstract: An image of a virtualization software in a plurality of hosts is installed or upgraded by performing the steps of: in response to a user input, generating a software specification that specifies a base image and an add-on image; retrieving metadata of the base image and metadata of the add-on image; generating a desired image of the virtualization software based on the metadata of the base image and the metadata of the add-on image; and instructing each of the hosts to install the desired image of the virtualization software or upgrade a current image of the virtualization software to the desired image of the virtualization software.

Abstract: Container images are fetched in a clustered container host system with a shared storage device. Fetching a first container image in a first virtual machine includes creating a first virtual disk in the shared storage device, storing an image of the first container in the first virtual disk, mounting the first virtual disk to the first virtual machine, and updating a metadata cache to associate the image of the first container to the first virtual disk. Fetching a second container image in a second virtual machine includes checking the metadata cache to determine that a portion of the image of the second container is stored in the first virtual disk, creating a second virtual disk in the shared storage device, adding a reference to the first virtual disk in a metadata of the second virtual disk, and mounting the second virtual disk to the second virtual machine.

Abstract: Disclosed are various examples for threat detection and security for edge devices in communication with Internet-of-Things (IoT) devices. In one example, a profile is associated with a virtual machine of a gateway device. The profile includes an expected behavior for the virtual machine. The virtual machine is executed by a hypervisor of the gateway device. An actual behavior for the virtual machine is determined. A remedial action is performed. The remedial action is based on an anomaly between the expected behavior and the actual behavior.

Abstract: Described are embodiments for management of virtual machines that are executed in one or more hosts. In one example, virtual machines are identified using a search criteria. A graphical user interface is generated with the virtual machines. Each of the plurality of virtual machines is listed in association with an indication of hardware utilized by the virtual machines. An input event is detected that specifies a selected virtual machine. The graphical user interface is updated to show and enable interaction with an operating system executed within the selected virtual machine.

Abstract: Processes for managing computing processes within a plurality of data centers configured to provide a cloud computing environment are described. An exemplary process includes executing a process on a first host of a plurality of hosts. When the process is executing on the first host, a first network identifier associated with the plurality of hosts is not a network identifier of a pool of network identifiers associated with the cloud computing environment and first and second route tables respectively corresponding to first and second data centers of the plurality of data centers associate the first network identifier with the first host. The exemplary process further includes detecting an event associated with the process. In response to detecting the event associated with the process, the first and second route tables are respectively updated to associate the first network identifier with a second host of the plurality of hosts.

Abstract: Methods and apparatus to customize deployment using metaproperties are disclosed. An example deployment metaproperty manager can generate a first metaproperty payload including an application component metaproperty of an application component that provides a logical template of an application. A deployment event broker can reply-back to the deployment metaproperty manager with a second metaproperty payload that includes a processed application component metaproperty.

Abstract: Examples described herein include systems and methods for providing user-specific previews for terms within text. An example method can include receiving tracked user behavior reflecting terms selected by a user and entered into a search. A representation of known words can be created based on the tracked user behavior. By training machine-learning models for each individual user, personalized previews can be presented when each user encounters a new body of text, such as in a webpage or email. The preview can apply to a term not previously known to the user but likely to be searched by the user, relying on content gathered from a search on a search medium that the user was likely to use. The content can be presented to the user in a graphical user interface allowing for interaction and feedback.

Abstract: Methods and apparatus to deploy workload domains in virtual server racks are disclosed. An example apparatus includes a policy manager to determine an availability option and a performance option of the workload domain based on a domain type and determine capacity options based on a user selection of the availability option and a user selection of the performance option by a first user, a deployment manager to identify first ones of a plurality of computing resources to form a placement solution for the workload domain based on the user selection of the availability and performance options, and based on a user selection of one of the determined capacity options by the first user, the plurality of computing resources stored in a resource database accessible by the first user and a second user, and a resource manager to reserve the first ones of the plurality of computing resources to deploy the workload domain for the first user.

Abstract: A system is described for providing more efficient ways to implement attachable writable volumes for capturing write data in virtual desktops. In particular, embodiments described herein leverage a local differencing virtual disk to which write data on a virtual machine is saved, and a background process for syncing the differencing virtual disk with an attachable master writable volume where user data is stored long-term. As a result, in cases where desktop performance would suffer due to limited data transfer speeds between the virtual machine and the master writable volume, the performance penalty caused by write delays is spared by writing the data first to the local differencing virtual disk, and then syncing the master writable volume with the differencing virtual disk in the background.

Abstract: The present disclosure relates to techniques for managing client computing systems, such as a client distributed-computing system. In one embodiment, a desired state of the client distributed-computing system and a current state of the client distributed-computing system are received. Measurement data generated by a plurality of components of the client distributed-computing system is received. The measurement data is processed using one or more analytical or statistical techniques to generate distilled data. Based on one or more policies and the desired state, the distilled data and the current state are analyzed to determine one or more actions predicted to converge the current state of the client distributed-computing system towards the desired state. One or more control commands corresponding to the one or more actions are provided to the client distributed-computing system. The one or more control commands cause the client distributed-computing system to perform the one or more actions.

Abstract: Methods, apparatus, systems, and articles of manufacture to improve packet flow among virtualized servers are disclosed. An example apparatus includes memory, and hardware to execute instructions to generate a load balance list identifying first ones of virtualized network resources having respective values of a utilization status parameter that satisfy a first threshold, in response to at least a number of the first virtualized network resources not satisfying a load balance list threshold, update the load balance list to additionally identify second ones of the virtualized network resources, the second ones of the virtualized network resources having respective values of the utilization status parameter that satisfy a second threshold, the first threshold different from the second threshold, and adjust a policy of a physical hardware resource corresponding to one or more of the virtualized network resources based on the load balance list.

Abstract: Examples described here include systems and methods for refreshing the operating system (“OS”) of a device enrolled in a management platform. Execution of a first command file ensures that necessary components of the management platform residing on the device are stored in a partitioned portion of the device hard drive to preserve them during the OS refresh. After a new instance of the OS has been installed, execution of a second command file migrates the necessary components from the partitioned portion of the hard drive to the new OS instance. When the user logs back into the refreshed device, a third command file installs all necessary device management components at the new OS instance and re-enrolls the device with the management platform. In this manner, the OS of a managed device can be refreshed and re-enrolled in the management platform without significant input from a user or administrator.

Abstract: Example virtual appliances disclosed herein include processor circuitry to accept a resource definition of a custom resource to be executed in a cloud computing environment. Disclosed example virtual appliances also include a lifecycle manager to manage a lifecycle of the custom resource based on a state machine. Disclosed example virtual appliances further include a database to: (i) query the lifecycle manager for a set of operations available to execute in a current lifecycle state of the custom resource; (ii) update a catalog item for the custom resource to present the set of operations available to execute in the current lifecycle state of the custom resource, the catalog item created based on the resource definition of the custom resource; and (iii) in response to selection of a first operation in the set of operations, send a message to cause the processor circuitry to execute the first operation.

Abstract: In some embodiments, a method inserts, by a first computing device, a first value for a capability in a first message that is used in a process to automatically exchange capability values with a second computing device. The first value for the capability indicates the first computing device requires a default route to reach the second computing device as a next hop for sending a packet to a destination. The first computing device sends the first message to the second computing device; and receives a second value for the capability in a second message from the second computing device. The second value indicating the second computing device will send the default route to reach the second computing device. When the default route is received from the second computing device, the first computing device stores the default route from the second computing device in a route table.

Abstract: A computer-implemented method of optimizing a computer resource configuration in a cloud environment to provision an information technology service includes determining performance objectives for a provisioned information technology service. Constraints for the provisioned information technology service based on the determined performance objectives are determined. A desired computer resource configuration to achieve the determined performance objectives for the provisioned information technology service and to meet the determined constraints for the provisioned information technology service is determined. Then a computer resource configuration is compared with the desired resource configuration to determine configuration actions wherein the configuration actions comprise transitioning a computer resource in the computer resource configuration to a new computer resource configuration.

Abstract: Disclosed are various approaches for workflow service back end integration. In some examples, a data request is received. The request is associated with a network service. A single sign-on (SSO) token is received. The SSO token represents a user account authenticated with an identity manager. Authentication data for the network service is identified based on the SSO token. The authentication data can specify an authentication site of the network service. A navigation action is automatically performed on the authentication site. The requested data is received. A command to present on a client device the data is transmitted to the client device.

Abstract: Disclosed are various examples of intelligent provisioning management. In some examples, device configuration signatures are received. Each device configuration signature includes a software configuration that specifies installed applications. A provisioning template is generated based on the configuration signatures. The provisioning template includes a superset of applications specified by a at least a subset of the configuration signatures. A user interface recommends applying the provisioning template to one or more client devices. A request is transmitted to one or more client devices to install an updated provisioning package based on the provisioning template.

Abstract: An example virtualized computing system includes: a host cluster having a virtualization layer directly executing on hardware platforms of hosts, the virtualization layer supporting execution of virtual machines (VMs), the VMs including pod VMs and native VMs, the pod VMs including container engines supporting execution of containers in the pod VMs, the native VMs including applications executing on guest operating systems; an orchestration control plane integrated with the virtualization layer and including a master server and native VM controllers, the master server managing lifecycles of the pod VMs and the native VMs; and management agents, executing in the native VMs, configured to receive decoupled information from the master server through the native VM controllers and to provide the decoupled information for consumption by the applications executing in the native VMs, the decoupled information including at least one of configuration information and secret information.

Abstract: Systems for accessing client data is described. A request to access a first data block is received. The request indicates a first logical address referencing the first data block. First mapping data is employed to identify a first physical addresses corresponding to the first logical addresses. The first mapping data encodes a first LOM transaction ID and candidate local addresses. The first mapping data is employed to identify the candidate local address and the first LOM transaction ID. A usage table is employed to determine the current status of the first LOM transaction ID. The candidate local address is employed to access the first data block. Second mapping data is employed to identify an updated local address of the set of local addresses. The updated local address currently references the first data block. The updated local address is employed to access the first data block.