Abstract: Enabling scripting language commands to backup/restore databases is described. A system outputs, to a user interface, a backup/restore option for a database. The system generates scripting language commands based on a selection of the backup/restore option received from the user interface. The system outputs, to the user interface, the scripting language commands based on the selection of the backup/restore option. The system enables a scripting language system to execute the scripting language commands based on the selection of the backup/restore option.

Abstract: In one example, a method includes obtaining cluster and machine configuration information, sending a restore request for one or more machines, and loading a backup of a virtual machine, the backup having been created by a federated backup process involving the physical proxy node, and the virtual machine includes data that resides on a virtual federated database that is an element of a cluster environment and to which respective databases of each of a plurality of nodes of the cluster environment are mapped. Next, the virtual machine is taken offline after the backup of the virtual machine has been loaded, and after the virtual machine has been taken offline, the virtual machine is removed from the node where it resides. The backup of the virtual machine is then restored, and the restored virtual machine brought online, after which the restored virtual machine is enabled as a cluster-wide virtual machine.

Abstract: Described is a system (and method) for leveraging data previously transferred to a cloud-based object storage as part of a failed backup when performing a subsequent backup operation. The system may leverage the native configuration of an object storage that may retain certain data even when a backup operation is classified as a failed operation. To provide such capabilities, the system may store specialized metadata that tracks which backups have failed and metadata indicating which backup data has not been committed. Accordingly, upon a subsequent backup operation, the system may expediently refer to the stored metadata to identify retained backup data that may be reused for the subsequent backup. As a result, the system may improve the efficiency of a backup procedure by reducing the amount of data required to be transferred from the backup source.

Abstract: A method and system for backup processes that includes identifying a target volume and identifying a number of available threads to back up the target volume. The elements in the target volume are distributed among the available threads based on a currently pending size of data in the threads. The elements are stored from each thread into a backup container, and merged from each of the backup containers into a backup volume.

Abstract: A backup manager for providing backup services includes persistent storage and a backup orchestrator. The persistent storage includes protection policies. The backup orchestrator generates a backup for a client based on the protection policies. The backup orchestrator generates an index for the backup. The index specifies a sensitivity level of each portion of the backup. The backup orchestrator stores portions of the backup in regions of a container that correspond to the sensitivity level of the respective portion of the backup. The backup orchestrator stores the container in backup storage.

Abstract: A method for managing file based backups (FBBs) includes obtaining, by a backup agent, a backup request for a FBB, in response to the backup request, generating a FBB, generating a FBB metadata file corresponding to the FBB, wherein the FBB metadata file comprises a set of attribute regions, performing, using the set of attribute regions, a deduplication on the FBB metadata file to obtain a deduplicated FBB metadata file, and storing the deduplicated FBB metadata file in a backup storage system.

Abstract: A backup manager for providing backup services includes persistent storage and a backup orchestrator. The persistent storage includes protection policies. The backup orchestrator generates a backup for a client based on the protection policies; identifies a portion of the backup that includes an allocation scheme; extracts system metadata from the backup using the allocation scheme; generates an index for the backup using the system metadata; and stores the backup and the index in backup storage.

Abstract: A system for providing backup services for limited-access user data includes persistent storage for storing a user data visualization enhanced user data backup and a manager. The manager identifies a backup generation event for limited-access user data based on a protection policy; in response to identifying the backup generation event, obtains fragmented user data from an application that gates access to the limited-access user data; obtains organizational metadata associated with the fragmented user data from the application; makes a determination that the fragmented user data is associated with a user data visualization; in response to making the determination, obtains user data visualization metadata associated with the fragmented user data from the application; and generates the user data enhanced user data backup using the organizational metadata, the user data visualization metadata, and the fragmented user data.

Abstract: A method and system for leveraging file-based backups to facilitate bare-metal recovery (BMR) and/or system-state recovery (SSR) operations. In leading to a BMR operation (which may include, but is not limited to, data protected under a SSR operation), logical groupings of data, each including multiple files and/or directories that span across one or more file-systems, may be written to backup media to comply with data backup, archiving, and/or disaster recovery strategies. Backing up said logical groupings of data relies on block-based backup technologies, which upon requiring a subset of a given logical grouping of data to be restored, makes the restoration process impossible to fulfill since determining which blocks of data belong to which files and/or directories are not tracked. Accordingly, the disclosed method and system propose an intelligent scheme through which file-based backup technology may be employed to enable BMR and/or SSR from any single BMR-compliant backup copy.

Abstract: A method for managing file based backups (FBBs) includes obtaining, by a FBB metadata file manager, a FBB mount request for a FBB mount of a FBB from an application, wherein the application is executing in a production host environment, in response to the FBB mount request, the FBB metadata file manager: identifies a FBB in a backup storage system, obtains a FBB metadata file corresponding to the FBB from the backup storage system, performs an attribute analysis to identify the storage location attributes in the FBB metadata file, stores a FBB virtual file system in the production host environment using the storage location attributes, and enables access to the FBB virtual file system by the application.

Abstract: A method for managing file based backups (FBBs) includes obtaining, by a backup agent, a FBB generation request for a file system at a point in time, in response to the FBB generation request: identifying a target backup storage system in which to store the FBB, identifying a target exposed application programming interface (API) associated with the target backup storage system, generating a FBB corresponding to the FBB generation request, wherein the FBB comprises a FBB metadata file, wherein the FBB is in a common data streaming format (CDSF), generating an API command based on the FBB and the target exposed API, and initiating storage of the FBB in the target backup storage system using the API command.

Abstract: A method for managing file based backups (FBBs) includes obtaining, by a FBB metadata file manager and by an application, a file request for a file stored in a FBB, wherein the FBB is stored in a backup storage system, identifying, using a FBB metadata file of the FBB, a storage location of the file, initiating generation of a temporary storage device, storing a copy of the file in the temporary storage device using the storage location and the FBB, and initiating, after the storing, access to the copy of the file for the application.

Abstract: Described is a system (and method) for size-based organization of backup files within an object storage for efficient object re-tiering. The system may perform a specialized process to re-tier objects stored within an object storage by organizing backup files into individual or shared objects based on a backup file size. Accordingly, the system may initiate a re-tiering of objects immediately after performing an incremental backup to improve storage efficiency while at the same time retaining the ability to synthetically perform a full restore.

Abstract: A method for managing file based backups (FBBs) includes obtaining, by a backup agent, a backup request for a FBB, in response to the backup request, generating a FBB, generating a FBB metadata file corresponding to the FBB, wherein the FBB metadata file comprises a set of attribute regions, performing, using the set of attribute regions, a deduplication on the FBB metadata file to obtain a deduplicated FBB metadata file, and storing the deduplicated FBB metadata file in a backup storage system.

Abstract: Described is a system (and method) for efficient access-based reallocation of backup data stored within an object storage. The system may implement various specialized procedures to efficiently store and manage backup data within the object storage. These procedures may include packing backup data into objects to improve data operation efficiency. The system may also conserve storage space on the object storage by performing an analysis to reallocate backup data as necessary. For example, data may be stored in objects in an immutable manner, and thus, the system may efficiently reallocate data to new objects based on data access patterns. For example, the system may determine an access pattern associated with live data remaining within the first object satisfies a condition, and in response, reallocated the live data to a new object.

Abstract: Described is a system for managing the expiration of objects storing incremental backup data by leveraging specialized metadata. The system may provide a layer of intelligence when freeing up storage space on an object storage to ensure that a full recovery of client backup data may be performed when storing incremental backup data. The system may maintain metadata indicating the latest and/or earliest backups that reference particular objects. The system may then leverage this information to mark particular objects for removal (e.g. deletion or re-tiering). For example, the system may access the metadata to identify which objects stored by a previous (e.g. expired) backup are still referenced by a subsequent (e.g. non-expired) backup. As a result, the system may ensure that objects are not removed prematurely and that a full recovery of the client data to a point-in-time of any incremental backup may be performed.

Abstract: Described is a system (and method) for application-based packing for storing backup data within an object storage. More particularly, the system may efficiently pack backup files into objects having a specialized size by accounting for the source and size of the backup file. For example, the system may determine whether backup files associated with a particular application may be stored within individual objects or packed together within a shared object. Accordingly, by accounting for such criteria the system may perform an intelligent allocation of backup data within a cloud-based object storage. The system may be implemented as part of an incremental backup infrastructure. Accordingly, when allocating the backup files amongst objects, the system may also store specialized metadata to preserve the ability to perform a reconstruction of data (e.g. synthetically) as if a full backup was performed.

Abstract: A method and system for leveraging file-based backups to facilitate bare-metal recovery (BMR) and/or system-state recovery (SSR) operations. In leading to a BMR operation (which may include, but is not limited to, data protected under a SSR operation), logical groupings of data, each including multiple files and/or directories that span across one or more file-systems, may be written to backup media to comply with data backup, archiving, and/or disaster recovery strategies. Backing up said logical groupings of data relies on block-based backup technologies, which upon requiring a subset of a given logical grouping of data to be restored, makes the restoration process impossible to fulfill since determining which blocks of data belong to which files and/or directories are not tracked. Accordingly, the disclosed method and system propose an intelligent scheme through which file-based backup technology may be employed to enable BMR and/or SSR from any single BMR-compliant backup copy.

Abstract: A method for recovering data includes obtaining a recovery request for application data, identifying a backup associated with the recovery request, generating a placeholder disk associated with the backup, generating a template virtual machine associated with the placeholder disk, generating an application-based virtual disk based on the placeholder disk, generating a file extent map based on the recovery request, populating the application-based virtual disk using the backup, the placeholder disk, and the file extent map to obtain a populated application-based virtual disk, replacing the placeholder disk with the populated application-based virtual disk, and after replacing the placeholder disk with the populated application-based virtual disk, initiating a migration of the template virtual machine.

Abstract: The present invention relates to solid oral pharmaceutical compositions comprising dexamethasone or its pharmaceutically acceptable salts or solvates thereof. The present invention also relates to a process for preparing solid oral pharmaceutical compositions comprising dexamethasone or its pharmaceutically acceptable salts or solvates thereof. The preferred drug load in the compositions of the present invention is from about 0.01% to 15% by weight based on the total weight of the composition. The prepared compositions of dexamethasone as per the present invention exhibit desirable technical attributes.