Abstract: Described herein are compositions and methods for use in automotive care. In particular, the present disclosure is directed to water-based compositions comprising a silicone emulsion that are particularly beneficial as a gloss booster, enhancer, and/or sealant.

Abstract: A method of searching shared files stored on a shared storage includes providing a search functionality in the shared storage having a set of search indexes to perform a search based on a search term; providing an event stream of update events associated with the shared files in the shared storage; processing the event stream to generate a processed event stream; and responding to update events in the processed event stream by indexing files referenced in the update events in the processed event stream where the indexing is performed to maintain a predetermined level of quality of service at the shared storage.

Abstract: An improved technique involves proactively adjusting data storage system configuration in response to detecting external events. The improved technique predicts load changes based on historical correlations between events and load changes and directs an administrator to modify system configurations to prepare for the predicted changes in load. Advantageously, the improved technique enables administrators to better prepare for changes in load brought about by external events and thus to better maintain required service levels. Further, the improved technique reduces need for stressful and urgent responses by system administrators.

Abstract: A method of searching shared files stored on a shared storage includes providing a search functionality in the shared storage having a set of search indexes to perform a search based on a search term; providing an event stream of update events associated with the shared files in the shared storage; processing the event stream to generate a processed event stream; and responding to update events in the processed event stream by indexing files referenced in the update events in the processed event stream where the indexing is performed to maintain a predetermined level of quality of service at the shared storage.

Abstract: A method of searching shared files stored on a shared storage includes providing a search functionality in the shared storage having a set of search indexes to perform a search based on a search term; providing an event stream of update events associated with the shared files in the shared storage; processing the event stream to generate a processed event stream; and responding to update events in the processed event stream by indexing files referenced in the update events in the processed event stream where the indexing is performed to maintain a predetermined level of quality of service at the shared storage.

Abstract: Implementations are provided herein relating to augmenting metadata collection within a storage platform. The storage platform can be audited to determine the types of metadata currently being gathered within the storage platform, and the schedule for when that information is gathered. The storage platform can receive a request to generate metadata, compare the requested information with the previously generated and/or scheduled generation of metadata. Rather than redundantly gathering the same metadata via multiple requests, known metadata or scheduled retrieval of known metadata can be used to process portions of the metadata request, and any metadata that was not previously generated can then be separately generated. In this sense, the metadata collection within a storage platform can be augmented to gather additional metadata requested outside the storage platform in an efficient matter that does not unnecessarily increase scanning activity within the storage platform.

Abstract: A method of searching shared files stored on a general purpose shared storage includes receiving a search term in a native search interface of an operating system on a computing device; and performing, on the computing device, a search based on the search term including accessing a search functionality of the general purpose shared storage, wherein the search functionality uses indexes of the shared files stored on the shared storage and updates the indexes of the shared files in response to update events generated from the shared files. In one embodiment, the method performs a federated search based on the search term.

Abstract: A method, article of manufacture, and apparatus for efficiently backing up information are disclosed. In some embodiments, this comprises receiving data and analyzing the data. In some embodiments, the data may be manipulated. In some embodiments, the data may come from multiple sources. Chunk headers, data chunks and chunk maps are then created based on analyzing the data. Chunk headers store the data manipulation technique of the data chunk. In some embodiments, chunk headers store the size of the manipulated and un-manipulated data chunks. The chunk headers, data chunks and chunk maps are then organized into a datastream. The datastream is then stored in a storage device. In some embodiments, the received data may be discarded. In some embodiments, a chunk header is associated with a data chunk.

Abstract: Accordingly a method and interface allows an attribute data base used by an Information Manager to be quickly populated and accurately maintained. A single Bulk Attribute Retrieval Request triggers the primary storage device to collect object attribute information. The method allows for selective collection of objects and attributes by providing filters and attribute lists in the Requests. The Request may be used to provide an incremental scan with appropriate time stamp filtering. In addition, the size of the results can be controlled by the IM by eliminating attributes that are not of interest to the IM. The Request is advantageously issued over a FileMover interface, which is an HTTP connection, and encoded in XML, allowing the IM to easily customize the Request as desired.

Abstract: A method, article of manufacture, and apparatus for efficiently recovering information are disclosed. In some embodiments, this comprises receiving a datastream and analyzing the datastream for chunk headers, data chunks and chunk maps. The chunk headers are then used to determine the data manipulation technique of the data chunks. In some embodiments, the chunk headers contain information about the size of the manipulated and un-manipulated data chunks. Data is then reconstructed from the datastream analysis and data manipulation technique determination. The reconstructed data is then stored in a computer readable medium. In some embodiments, the reconstructed data may be stored in multiple destinations. In some embodiments, the storage of the reconstructed data in multiple destinations may be simultaneous.

Abstract: A hierarchical storage system includes file servers and a policy engine server. Offline attributes are added to file system inodes in a primary file server, file system parameters are added in the primary server, offline read and write access method fields are added to a connection database, and the primary file server uses these attributes and parameters for selecting a particular read method or write method for access to an offline file or section of an offline file. The write methods follow a “write recall full” policy, a “pass-through write” policy, a “pass-through multi-version” policy, or a “directory write pass-through” policy. The pass-through multi-version policy results in a new offline version of a file each time that a client opens and writes to a multi-version file. The directory write pass-through policy results in a new offline file when a file is created within a write pass-through directory.

Abstract: Accordingly a method and interface allows an attribute data base used by an Information Manager to be quickly populated and accurately maintained. A single Bulk Attribute Retrieval Request triggers the primary storage device to collect object attribute information. The method allows for selective collection of objects and attributes by providing filters and attribute lists in the Requests. The Request may be used to provide an incremental scan with appropriate time stamp filtering. In addition, the size of the results can be controlled by the IM by eliminating attributes that are not of interest to the IM. The Request is advantageously issued over a FileMover interface, which is an HTTP connection, and encoded in XML, allowing the IM to easily customize the Request as desired.

Abstract: A protected file is retained in secondary storage for a retention period, and a corresponding stub file is retained in primary storage for the retention period. The stub file retains attributes of the file indicating a location of the file data in the secondary storage and indicting that the stub file is to be retained for the retention period. A system administrator may instruct a primary file server that a secondary file server supports retention based protection and it is desired to protect stub files corresponding to protected files that are migrated to the secondary file server. The primary file server may request the secondary file server to return a protection status of the file after migration. This enables automatic policy-based migration to both file level retention (FLR) and non-FLR retention protected secondary storage from diverse applications accessing FLR or non-FLR files in the primary storage.

Abstract: An intelligent network client has the capability of accessing a first network server in accordance with a first high-level file access protocol, and responding to a redirection reply from the first network server by accessing a second network server in accordance with a second high-level file access protocol. For example, the intelligent network client can be redirected from a CIFS/DFS server to a NFS server, and from an NFSv4 server to a CIFS server. Once redirected, the intelligent network client performs a directory mounting operation so that a subsequent client access to the same directory goes directly to the second network server. For example, the first network server is a namespace server for translating pathnames in a client-server network namespace into pathnames in a NAS network namespace, and the second network server is a file server in the NAS network namespace.

Abstract: A namespace server translates client requests for access to files referenced by pathnames in a client-server namespace into requests for access to files referenced by pathnames in a NAS network namespace. The namespace server also translates between different file access protocols. If a client supports redirection and is requesting access to a file in a file server that supports the client's redirection, then the namespace server may redirect the client to the NAS network pathname of the file. Otherwise, the namespace server forwards a translated client request to the file server, and returns a reply from the file server to the client. A file server may redirect a redirection-capable client's access back to the namespace server for access to a share, directory, or file that is offline for migration, or for a deletion or name change that would require a change in translation information in the namespace server.

Abstract: A namespace server translates client requests for access to files referenced by pathnames in a client-server namespace into requests for access to files referenced by pathnames in a backend NAS network namespace. The namespace server also translates between different file access protocols. The namespace server may change the translation of a client-server network pathname from an old backend NAS network pathname to a new backend NAS network pathname for file migration without disruption to client access during file migration for load balancing or for a more appropriate service level. Client access can also be routed automatically and transparently to replicas in case of server or site failures. The namespace server may create the appearance of a virtual file system that contains multiple physical servers, a virtual share that contains physical shares from different servers, directories that contain files on different servers, and files that contain data from files on different servers.

Abstract: A hierarchical storage system is constructed from file servers and a policy engine server by building upon a file migration service. Offline attributes are added to file system inodes in a primary file server, file system parameters are added in the primary server, an offline read access method field is added to a connection database, and the primary file server is programmed to use these attributes and parameters for selecting a particular method (such as a partial read migration or a pass through read method) for read access to an offline file. In this fashion, the primary file server is provided with flexibility for selecting a particular one of a number of migration methods depending on various conditions, in order to improve the trade-off between the cost of storage and delay in file access.

Abstract: A read-write snapshot copy facility is constructed from a hierarchical storage management facility. The read-write snapshot copy file system initially comprises stub files pointing to the files in a read-only snapshot copy file system. When an application writes to a file in the read-write snapshot copy, the read-write snapshot copy facility migrates a copy of the file to replace the stub file, and then writes to the migrated file. Because the read-write snapshot copy facility references the files in the read-only snapshot file system in a network namespace using standard protocols such as NFS or CIFS, the read-write snapshot copy facility permits referencing of distributed read-only snapshot file systems in an open (heterogeneous) network environment, and the read-write snapshot copy is scalable by linking the read-write snapshot copy facility to multiple file servers containing read-only snapshot file systems.