Abstract: The method, computer program product and computer system of the present invention may include a computing device that replicates data from a first data storage site, which may have a plurality of data storage tiers, to one or more second data storage sites. The computing device may identify a portion of the data on a first tier of the first data storage site to be inactive and move the inactive data to a second tier of the first data storage site. The computing device may compute a number of slices to slice the inactive data into and a location to store the slices of inactive data using an information dispersal algorithm. The computing device may send the computed number of slices and storage location for the inactive data to the one or more second data storage sites to apply to the data replicated from the first data storage site.

Abstract: The method, computer program product and computer system of the present invention may include a computing device that replicates data from a first data storage site, which may have a plurality of data storage tiers, to one or more second data storage sites. The computing device may identify a portion of the data on a first tier of the first data storage site to be inactive and move the inactive data to a second tier of the first data storage site. The computing device may compute a number of slices to slice the inactive data into and a location to store the slices of inactive data using an information dispersal algorithm. The computing device may send the computed number of slices and storage location for the inactive data to the one or more second data storage sites to apply to the data replicated from the first data storage site.

Abstract: A computer program product is provided for auditing data in object storage. The computer program product comprises a computer readable storage medium having program instructions embodied therewith. The program instructions executable by a processor to cause the processor to:send, by the processor, an object to an object storage system. A directive to audit the object is also sent to the object storage system by the processor. Furthermore, one or more additional directives are sent to the object storage system by the processor. Each of the one or more additional directives are independently selected from the group consisting of: a feedback directive to obtain feedback regarding a progress and/or a status of the audit; and a control directive to start, pause, or stop the audit.

Abstract: A computer program product is provided for auditing data in object storage. The computer program product comprises a computer readable storage medium having program instructions embodied therewith. The program instructions are executable by an object storage system to cause the object storage system to receive a directive to audit an object, and audit the object based on the directive. Additionally, the program instructions are executable by the object storage system to cause the object storage system to generate a result of the audit of the object.

Abstract: A computer-implemented method for indexing metadata which corresponds to data stored in a storage system, according to one embodiment, includes: identifying a subset of metadata stored in a first data store to archive in response to determining that an amount of metadata stored in the first data store has reached a threshold, identifying an index for storing information about the subset of the metadata, executing a sort operation on the subset of the metadata, generating index information corresponding to the subset of the metadata, writing the subset of the metadata to an archive medium, and recording the index information in the identified index. Other systems, methods, and computer program products are described in additional embodiments.

Abstract: Software and resources, pre-deployed in accordance with a disaster recovery policy, are placed in a standby state to provide rapid disaster recovery in a cloud storage environment. When a disaster recovery situation is detected, (for example a loss of access to primary data), the pre-deployed resources are immediately activated according to the disaster recovery policy to provision and re-configure adequate resources and rapidly restore access to the data (such as restoring data from cloud backup storage). A disaster recovery situation may involve, for example, loss of hardware availability, network bandwidth interruption, or a sudden and large unforeseen jump in storage retrieval request volume (for example a recall storm).

Abstract: Software and resources, pre-deployed in accordance with a disaster recovery policy, are placed in a standby state to provide rapid disaster recovery in a cloud storage environment. When a disaster recovery situation is detected, (for example a loss of access to primary data), the pre-deployed resources are immediately activated according to the disaster recovery policy to provision and re-configure adequate resources and rapidly restore access to the data (such as restoring data from cloud backup storage). A disaster recovery situation may involve, for example, loss of hardware availability, network bandwidth interruption, or a sudden and large unforeseen jump in storage retrieval request volume (for example a recall storm).

Abstract: Software and resources, pre-deployed in accordance with a disaster recovery policy, are placed in a standby state to provide rapid disaster recovery in a cloud storage environment. When a disaster recovery situation is detected, (for example a loss of access to primary data), the pre-deployed resources are immediately activated according to the disaster recovery policy to provision and re-configure adequate resources and rapidly restore access to the data (such as restoring data from cloud backup storage). A disaster recovery situation may involve, for example, loss of hardware availability, network bandwidth interruption, or a sudden and large unforeseen jump in storage retrieval request volume (for example a recall storm).

Abstract: A computer-implemented method for managing a tiered storage system having an archive tier and an active storage tier comprises determining a workload for moving data between the active tier and the archive tier; and determining an assignment of data to be stored across the active tier and the archive tier, based on the determined workload.

Abstract: A multi-tiered file locking service provides file locking at the thread and process level, and can optionally include locking at the file system level. A local locking mechanism maintains a list of local locks for threads within a process. When a thread requests a lock for a file, and a local lock is obtained, a process lock for the file may be requested. When no file system locking is used, when the process lock is obtained, the thread receives the lock for the file. When file system locking is used, when the process lock is obtained, a file system lock for the file may be requested. When the file system lock for the file is obtained, the thread receives the lock for the file. The result is a file locking service that functions across threads, processes and nodes in a distributed computing environment.

Abstract: Provided are a computer program product, system, and method for replicating and migrating files to secondary storage sites. Files in a fileset at the primary storage site are migrated to a file container, wherein data for the files migrated to the file container is distributed among the secondary storage sites. File metadata for each of the migrated files is updated to include access information on the migrated file in the file container. Data for the migrated files is deleted in a local storage. The file metadata for the migrated files is replicated to the secondary storage sites over the network to store in filesets at the secondary storage sites without replicating file data for the migrated files to store in the filesets the secondary storage sites.

Abstract: Software and resources, pre-deployed in accordance with a disaster recovery policy, are placed in a standby state to provide rapid disaster recovery in a cloud storage environment. When a disaster recovery situation is detected, (for example a loss of access to primary data), the pre-deployed resources are immediately activated according to the disaster recovery policy to provision and re-configure adequate resources and rapidly restore access to the data (such as restoring data from cloud backup storage). A disaster recovery situation may involve, for example, loss of hardware availability, network bandwidth interruption, or a sudden and large unforeseen jump in storage retrieval request volume (for example a recall storm).

Abstract: Software and resources, pre-deployed in accordance with a disaster recovery policy, are placed in a standby state to provide rapid disaster recovery in a cloud storage environment. When a disaster recovery situation is detected, (for example a loss of access to primary data), the pre-deployed resources are immediately activated according to the disaster recovery policy to provision and re-configure adequate resources and rapidly restore access to the data (such as restoring data from cloud backup storage). A disaster recovery situation may involve, for example, loss of hardware availability, network bandwidth interruption, or a sudden and large unforeseen jump in storage retrieval request volume (for example a recall storm).

Abstract: Software and resources, pre-deployed in accordance with a disaster recovery policy, are placed in a standby state to provide rapid disaster recovery in a cloud storage environment. When a disaster recovery situation is detected, (for example a loss of access to primary data), the pre-deployed resources are immediately activated according to the disaster recovery policy to provision and re-configure adequate resources and rapidly restore access to the data (such as restoring data from cloud backup storage). A disaster recovery situation may involve, for example, loss of hardware availability, network bandwidth interruption, or a sudden and large unforeseen jump in storage retrieval request volume (for example a recall storm).

Abstract: An apparatus for data replication is disclosed. A method and computer program product also perform the functions of the apparatus. In one embodiment, an apparatus includes a replication module configured for replicating, in response to a determination that a received object corresponds to a storage policy, the received object to a data storage node. The apparatus also includes a tagging module configured for marking the received object with a file attribute indicative of the received object being excluded from migration to a cold storage device during the replicating, and removing the file attribute after the replicating. The apparatus may also include a migration module configured for migrating, in response to a determination that the file attribute has been removed, the received object to the cold storage device.

Abstract: A computer-implemented method for indexing metadata which corresponds to data stored in a storage system, according to one embodiment, includes: identifying a subset of metadata stored in a first data store to archive in response to determining that an amount of metadata stored in the first data store has reached a threshold, identifying an index for storing information about the subset of the metadata, executing a sort operation on the subset of the metadata, generating index information corresponding to the subset of the metadata, writing the subset of the metadata to an archive medium, and recording the index information in the identified index. Other systems, methods, and computer program products are described in additional embodiments.

Abstract: An apparatus for data replication is disclosed. A method and computer program product also perform the functions of the apparatus. In one embodiment, an apparatus includes a replication module configured for replicating, in response to a determination that a received object corresponds to a storage policy, the received object to a data storage node. The apparatus also includes a tagging module configured for marking the received object with a file attribute indicative of the received object being excluded from migration to a cold storage device during the replicating, and removing the file attribute after the replicating. The apparatus may also include a migration module configured for migrating, in response to a determination that the file attribute has been removed, the received object to the cold storage device.

Abstract: A charging method and system. The method includes detecting and monitoring by a computer processor, a frequency signal associated with an input voltage signal used for powering power consumption devices at a first specified location. The computer processor generates frequency level data associated with the monitoring. The computer processor receives a request to enable a charging process for charging a rechargeable power source and power source data associated with the rechargeable power source and a user. In response to the request, the computer processor enables a customized charging process associated with charging the rechargeable power source based on the frequency level data and/or the power source data.

Abstract: A multi-tiered file locking service provides file locking at the thread and process level, and can optionally include locking at the file system level. A local locking mechanism maintains a list of local locks for threads within a process. When a thread requests a lock for a file, and a local lock is obtained, a process lock for the file may be requested. When no file system locking is used, when the process lock is obtained, the thread receives the lock for the file. When file system locking is used, when the process lock is obtained, a file system lock for the file may be requested. When the file system lock for the file is obtained, the thread receives the lock for the file. The result is a file locking service that functions across threads, processes and nodes in a distributed computing environment.

Abstract: An application is used, by a processor, to provide directives to a tiered data object storage environment for manipulating and managing stored data objects by using an existing policy developed by a history of directives to intelligently estimate which of the data objects are to be migrated between a higher storage tier and a lower storage tier and at what appropriate time, while refraining from migrating data objects with a pending management operation.