Abstract: A method begins by a processing module determining properties of streaming data. The method continues with the processing module determining required dispersed storage resources based on the properties of the streaming data, identifying a plurality of sets of dispersed storage resources, and establishing first error coding dispersed storage function parameters for a first set of dispersed storage resources of the plurality of sets of dispersed storage resources when the required dispersed storage resources requires the plurality of sets of dispersed storage resources. In addition, the method continues with the processing module enabling partitioning of the streaming data into a plurality of data streams and enabling routing of a first data stream of the plurality of data streams to the first set of dispersed storage resources, wherein the first set of dispersed storage resources converts the first data stream into pluralities of error coded data slices.

Abstract: A method begins when a dispersed storage (DS) processing unit of a DS unit has at least one of DS unit operational data and DS unit operating system algorithm to store. The method continues with the DS processing unit encoding at least a portion of the at least one of DS unit operational data and DS unit operating system algorithm in accordance with an error coding dispersal storage function to produce a plurality of data slices. The method continues with the DS processing unit storing at least some of the plurality of data slices in memory devices of the DS unit in accordance with the error coding dispersal storage function.

Abstract: A dispersed storage (DS) unit for use within a dispersed storage network is capable of self-configuring using registry information provided to the DS unit. The registry information includes a slice name assignment indicating a range of slice names corresponding to a plurality of potential data slices of potential data objects to be stored in the DS unit. Based on the registry information, the DS unit allocates a portion of physical memory to store the potential data slices.

Abstract: Game data is received at a dispersed storage processing unit, the game data associated with at least one of a plurality of user devices. The game data is stored in a cache memory associated with the dispersed storage processing unit. Dispersed storage metadata associated with the cached game data is generated. A data block is generated based on the cached game data and further based on the dispersed storage metadata. The data block is stored in a dispersed storage network.

Abstract: A message is generated by a computer operating on a dispersed data storage network indicating the inaccessibility of a plurality of data slices. A rebuilder application operates on the dispersed data storage grid and rebuilds inaccessible data slices, including those identified by the message.

Abstract: A distributed storage network received a data segment. The data segment is partitioned into two or more portions. A first portion hash is calculated from the first portion of data and used to encrypt the second portion of data. A hash of the encrypted second portion of data is then used to either encrypt the next portion of data (in this case, a third portion of data) or to circle back to the beginning and encrypt the first portion of the data if the second portion of data is the last in data segment. This iterative process continues until all portions of the data segment are encrypted in a sequence. In essence, the data portions of the segment are sequentially processed in some order to encrypt the various portions in that progressing order. A reverse order is used to derive the hash values and decrypt the encrypted data portions into decrypted original data to recreate the data segment.

Abstract: A computing device boot-up method begins by a processing module detecting a boot-up of the computing device. The method continues with the processing module addressing a distributed basic input/output system (BIOS) memory to retrieve a plurality of error coded BIOS data slices. The method continues with the processing module reconstructing BIOS data from the plurality of error coded BIOS data slices using an error coding dispersal function. The method continues with the computing device booting up in accordance with the BIOS data.

Abstract: A method begins by a processing module determining whether to error encode broadcast data. The method continues with the processing module encoding a portion of the broadcast data using an error coding storage dispersal function to produce a set of encoded broadcast data slices, determining whether to compress the set of encoded broadcast data slices for the set of encoded broadcast data slices, and when the set of encoded broadcast data slices is to be compressed, selecting a subset of encoded broadcast data slices of the set of encoded broadcast data slices, when the broadcast data is to be error encoded.

Abstract: A method begins by a processing module obtaining a directory file and determining a new snapshot identifier (ID) for the directory file. The method continues with the processing module identifying a version of a filename to associate with the new snapshot ID and updating the directory file by associating the snapshot ID to the version of the filename to produce an updated directory file. The method continues with the processing module dispersed storage error encoding the updated directory file to produce a set of encoded updated directory file slices and sending the set of encoded updated directory file slices to a dispersed storage network (DSN) memory for storage.

Abstract: A method begins by a dispersed storage (DS) processing module receiving a first sub-set of encoded data slices, wherein a data segment of multi-media content was encoded using a dispersed storage error coding function to produce a set of encoded data slices, wherein the set of encoded data slices is partitioned into the first sub-set of encoded data slices and a second sub-set of encoded data slices. The method continues with the DS processing module sending accessing information when the second sub-set of encoded data slices is to be requested. The method continues with the DS processing module receiving, in response to the accessing information, at least one of the encoded data slices of the second sub-set of encoded data slices such that a decode threshold number of encoded data slices have been received.

Abstract: A method begins by a dispersed storage (DS) processing module determining storage device failure information for a plurality of storage devices within a maintenance free storage container, wherein the maintenance free storage container allows for multiple storage devices of the plurality of storage devices to be in a failure mode without replacement and wherein the storage device failure information indicates storage devices of the plurality of storage devices that are in the failure mode. The method continues with the DS processing module maintaining a dynamic container address space of the maintenance free storage container based on the storage device failure information. The method continues with the DS processing module managing mapping of container addresses of the dynamic container address space to dispersed storage network (DSN) addresses of an assigned DSN address range.

Abstract: A method begins by a processing module determining dispersed storage preferences for streaming multi-media data. The method continues with the processing module transcoding the streaming multi-media data into transcoded data when the dispersed storage preferences include transcoding. In addition, the method continues with the processing module encoding the transcoded data in accordance with an error coding dispersed storage function of the dispersed storage preferences to produce pluralities of error coded data slices. In addition, the method continues with the processing module outputting the pluralities of error coded data slices to a plurality of data storage units for storage therein.

Abstract: A method begins by a processing module receiving a plurality of record requests to record a broadcast of data. The method continues with the processing module encoding the data using an error coding dispersal storage function to produce a plurality of sets of encoded data slices. The method continues with the processing module generating a list of requesting device identities corresponding to the plurality of requests and storing the plurality of sets of encoded data slices and the list of requesting device identities in a dispersed storage network memory. The method continues with the processing module receiving a playback request from a device identified in the list of requesting device identities, generating a unique retrieval matrix for the device, and outputting a unique plurality of sets of encoded data slices from the plurality of sets of encoded data slices in accordance with the unique retrieval matrix.

Abstract: A block-based interface to a dispersed data storage network is disclosed. The disclosed interface accepts read and write commands from a file system resident on a user's computer and generates network commands that are forwarded to slice servers that form the storage component of the dispersed data storage network. The slice servers then fulfill the read and write commands.

Abstract: The method begins with a processing unit receiving an encoded slice for storage. The method continues with the processing unit determining whether to store the encoded slice in one of a first set of memory devices or in one of a second set of memory devices based on metadata associated with the encoded slice, wherein the first set of memory devices are continually active and the second set of memory devices are selectively active. The method continues with the processing unit stores the encoded slice in the one of the second set of memory devices when the encoded slice is to be stored in the one of the second set of memory devices. The method continues with the processing unit de-activating the one of the second set of memory devices, in accordance with a deactivation protocol, after storing the encoded slice.

Abstract: A dispersed storage device for use within a dispersed storage network operates to select a set of dispersed storage units for storage of a data object by slicing an encoded data segment of a data object into error coded data slices, determining slice metadata for the error coded data slices, determining memory characteristics of dispersed storage units capable of storing the error coded data slices and selecting the set of dispersed storage units for storing the error coded data slices based on the slice metadata and the memory characteristics.

Abstract: A dispersed storage network includes a dispersed storage device to store data. The dispersed storage device includes a processing module operable to slice a data segment of a data object into data slices, in which the number of data slices corresponds to a number of pillars for storing the data object. The processing module further creates a slice name for each of the data slices. The slice name includes routing information containing a vault identifier that identifies at least one user of the data object and a slice index based on the vault identifier and a pillar identifier that identifies a pillar associated with the data slice. In addition, the slice name includes a source data name containing an identifier of the data object.

Abstract: A dispersed storage device within a dispersed storage network includes a processing module for determining whether to add a new generation for a vault, in which the vault identifies at least one user having data to be stored. When the new generation is to be added to the vault, the processing module further assigns a vault generation identifier to the new generation, assigns a virtual address range of a virtual memory associated with the dispersed storage network to the new generation and maps the virtual address range to a physical memory for storage of the data therein.

Abstract: A method for data transfer from a first computing device to a second computing device begins when the first computing device is paired with a transfer token module by the first computing device sending the data to the transfer token module. The method continues with the transfer token module encoding the data utilizing a dispersed storage error encoding function to produce a set of encoded data slices and sending the set of encoded data slices to a target destination. The method continues, when the second computing device is paired with the transfer token module, with the transfer token module retrieving the set of encoded data slices from the target destination and decoding the set of encoded data slices utilizing the dispersed storage error encoding function to recapture the data. The method continues with the second computing device storing the data.

Abstract: An efficient method for breaking source data into smaller data subsets and storing those subsets along with coded information about some of the other data subsets on different storage nodes such that the original data can be recreated from a portion of those data subsets in an efficient manner.