Abstract: One or more techniques and/or devices are provided for dynamic resource allocation based upon network flow control. For example, a first counter, corresponding to a count of communication availability signals provided by a network interface to a storage process, may be maintained. A second counter, corresponding to a count of communication unavailability signals provided by the network interface to the storage process, may be maintained. Responsive to the first counter exceeding a resource allocation threshold, additional resources may be dynamically allocated to the storage process during operation of the storage process. Responsive to the second counter exceeding a resource deallocation threshold, resources may be dynamically deallocated from the storage process during operation of the storage process.

Abstract: A system and method for efficiently restoring one or more data containers is provided. A common persistent consistency point image (PCPI) is identified between a source and a destination storage systems prior to the destination storage system performing a rollback operation to the commonly identified PCPI. Differential data is then transmitted from the source storage system in a line efficient manner to the destination storage system.

Abstract: A system and method for efficiently restoring one or more data containers is provided. A common persistent consistency point image (PCPI) is identified between a source and a destination storage systems prior to the destination storage system performing a rollback operation to the commonly identified PCPI. Differential data is then transmitted from the source storage system in a line efficient manner to the destination storage system.

Abstract: One or more techniques and/or devices are provided for dynamic resource allocation based upon network flow control. For example, a first counter, corresponding to a count of communication availability signals provided by a network interface to a storage process, may be maintained. A second counter, corresponding to a count of communication unavailability signals provided by the network interface to the storage process, may be maintained. Responsive to the first counter exceeding a resource allocation threshold, additional resources may be dynamically allocated to the storage process during operation of the storage process. Responsive to the second counter exceeding a resource deallocation threshold, resources may be dynamically deallocated from the storage process during operation of the storage process.

Abstract: One or more techniques and/or devices are provided for dynamic resource allocation based upon network flow control. For example, a first counter, corresponding to a count of communication availability signals provided by a network interface to a storage process, may be maintained. A second counter, corresponding to a count of communication unavailability signals provided by the network interface to the storage process, may be maintained. Responsive to the first counter exceeding a resource allocation threshold, additional resources may be dynamically allocated to the storage process during operation of the storage process. Responsive to the second counter exceeding a resource deallocation threshold, resources may be dynamically deallocated from the storage process during operation of the storage process.

Abstract: One or more techniques and/or devices are provided for dynamic resource allocation based upon network flow control. For example, a first counter, corresponding to a count of communication availability signals provided by a network interface to a storage process, may be maintained. A second counter, corresponding to a count of communication unavailability signals provided by the network interface to the storage process, may be maintained. Responsive to the first counter exceeding a resource allocation threshold, additional resources may be dynamically allocated to the storage process during operation of the storage process. Responsive to the second counter exceeding a resource deallocation threshold, resources may be dynamically deallocated from the storage process during operation of the storage process.

Abstract: One or more techniques and/or devices are provided for dynamic resource allocation based upon network flow control. For example, a first counter, corresponding to a count of communication availability signals provided by a network interface to a storage process, may be maintained. A second counter, corresponding to a count of communication unavailability signals provided by the network interface to the storage process, may be maintained. Responsive to the first counter exceeding a resource allocation threshold, additional resources may be dynamically allocated to the storage process during operation of the storage process. Responsive to the second counter exceeding a resource deallocation threshold, resources may be dynamically deallocated from the storage process during operation of the storage process.

Abstract: One or more techniques and/or devices are provided for dynamic resource allocation based upon network flow control. For example, a first counter, corresponding to a count of communication availability signals provided by a network interface to a storage process, may be maintained. A second counter, corresponding to a count of communication unavailability signals provided by the network interface to the storage process, may be maintained. Responsive to the first counter exceeding a resource allocation threshold, additional resources may be dynamically allocated to the storage process during operation of the storage process. Responsive to the second counter exceeding a resource deallocation threshold, resources may be dynamically deallocated from the storage process during operation of the storage process.

Abstract: A system and method for efficiently restoring one or more data containers is provided. A common persistent consistency point image (PCPI) is identified between a source and a destination storage systems prior to the destination storage system performing a rollback operation to the commonly identified PCPI. Differential data is then transmitted from the source storage system in a line efficient manner to the destination storage system.

Abstract: One or more techniques and/or systems are provided for non-disruptively addressing misalignment between a virtual data format and an underlying data format. Virtual data, such as a guest operating system of a virtual machine, may be stored within a virtual structure, such as a virtual machine disk, according to a virtual data format. The virtual structure may be stored within a storage device according to a storage data format. If misalignment is detected, then a new data container may be created within the storage device. A shim, sized according to a misalignment offset, may be inserted into the new data container in order to align the new data container with the storage device. Virtual data may be migrated from the virtual structure to the new data container to achieve alignment. During the migration, the virtual data may remain available from the virtual structure (e.g., a virtual machine may still execute).