An integrated circuit device may cache configuration data to enable rapid configuration from fabric cache memory. The integrated circuit device may include programmable logic fabric having configuration memory and programmable logic elements controlled by the configuration memory, and sector-aligned memory apart from the programmable logic fabric. A first sector of the configuration memory may be programmed with first configuration data. The sector-aligned memory may include a first sector of sector-aligned memory that may cache the first configuration data while the configuration memory is programmed with the first configuration data a first time. A second sector of sector-aligned memory may cache second configuration data for a second sector of the configuration memory in parallel while the first sector of sector-aligned memory caches the first configuration data for the first sector of the configuration memory.

The present disclosure provides methods, apparatuses, and systems for implementing and operating a memory module, for example, in a computing device that includes a network interface, which is coupled to a network to enable communication with a client device, and processing circuitry, which is coupled to the network interface via a data bus and programmed to perform operations based on user inputs received from the client device. The memory module includes memory devices, which may be non-volatile memory or volatile memory, and a memory controller coupled between the data bus and the of memory devices. The memory controller may be programmed to determine when the processing circuitry is expected to request a data block and control data storage in the memory devices.

A memory device includes a page cache comprising a cache register, a memory array configured with a plurality of memory planes, and control logic, operatively coupled with the memory array. The control logic receives, from a requestor, a cache release command indicating that data associated with a first subset of the plurality of memory planes and pertaining to a previous read command was received by the requestor. Responsive to the cache release command, the control logic returns to the requestor, data from the cache register and associated with a second subset of the plurality of memory planes and pertaining to the previous read command, while concurrently copying data associated with the first subset of the plurality of memory planes and pertaining to a subsequent read command into the cache register.

A distributed storage system, which receives a write request from a client, includes a plurality of computers which receive power supply from a plurality of power supply units. A first computer, among the plurality of computers, which is a computer that receives the write request from the client, is configured to: cache updated data which is at least apart of data accompanying the write request; select n second computers which are n computers (n is a natural number) among computers each receiving power from a power supply unit different from a power supply unit of the first computer as transfer destinations of the updated data; and transfer the updated data to the selected n second computers, respectively. At least one of the n second computers, when caching the updated data from the first computer, is configured to return a result to the first computer.

A request to perform a write operation to write data at a memory sub-system is received. Responsive to the request to perform the write operation, the data is stored at a cache portion of cache memory of the memory sub-system. A duplicate copy of the data is stored at a write buffer portion of cache memory. An entry of the write buffer record is recorded that maps a location of the duplicate copy of the data stored at the write buffer portion to a location of the data stored at the cache portion of the cache memory. A memory operation is performed at the memory sub-system based at least in part on the write buffer record.

Remote cache slots are donated in a storage array without requiring a cache slot starved compute node to search for candidates in remote portions of a shared memory. One or more donor compute nodes create donor cache slots that are reserved for donation. The cache slot starved compute node broadcasts a message to the donor compute nodes indicating a need for donor cache slots. The donor compute nodes provide donor cache slots to the cache slot starved compute node in response to the message. The message may be broadcast by updating a mask of compute node operational status in the shared memory. The donor cache slots may be provided by providing pointers to the donor cache slots.

Techniques described herein relate to systems and methods of data storage, and more particularly to providing layering of file system functionality on an object interface. In certain embodiments, file system functionality may be layered on cloud object interfaces to provide cloud-based storage while allowing for functionality expected from a legacy applications. For instance, POSIX interfaces and semantics may be layered on cloud-based storage, while providing access to data in a manner consistent with file-based access with data organization in name hierarchies. Various embodiments also may provide for memory mapping of data so that memory map changes are reflected in persistent storage while ensuring consistency between memory map changes and writes. For example, by transforming a ZFS file system disk-based storage into ZFS cloud-based storage, the ZFS file system gains the elastic nature of cloud storage.

Systems, apparatuses, and methods related to a computing tile are described. The computing tile may perform operations on received data to extract some of the received data. The computing tile may perform operations without intervening commands. The computing tile may perform operations on data streamed through the computing tile to extract relevant data from data received by the computing tile. In an example, the computing tile is configured to receive a command to initiate an operation to reduce a size of a block of data from a first size to a second size. The computing tile can then receive a block of data from a memory device coupled to the apparatus. The computing tile can then perform an operation on the block of data to extract predetermined data from the block of data to reduce a size of the block of data from a first size to a second size.

A request to perform a write operation to write data at a memory sub-system is received. Responsive to the request to perform the write operation, the data is stored at a cache portion of cache memory of the memory sub-system. A duplicate copy of the data is stored at a write buffer portion of cache memory. An entry of the write buffer record is recorded that maps a location of the duplicate copy of the data stored at the write buffer portion to a location of the data stored at the cache portion of the cache memory. A memory operation is performed at the memory sub-system based at least in part on the write buffer record.

A content provider system includes: a repository to store a catalog of content; a storage device pool to load content from among the catalog of content from the repository into one or more storage devices of the storage device pool; a first hosted device communicably connected to the storage device pool, and to execute the content stored in the storage device pool to provide the content to a first user device; a second hosted device communicably connected to the storage device pool, and to execute the content stored in the storage device pool to provide the content to a second user device; and one or more processing circuits to identify an available storage device from among the one or more storage devices of the storage device pool for serving a requested content to a requesting device from among the first and second hosted devices.