Abstract:
Described is a system comprising: a storage device; a bus; and a host apparatus including a host memory and a driver module, wherein the host apparatus is coupled to the storage device via the bus, wherein the driver module is operable to: retrieve a logical to physical address mapping from the host memory; and provide the logical to physical address mapping to the storage device via the bus along with a read or write operation request. Described is a method comprising: retrieving a logical to physical address mapping from a host memory; and providing the logical to physical address mapping to a storage device via a bus along with a read or write operation request. Described is a machine readable storage medium having instructions stored thereon that, when executed, cause a machine to perform the method described above.
Abstract:
Examples include techniques for managing high priority (HP) and low priority (LP) write transaction requests by a storage device. An embodiment includes receiving, at a storage controller for a storage device, a write transaction request from a requestor to write data to one or more memory devices in the storage device. When the write transaction request is for a high priority (HP) write, coalescing the write data into a transaction buffer in a memory of the storage device, sending an acknowledgment for the write transaction request to the requestor, and writing the write data into the one or more memory devices. When the write transaction request is for a low priority (LP) write, writing the write data into the one or more memory devices, and then sending an acknowledgment for the write transaction request to the requestor.
Abstract:
Technologies for combining logical-to-physical address updates include a data storage device. The data storage device includes a non-volatile memory to store data and a logical to physical (L2P) table indicative of logical addresses and associated physical addresses of the data. Additionally, the data storage device includes a volatile memory to store one or more bins. Each bin is indicative of a subset of entries in the L2P table. Further, the data storage device includes a controller to allocate a bin in the volatile memory, write a plurality of updates to a subset of entries of the L2P table to the bin, and write the bin to the L2P table in a single write operation. Other embodiments are also described and claimed.
Abstract:
Systems, apparatuses and methods may provide for technology that reads a lower page, one or more intermediate pages and a last page from a set of multi-level non-volatile memory (NVM) cells, wherein one or more of a lower read time associated with the lower page or a last read time associated with the last page is substantially similar to an intermediate read time associated with the one or more intermediate pages.
Abstract:
Systems, apparatuses and methods may provide for initiating an erase of a block of non-volatile memory in response to an erase command, wherein the block includes a plurality of sub-blocks. Additionally, a failure of the erase with respect to a first subset of the plurality of sub-blocks may be tracked on an individual sub-block basis, wherein the erase is successful with respect to a second subset of the plurality of sub-blocks. In one example, use of the second subset of the plurality of sub-blocks is permitted, whereas use of the first subset of the plurality of sub-blocks is prevented.
Abstract:
Systems, apparatuses and methods may provide for technology that reads a lower page, one or more intermediate pages and a last page from a set of multi-level non-volatile memory (NVM) cells, wherein one or more of a lower read time associated with the lower page or a last read time associated with the last page is substantially similar to an intermediate read time associated with the one or more intermediate pages.
Abstract:
A hardware acceleration block is configured to process via a dedicated pair of registers, a plurality of commands of each of a plurality of threads received from a compute complex. The hardware acceleration block receives successive commands that are separated by at least an amount of time, from a thread of the plurality of threads. The amount of time is adequate to process a command from the thread.
Abstract:
Examples may include techniques to recover data from a solid state drive (SSD) using exclusive OR (XOR) parity information. Data saved to non-volatile types of block-erasable memory such as NAND memory included in the SSD may be recovered via use of XOR parity information saved to types of write-in-place memory such as a 3-dimensional cross-point memory also included in the SSD.
Abstract:
Systems, apparatuses and methods may provide for initiating an erase of a block of non-volatile memory in response to an erase command, wherein the block includes a plurality of sub-blocks. Additionally, a failure of the erase with respect to a first subset of the plurality of sub-blocks may be tracked on an individual sub-block basis, wherein the erase is successful with respect to a second subset of the plurality of sub-blocks. In one example, use of the second subset of the plurality of sub-blocks is permitted, whereas use of the first subset of the plurality of sub-blocks is prevented.
Abstract:
A controller of a solid state drive initiates a repacking of data stored in a non-volatile memory of the solid state drive, wherein refreshing of the data stored in the non-volatile memory of the solid state drive is performed during the repacking of the data stored in the non-volatile memory of the solid state drive. Logical blocks are placed physically contiguously in an increasing order in pre-erased locations of the non-volatile memory of the solid state drive while the data stored in the non-volatile memory of the solid state drive is being repacked.