Abstract: Apparatuses, systems, and methods are disclosed for wear leveling for non-volatile memory. An apparatus may include one or more non-volatile memory elements, and a controller. A controller may perform a wear-leveling process for one or more non-volatile memory elements, by periodically updating a logical-to-physical mapping and moving data based on the updated mapping. A controller may detect a wear-based attack for one or more non-volatile memory elements. A controller may change a wear-leveling process in response to detecting a wear-based attack.

Abstract: Apparatuses, systems, and methods are disclosed for mapping-based wear leveling for non-volatile memory. An apparatus may include one or more non-volatile memory elements, and a controller. A controller may maintain a logical-to-physical mapping for converting logical addresses to physical addresses. A logical-to-physical mapping may include a translation table that associates groups of logical addresses with groups of physical addresses, and one or more mathematical mappings. A mathematical mapping for a group of logical addresses may associate individual logical addresses within the group of logical addresses with individual physical addresses within a corresponding group of physical addresses. A controller may change at least one mathematical mapping. A controller may move data based on at least one changed mapping.

Abstract: A storage system with a controller having a persistent memory interface to local memory is provided. The persistent memory can be used to store a logical-to-physical address table. A logical-to-physical address table manager, local to the controller or remote in a secondary controller, can be used to access the logical-to-physical address table. The manager can be configured to improve bandwidth and performance in the storage system.

Abstract: Apparatuses, systems, and methods are disclosed for mapping-based wear leveling for non-volatile memory. An apparatus may include one or more non-volatile memory elements, and a controller. A controller may maintain a logical-to-physical mapping for converting logical addresses to physical addresses. A logical-to-physical mapping may include a translation table that associates groups of logical addresses with groups of physical addresses, and one or more mathematical mappings. A mathematical mapping for a group of logical addresses may associate individual logical addresses within the group of logical addresses with individual physical addresses within a corresponding group of physical addresses. A controller may change at least one mathematical mapping. A controller may move data based on at least one changed mapping.

Abstract: Read operations are performed in a memory device which efficiently provide baseline read data and recovery read data. In one aspect, on-die circuitry, which is on a die with an array of memory cells, obtains recovery read data before it is requested or needed by an off-die controller. In another aspect, data from multiple reads is obtained and made available in a set of output latches for retrieval by the off-die controller. Read data relative to multiple read thresholds is obtained and transferred from latches associated with the sense circuits to the set of output latches. The read data relative to multiple read thresholds can be stored and held concurrently in the set of output latches for retrieval by the off-die controller.

Abstract: Apparatuses, systems, and methods are disclosed for data availability during temporary inaccessibility of a memory region for memory. An apparatus may include a plurality of memory elements and a controller. A controller may be configured to identify a portion of memory of a plurality of memory elements such that data stored in a portion of memory is temporarily inaccessible and other data stored in other portions of memory in the plurality of memory elements is accessible. A controller may be configured to reconstruct data stored in a portion of memory from other data stored in other portions of memory. A controller may be configured to provide reconstructed data while a portion of an array is temporarily inaccessible.

Abstract: A storage system is provided comprising a memory and a controller. The controller is configured to receive a write command, data, and a logical address; determine a physical address associated with the logical address; generate protection information for the data using the data and at least one of the logical address and physical address; and store the data and the protection information in the memory without storing the at least one of the logical address and physical address in the memory.

Abstract: A non-volatile storage apparatus includes a set of non-volatile memory cells and one or more control circuits in communication with the set of non-volatile memory cells. The one or more control circuits are configured to map the set of non-volatile memory cells into a plurality of regions, apply a first wear leveling scheme in a first region of the plurality of regions, and apply a second wear leveling scheme between the plurality of regions.

Abstract: Apparatuses, systems, methods, and computer program products are disclosed for error reducing matrix generation. An apparatus includes a test circuit that performs a test on a set of memory cells. An apparatus includes a masking circuit that determines a masking array based on a test performed on a set of memory cells. An apparatus includes a decoding circuit that decodes encoded data from a set of memory cells based on a masking array.

Abstract: A storage system with a controller having a persistent memory interface to local memory is provided. The persistent memory can be used to store a logical-to-physical address table. A logical-to-physical address table manager, local to the controller or remote in a secondary controller, can be used to access the logical-to-physical address table. The manager can be configured to improve bandwidth and performance in the storage system.

Abstract: A storage system is provided comprising a memory and a controller. The controller is configured to receive a write command, data, and a logical address; determine a physical address associated with the logical address; generate protection information for the data using the data and at least one of the logical address and physical address; and store the data and the protection information in the memory without storing the at least one of the logical address and physical address in the memory.

Abstract: A storage device with a memory may implement command throttling in order to control power usage. The throttling may be based on modifications of certain memory parameters, such as a reduction in clock rate, bus speed, operating voltage, or command type changes. The throttling may be performed at a back end or memory interface of the storage device such that the memory interface receives un-throttled commands and can optimally throttle all of the commands from the front end.

Abstract: A storage device with a memory may implement command throttling in order to control power usage. The throttling may be based on modifications of certain memory parameters, such as a reduction in clock rate, bus speed, operating voltage, or command type changes. The throttling may be performed at a back end or memory interface of the storage device such that the memory interface receives un-throttled commands and can optimally throttle all of the commands from the front end.