Abstract: Memories having a controller configured to perform methods during programming operations including applying a first voltage level to first and second data lines while applying a second, lower, voltage level to first and second select gates connected between the data lines and respective strings of memory cells; decreasing a voltage level of the first data line to a third voltage level; increasing a voltage level of the first select gate to a fourth voltage level; applying a fifth voltage level, higher than the first voltage level, to first and second access lines coupled to memory cells of the strings of memory cells; and increasing a voltage level of the first access line to a sixth voltage level.

Abstract: Memory devices might be configured to perform methods including reading a first page of memory cells and flag data wherein the flag data indicates whether a second page of memory cells adjacent to the first page is programmed, and determining from the flag data whether to re-read the first page of memory cells with an adjusted read voltage; performing a sense operation on memory cells coupled to first data lines of a first array of memory cells and memory cells coupled to data lines of a second array of memory cells, and determining a program indication of memory cells coupled to second data lines from the sense operation performed on the memory cells coupled to the data lines of the second array of memory cells; and/or programming memory cells coupled to first data lines in a first array of memory cells, and programming memory cells coupled to second data lines in the first array of memory cells while programming memory cells coupled to data lines in a second array of memory cells with flag data indicative o

Abstract: Methods include applying a first voltage level to first and second data lines while applying a second, lower, voltage level to first and second select gates connected between the data lines and respective strings of memory cells; decreasing a voltage level of the first data line to a third voltage level; increasing a voltage level of the first select gate to a fourth voltage level; applying a fifth voltage level, higher than the first voltage level, to first and second access lines coupled to memory cells of the strings of memory cells; and increasing a voltage level of the first access line to a sixth voltage level.

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 identifying a target sub-block of NAND strings to be partially or wholly erased in memory and triggering a leakage current condition in one or more target select gate drain-side (SGD) devices associated with the target sub-block. Additionally, the leakage current condition may be inhibited in one or more remaining SGD devices associated with remaining sub-blocks of NAND strings in the memory. In one example, triggering the leakage current condition in the one or more target SGD devices includes setting a gate voltage of the one or more target SGD devices to a value that generates a reverse voltage that exceeds a threshold corresponding to the leakage current condition.

Abstract: Described is an apparatus for converting binary data to ternary and back such that the apparatus comprises: a first look-up table (LUT) having a mapping of 19 binary bits to 12 ternary trits; and a first logic to receive a binary input and to convert the binary input to a ternary output according to the first LUT.

Abstract: A system for facilitating multiple concurrent page reads in a memory array is provided. Memory cells that have multiple programming states (e.g., store multiple bits per cell) rely on various control gate and wordline voltages levels to read the memory cells. Therefore, to concurrently read multiple pages of memory cells, where each page includes one or more different programming levels, a memory controller includes first wordline control logic that includes a first voltage regulator and includes second wordline control logic that includes a second voltage regulator, according to one embodiment. The two voltage regulators enable the memory controller to concurrently address and access multiple pages of memory at different programming levels, in response to memory read requests, according to one embodiment.

Abstract: Apparatuses and methods for performing buffer operations in memory are provided. A method can include storing second page data and third page data on a buffer while programming first page data during a first pass programming operation and programming the second page data and the third page data from the buffer to the array of memory cells during a second pass programming operation.

Abstract: Methods, and apparatuses to erase and or soft program a block of NAND memory may include performing an erase cycle on a block of NAND memory comprising two or more sub-blocks, verifying the two or more sub-blocks until a sub-block fails to verify, stopping the verification in response to the failed verify, performing another erase cycle on the block of NAND memory, and re-starting to verify the two or more sub-blocks at the sub-block that failed to verify

Abstract: Methods for programming sense flags may include programming memory cells coupled to first data lines in a main memory array, and programming memory cells coupled to second data lines in the main memory array while programming memory cells coupled to data lines in a flag memory array with flag data indicative of the memory cells coupled to the second data lines being programmed. Methods for sensing flags may include performing a sense operation on memory cells coupled to first data lines of a main memory array and memory cells coupled to data lines of a flag memory array, and determining a program indication of memory cells coupled to second data lines of the main memory array from the sense operation performed on the memory cells coupled to the data lines of the flag memory array.

Abstract: Apparatuses and methods for performing concurrent memory access operations for multiple memory planes are disclosed herein. An example method may include receiving first and second command and address pairs associated with first and second plane, respectively, of a memory. The method may further include, responsive to receiving the first and second command and address pairs, providing a first and second read voltages based on first and second page type determined from the first and second command and address pair. The method may further include configuring a first GAL decoder circuit to provide one of the first read voltage or a pass voltage on each GAL of a first GAL bus. The method may further include configuring a second GAL decoder circuit to provide one of the second read level voltage signal or the pass voltage signal on each GAL of a second GAL bus coupled to the second memory plane.

Abstract: Apparatuses and methods for performing concurrent memory access operations for multiple memory planes are disclosed herein. An example method may include receiving first and second command and address pairs associated with first and second plane, respectively, of a memory. The method may further include, responsive to receiving the first and second command and address pairs, providing a first and second read voltages based on first and second page type determined from the first and second command and address pair. The method may further include configuring a first GAL decoder circuit to provide one of the first read voltage or a pass voltage on each GAL of a first GAL bus. The method may further include configuring a second GAL decoder circuit to provide one of the second read level voltage signal or the pass voltage signal on each GAL of a second GAL bus coupled to the second memory plane.

Abstract: A memory device is designed to store data in multilevel storage cells (MLC storage cells). The memory device includes a controller that dynamically writes data to the storage cells according to a first MLC density or a second MLC density. The second density is less dense than the first density. For example, the controller can determine to use the first density when there is sufficient write bandwidth to program the storage cells at the first density. When the write throughput increases, the controller can program the same MLC storage cells at the second density instead of the first density, using the same program process and voltage.

Abstract: Technology for an apparatus is described. The apparatus can include a first non-volatile memory, a second non-volatile memory to have a write access time faster than the first non-volatile memory, and a memory controller. The memory controller can be configured to detect corrupted data in a selected data region in the first non-volatile memory. The selected data region can be associated with an increased risk of data corruption after data is written from the second non-volatile memory to the first non-volatile memory. Uncorrupted data in the second non-volatile memory that corresponds to the corrupted data in the first non-volatile memory can be identified. Data recovery in the first non-volatile memory can be performed by replacing the corrupted data in the first non-volatile memory with uncorrupted data from the second non-volatile memory.

Abstract: In one embodiment, an apparatus comprises a storage device comprising a NAND flash memory. The storage device is to receive a read request from a computing host; identify a plurality of pages specified by the read request that are stored in the same group of memory cells of the NAND flash memory, wherein each memory cell of the group of memory cells is to store a bit of each of the plurality of identified pages; and read, in a single read cycle, the plurality of pages from the group of memory cells of the NAND flash memory.

Abstract: Methods, and apparatuses to erase and or soft program a block of NAND memory may include performing an erase cycle on a block of NAND memory comprising two or more sub-blocks, verifying the two or more sub-blocks until a sub-block fails to verify, stopping the verification in response to the failed verify, performing another erase cycle on the block of NAND memory, and re-starting to verify the two or more sub-blocks at the sub-block that failed to verify.

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: Embodiments of the present disclosure may relate to a memory controller that may include a memory interface and a logic circuitry component coupled with the memory interface. In some embodiments, the logic circuitry component is to program one or more NAND cells of a multi-level NAND memory array via the memory interface with a first set of data in a first pass, determine a first temperature of the multi-level NAND memory array in association with the first pass, determine a second temperature of the multi-level NAND memory array, determine a temperature difference between the second temperature and the first temperature, and perform one or more operations based at least in part on a result of the determination of the temperature difference. Other embodiments may be described and/or 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: Provided are techniques for resuming storage die programming after power loss. In response to receipt of an indication of the power loss, data that was to be programmed to multi-level cell NAND blocks are copied to single level cell NAND blocks and a pulse number at which programming was interrupted is stored. In response to receipt of an indication to resume from the power loss, the data is copied from the single level cell NAND blocks to a page buffer, the pulse number is retrieved, and programming of the multi-level cell NAND blocks is resumed at the retrieved pulse number using the data in the page buffer.