Abstract: In some implementations, a memory device may detect a first read failure associated with a page type and a memory section of the memory device. The memory device may perform multiple read recovery operations in a first order defined by a first sequence of read recovery operations. The memory device may identify a read recovery operation that results in successful recovery from the first read failure. The memory device may reorder the first sequence of read recovery operations to generate a second sequence of read recovery operations that prioritizes the read recovery operation. The memory device may detect a second read failure associated with the page type and the memory section. The memory device may perform one or more read recovery operations to recover from the second read failure in a second order defined by the second sequence of read recovery operations.

Abstract: Systems and methods are disclosed including a memory device and a processing device operatively coupled to the memory device. The processing device can perform operations comprising performing a media scan on a portion of the memory device to obtain a metrics dataset comprising a plurality of data state metric values; generating, for the metrics dataset, a plurality of data state metric bins comprising a first set of bins having a first bin width and a second set of bins having a second bin width; associating a first data state metric value of the plurality of data state metric values with a first bin of first set of bins, and a second data state metric value of the plurality of data state metric values with a second bin of the second set of bins; and generating a histogram reflecting the data associated with the plurality of data state metric bins.

Abstract: A plurality of memory device life metrics are determined, where one of the plurality of memory device life metrics comprises a read count metric that specifies a number of read operations performed on the memory device. A plurality of normalized metric values are calculated, where each of the normalized metric values is based on a ratio of a respective memory device life metric to a respective lifetime target value associated with the respective memory device life metric. A normalized metric value that satisfies a selection criterion is identified from the plurality of normalized metric values. The identified normalized metric value corresponds to an amount of used device life of the memory device. An amount of remaining device life of the memory device is determined based on the identified normalized metric value. An indication of the amount of remaining device life is provided to a host system.

Abstract: A processing device in a memory sub-system performs a first media scan operation with respect to a plurality of memory pages addressable by the ordinary wordline, wherein each page of the plurality of memory pages is contained by a respective management unit, and responsive to determining that a value of a data state metric of a memory page of the plurality of memory page addressable by the ordinary wordline satisfies a specified condition, performs a first media management operation with respect to a management unit containing the memory page.

Abstract: A processing device in a memory sub-system identifies a read error associated with a block and determines a charge loss value associated with the block. The processing device determines whether the charge loss value is greater than or equal to a charge loss threshold. Responsive to determining the charge loss value is greater than or equal to the charge loss threshold, the block is identified as a healthy block.

Abstract: A difference between a recorded time stamp for a first set of memory cells comprised by an open translation unit (TU) of memory cells and a current time stamp for the open TU is determined, wherein the first set of memory cells comprises a most recently programmed set of memory cells. It is determined, based on a current temperature for the open TU and the difference between the recorded time stamp and the current time stamp, that a second set of memory cells comprised by the open TU is in a coarse programming state. A programming operation is performed on the second set of memory cells using a reduced programming state verify level and a reduced programming state gate step size associated with the second set of memory cells.

Abstract: A method includes performing, over a time period, a quantity of write operations associated with a quad-level cell (QLC) memory block, determining the time period exceeds a threshold time, designating the QLC memory block as a bimodal, determining a voltage threshold level of a last successful read operation associated with the QLC memory block, and setting a read threshold level of at least a portion of the QLC memory block at the voltage threshold level of the last successful read operation.

Abstract: It is determined whether a write disturb capability associated with a first location of a memory device satisfies a threshold criterion. Responsive to determining that the write disturb capability associated with the first location of the memory device satisfies the threshold criterion, a plurality of memory units is remapped to a second location of the memory device, wherein a write disturb capability associated with the second location of the memory device does not satisfy the threshold criterion.

Abstract: An example memory sub-system includes a memory device and a processing device, operatively coupled to the memory device. The processing device is configured to initiate a scan operation on a plurality of block families of the memory device. Each of the plurality of block families is assigned to a voltage offset bin of a plurality of voltage offset bins. The processing device further determines that a number of scan operations to be performed in one scan interval is greater than a maximum number of scan operations to be performed in a scan interval. The processing device further determines based on the voltage offset bins of the plurality of block families and a time elapsed since execution of a previous scan operation of the plurality of block families, a scan priority of each of the plurality of block families, and schedules, based on the scan priority, a scan operation of one or more block families of the plurality of block families during one or more subsequent scan intervals.

Abstract: A difference between a recorded time stamp for a first set of memory cells comprised by an open translation unit (TU) of memory cells and a current time stamp for the open TU is determined, wherein the first set of memory cells comprises a most recently programmed set of memory cells. It is determined, based on a current temperature for the open TU and the difference between the recorded time stamp and the current time stamp, that a second set of memory cells comprised by the open TU is in a coarse programming state. A programming operation is performed on the second set of memory cells using a reduced programming state verify level and a reduced programming state gate step size associated with the second set of memory cells.

Abstract: A request to perform a memory access operation on a plurality of memory cells of a memory device is received. In response to determining that the request is from a host, a first error recovery operation is performed, wherein the first error recovery operation is associated with a first plurality of demarcation voltages. In response to determining that the request is from a controller, a second error recovery operation is performed, wherein the second error recovery operation is associated with a second plurality of demarcation voltages, wherein the second plurality of demarcation voltages comprises a greater number of demarcation voltages than the first plurality of demarcation voltages.

Abstract: A processing device in a memory sub-system identifies a read error associated with a block and initiates a diagnostic memory access operation on the block. The processing device determines whether the diagnostic memory access operation was successfully performed on the block. Responsive to determining the diagnostic memory access operation was successfully performed on the block, the processing device initiates a diagnostic read operation on the block. The processing device determines whether the diagnostic read operation was successfully performed on the block. Responsive to determining the diagnostic read operation was successfully performed on the block, the processing device identifies the block as a healthy block.

Abstract: A processing device, operatively coupled with a memory device, receives a request to perform a programming operation on a first set of a block addressable by a first wordline of a first die of the memory device, wherein the first die comprises a plurality of decks of the memory device. The processing device identifies, based on a predefined usage type associated with the first die, a deck of the plurality of decks for performing the programming operation; and performing the programming operation on a second set of cells of the block addressable by the first wordline residing on the identified deck of the first die.

Abstract: It is determined whether a write disturb capability associated with a first location of a memory device satisfies a threshold criterion. Responsive to determining that the write disturb capability associated with the first location of the memory device satisfies the threshold criterion, a plurality of memory units is remapped to a second location of the memory device, wherein a write disturb capability associated with the second location of the memory device does not satisfy the threshold criterion.

Abstract: A method includes performing, over a time period, a quantity of write operations associated with a quad-level cell (QLC) memory block, determining the time period exceeds a threshold time, designating the QLC memory block as a bimodal, determining a voltage threshold level of a last successful read operation associated with the QLC memory block, and setting a read threshold level of at least a portion of the QLC memory block at the voltage threshold level of the last successful read operation.

Abstract: A processing device in a memory sub-system determines a total power-off time of a memory sub-system and identifies a configurable power-off time threshold for the memory sub-system. The processing device determines whether the total power-off time satisfies a threshold criterion based on the configurable power-off time threshold, responsive to determining that the total power-off time satisfies the threshold criterion, causes the memory sub-system to enter a relaxed block retirement mode of operation.

Abstract: A processing device in a memory sub-system logically closes a block of a memory device to prevent additional program operations from being performed on the block. The processing device further causes one or more wordlines of the block to be programmed with padding data. The one or more wordlines are adjacent to a last wordline of the block programmed before the block was logically closed. In addition, the processing device causes a remaining set of wordlines of the block to be concurrently programmed to a single program state.

Abstract: A request to write data at a memory device is received. Responsive to receiving the request to write the data at the memory device, a first random value and a second random value is determined. Responsive to determining that the first random value does not satisfy a first threshold criterion and the second random value does not satisfy a second threshold criterion, a first write operation mode is selected from a plurality of write operations modes, and a write operation to write the data at the memory device is performed in accordance with the first write operation mode.

Abstract: A processing device in a memory sub-system initiates read operations on each of a plurality of segments in a first region of the memory device during a first time interval, wherein at least a subset of the plurality of segments in the first region of the memory device are storing host data. The processing device further receives, as a result of at least one read operation, at least one data signal from a corresponding one of the plurality of segments in the first region of the memory device, and performs a signal calibration operation using the at least one data signal to synchronize one or more relevant signals with a reference clock signal used by the processing device.

Abstract: In some implementations, a memory device may detect a first read failure associated with a page type and a memory section of the memory device. The memory device may perform multiple read recovery operations in a first order defined by a first sequence of read recovery operations. The memory device may identify a read recovery operation that results in successful recovery from the first read failure. The memory device may reorder the first sequence of read recovery operations to generate a second sequence of read recovery operations that prioritizes the read recovery operation. The memory device may detect a second read failure associated with the page type and the memory section. The memory device may perform one or more read recovery operations to recover from the second read failure in a second order defined by the second sequence of read recovery operations.