Abstract: A signal masking circuit includes a receiving circuit, a delay control circuit, and a logical operation circuit. The receiving circuit is configured to: receive a signal to be processed and a chip select (CS) signal, and output an initial processing signal and an initial CS signal. The delay control circuit is configured to perform delay and logical control operations on the initial CS signal to obtain a CS masking signal, where a pulse width of the CS masking signal is greater than or equal to two preset clock periods. The logical operation circuit is configured to perform invalid masking on the initial processing signal according to the CS masking signal to obtain a target signal.

Abstract: A memory is provided. The memory includes a control chip (114) and a plurality of memory chips (100). The plurality of memory chips are electrically connected to the control chip (114) by sharing a channel (01). The plurality of memory chips (100) are configured to adopt the same clock signal, and each of the plurality of memory chips (100) is configured to perform information interaction with the control chip (114) in a different clock state of the clock signal.

Abstract: A semiconductor chip capable of improving signal quality includes a host device, a first memory device which is spaced part from the host device and connected to the host device, a repeater module which is connected to the host device and the first memory device, and a second memory device which is spaced apart from the host device and connected to the repeater module. The first memory device receives a data signal from the host device and generates a recovery clock signal, using the data signal. The repeater module receives the recovery clock signal from the first memory device, receives a first input signal from the host device, and samples the first input signal on the basis of the recovery clock signal to generate a sampling signal. The second memory device receives the sampling signal.

Abstract: The present disclosure generally relates to improved foggy-fine programming. Rather than initially writing to SLC and then later performing a foggy write to QLC with the data read from SLC and then a fine write to QLC with data re-read from SLC, the foggy write to QLC can be performed in parallel to the initial writing to SLC using the same buffer. Once the foggy write to QLC has completed, and the writing to SLC has also completed, the data buffer can be released. The data written in SLC is then be read from SLC and passes through a relocation buffer for the first and only time to then be written using fine programming to QLC. Thus, the data only passes through the relocation buffer one time and the relocation buffer can be freed to usage after only one pass of the data therethrough.

Abstract: A storage device for performing a reliability check by using error correction code (ECC) data is provided. The storage device includes a memory controller configured to detect the number of errors of second read data read out by a second read operation, based on ECC data of first read data read by a first read operation of a memory device. The memory controller includes a memory check circuit that includes a counter configured to count states of memory cells, a comparator configured to compare respective count numbers of the states with one another, and a register configured to store the number of errors based on a result of the comparison.

Abstract: A memory chip, a memory controller, and an operating method of the memory chip are provided. The memory chip includes a plurality of pins; and an interface circuit configured to receive a swap command set from a memory controller through the plurality of pins, obtain a swap command and a swap address from the swap command set, generate a swap enable signal based on the swap command and the swap address, and swap and output a data signal according to the swap enable signal.

Abstract: A memory device includes a page buffer, a voltage generator, and a test controller. The page buffer is connected to a memory cell through a bit line, and is configured to sense a threshold voltage of the memory cell through a potential of a sensing node electrically connected to the bit line. The voltage generator is configured to generate a test voltage to be applied to the sensing node. The test controller is configured to control the voltage generator to apply the test voltage to the sensing node, and detect a defect of the page buffer, based on a leakage current value of the sensing node.

Abstract: The present invention relates to a method of operating memory cells, comprising reading a previous user data from the memory cells; writing a new user data and merging the new user data with the previous user data into write registers; generating mask register information, and wherein the mask register information indicates bits of the previous user data stored in the memory cells to be switched or not to be switched in their logic values; counting numbers of a first logic value and a second logic value to be written using the mask register information, respectively; storing the numbers of the first logic value and the second logic value into a first counter and a second counter, respectively; and applying a programming pulse to the memory cells according to the mask register information.

Abstract: A nonvolatile memory device includes; a memory cell array including a meta data region storing chip-level information, control logic identifying a target cell in response to a command, machine learning (ML) logic inferring an optimum parameter based on the chip-level information and physical information associated with the target cell applied as inputs to an artificial neural network model, and a buffer memory configured to store weight parameters of the artificial neural network model.

Abstract: Disclosed herein is an apparatus that includes first register circuits configured to store a first address, and a comparing circuit configured to compare the first address with a second address. The comparing circuit includes first and second circuit sections. In a first operation mode, the comparing circuit is configured to activate a match signal when the first circuit section detects that the first bit group of the first address matches with the third bit group of the second address and the second circuit section detects that the second bit group of the first address matches with the fourth bit group of the second address. In a second operation mode, the comparing circuit is configured to activate the match signal when the first circuit section detects that the first bit group matches with the third bit group regardless of the second and fourth bit groups.

Abstract: A memory control circuit includes an access storage unit configured to store access requests for a memory, a status management unit configured to, based on the access requests stored in the access storage unit, perform priority access type switching between two access types obtained by classifying the access requests, and an access selection unit configured to select and execute an access request stored in the storage unit. The access selection unit performs, if the priority access type switching is in progress and there is time for executing an access request of a priority access type before the priority access type switching, selecting the access request of the priority access type before the priority access type switching, and if the priority access type switching is not in progress, selecting an access request of the priority access type.

Abstract: Disclosed in some examples are methods, systems, memory devices, machine readable mediums configured to intentionally degrade NAND performance when a value of a NAND health metric indicates a potential for failure to encourage users to replace or backup their devices before data loss occurs. For example, the system may track a NAND health metric and when that metric reaches a predetermined threshold or state, the system may intentionally degrade performance. This performance degradation may be more effective than a warning to effect device backup or replacement.

Abstract: A memory device includes a first data driver configured to send according to a first clock signal a first data to a first data port; a second data driver configured to send according to a second clock signal a second data to a second data port, wherein the second clock signal does not match the first clock signal.

Abstract: Disclosed is a method of performing, at a controller, an access to a memory device, which includes transmitting, at the controller, a first command signal, a first address signal, and a first swizzling signal to the memory device, selecting first data bits stored in a memory cell array of the memory device based on the first command signal and the first address signal, and sequentially outputting, at the memory device, at least a part of the first data bits to the controller in a burst manner, based on the first swizzling signal.

Abstract: A method of operating a resistive memory device to increase a read margin includes applying a write pulse to a memory cell such that the memory cell is programmed to a target resistance state, and applying a post-write pulse to the memory cell to increase a resistance of the memory cell that is in the target resistance state, the post-write pulse being applied as a single pulse having at least n stepped voltage levels, n being an integer equal to or more than 2, and an n-th stepped voltage level of the post-write pulse is set to be lower than a minimum threshold voltage level of the target resistance state that is changed by an (n?1)-th stepped voltage level of the post-write pulse.

Abstract: According to a certain embodiment, the semiconductor integrated circuit includes a plurality of memories and a first control circuit configured to control the plurality of memories. The first control circuit includes a first state transition circuit configured to execute at least one of write control and read control during an operation of the plurality of memories; and a second state transition circuit connected to the first state transition circuit, the second state transition circuit capable of causing the first state transition circuit to sequentially execute tests of the plurality of memories.

Abstract: A bit cell of an SRAM implemented using standard cell design rules includes a write portion and a read portion. The write portion includes a pass gate coupled to an input node of the bit cell and supplies data on the input node to a first node of the bit cell while write word line signals are asserted. An inverter is coupled to the first node and supplies inverted data. A keeper circuit that is coupled to the inverter maintains the data on the first node when the write word line signals are deasserted. The read portion of the bit cell receives read word line signals and the inverted data and is responsive to assertion of the read word line signals to supply an output node of the read portion of the bit cell with output data that corresponds to the data on the first node.

Abstract: A method for performing a read of a flash memory includes storing configuration files for a plurality of RRD-compensating RNNs. A current number of PE cycles for a flash memory are identified and TVSO values are identified corresponding to the current number of PE cycles. A current retention time and a current number of read disturbs for the flash memory are identified. The configuration file of the RRD-compensating RNN corresponding to the current number of PE cycles, the current retention time and current number of read disturbs is selected and is loaded into a neural network engine to form an RNN core in the neural network engine. A neural network operation of the RNN core is performed to predict RRD-compensated TVSO values. The input to the neural network operation includes the identified TVSO values. A read of the flash memory is performed using the predicted RRD-compensated TVSO values.

Abstract: Apparatuses and methods can be related to preventing the activation of rows using fuses in, for example, a memory device or a computing system that includes a memory device. The preventing the activation of rows adjacent to a predefined row address range can reduce the charge leakage from the memory cells comprising the predefined row address range. Reducing the charge leakage from memory cells comprising the predefined row address range can increase stability in data retention.

Abstract: An amplification-based read disturb information determination system includes a storage device coupled to a global read temperature identification system. The storage device amplifies data errors in a first row in its storage subsystem by shifting a first value voltage reference level associated with the first row to provide a second value voltage reference level, reads data stored in bits provided in the first row and error correction information associated with the data, and uses the error correction information to identify a number of the bits that store portions of the data with errors. For the first row and based on the number of bits that store portions of the data with errors, the storage device determines read disturb information and uses it to generate a read temperature for a second row in its storage subsystem that it provides to the global read temperature identification system.