Control circuits apply customized channel boosting signals to unselected memory cells during read operations.
Separate read timing parameters for configuration data from normal data to reduce errors from process variations and read disturb phenomena.
A semiconductor device manages fuse array operations through distinct control sections for bit lines and word lines.
Peripheral circuit applies equalizing voltage to distinct word line groups during erase operations, ensuring uniform negative boosting across all segments.
A two-stage programming method applies large increment pulses followed by fine adjustments to reach target threshold voltages in flash memory cells.
Soft programming side memory cells reduces leakage current in non-selected blocks by adjusting threshold voltage distribution.
A discovery programming pulse determines the voltage threshold relationship to guide subsequent stepped pulses toward target data states.
Alternating QLC and PLC memory cells in a stack with differentiated program pass voltages to manage electric field stress.
Regulating the common source line prevents bit line coupling noise from locked out strings, ensuring accurate sensing of negative threshold voltages.
A calibration manager detects patterns in optimized read voltage shifts to control subsequent memory sub-system iterations.
A bit-line input synapse array routes data signals through bit lines to drive memory cells in spiking neural network circuits.
Memory controller uses adjusted voltage reads to distinguish charge leakage from soft-programming, enabling targeted repair without worsening data integrity.
A semiconductor memory repair circuit uses e-fuses to selectively program row and column defect addresses for post-package testing.
Applying elevated bit line voltage to odd-numbered storage elements staggers lockout conditions, narrowing threshold voltage distributions.
A page buffer amplifies read margin voltage via a third transistor, reducing execution time for read and verify operations in shrinking memory arrays.
Segmenting the transistor and antifuse regions allows independent optimization, improving programming yield while maintaining CMOS compatibility.
A semiconductor memory device uses an orthorhombic hafnium oxide gate insulating film to maintain distinct polarization states during read operations.
A memory controller adjusts read voltages using a shift amount table to optimize data retrieval operations.
A method controls copy-back operations in flash memory devices using multi-level cells to optimize programming efficiency.
Feedback control terminates overdrive when target voltage is reached, reducing RC delay and power consumption in memory arrays.
Non-volatile memory generates unique encryption keys by measuring access transistor threshold voltage variations as a physical unclonable function.
A laminated dielectric structure with alternating oxygen density layers forms dipole interfaces to shift flat band voltage in NAND flash memory cells.
On-chip valley search operations identify threshold voltage distribution valleys to set optimal read voltages, reducing errors caused by word line coupling.
Variable control voltages from a series of generation units enable the current sensing circuit to detect cell states despite narrowed bit line voltage ranges.
Control logic boosts unselected cell string channel voltage based on program progress to reduce verification time and prevent data loss.
Consecutive verification on precharged bit lines reduces operation time and maintains threshold voltage detection precision despite leakage currents.
A NAND flash programming method uses internal firmware to perform self-verification read operations after multi-step cell programming.
A management system relocates memory blocks to accommodate expanding code components during runtime updates.
A flash memory control circuit executes program verify processes using neighbor cell buffers to manage cell current variations.
A MIS transistor pair stores data using hot carrier injection to trap electrons in the oxide film.
NAND circuit manages voltage supply to reduce gate-source differences, preventing insulation deterioration in P-channel MOS transistors.
A nonvolatile memory method adjusts bit line coupling resistance to page buffers for stable sensing operations.
A cross-coupled read method for resistive memory cells uses differential current comparison to detect data states without fixed references.
An erase suspend count manager tracks suspension frequency to adjust program voltages, reducing over-erasure delays and improving retention.
A differential sensing circuit doubles read margin by comparing erase and program reference cells against matrix data.
A voltage generating circuit produces word line write voltages using stored initial values and dynamic correction factors.
A semiconductor device adjusts erase voltage increments dynamically to optimize threshold levels.
A single poly EEPROM cell uses a voltage divider and access transistors to manage programming voltages.
A sensing circuit employs a dummy bitline to sink a matching leakage current, canceling errors from temperature and process variations.
Segmented sensing operations reduce source bouncing errors during read cycles, maintaining high random access performance in NAND flash memory devices.
Dynamic path selection switches an ADC array between sensing multi-level data and monitoring power noise, reducing device complexity.
A memory device segregates data using variable bit width storage areas within a single chip.
Frequency measurement of internal clock signals detects leakage current, preventing data loss from manufacturing defects.
A tri-transistor memory cell architecture stores two bits using specific threshold voltage configurations to enhance density.
Temporary kick voltages accelerate word line stabilization, reducing RC delay and enabling high-speed read operations in 3D memory arrays.
Sequential programming of page and dummy data segments improves data integrity while managing storage capacity constraints.
A memory controller initializes page buffers simultaneously with address loading to optimize system operations.
Segmented cell strings with dummy memory cells reduce threshold voltage shifts and fail bits caused by program disturb interference.
Loop-dependent charging transitions reduce peak current spikes in NAND flash memory while maintaining programming speed by adapting to parasitic capacitance.
A memory controller counts binary digits from readout page data to determine an optimal read voltage for NAND flash memory.