Segmenting 3D memory cell strings enables sequential verification that masks residual charges from neighboring layers, reducing erase-verify failures.
Dual FIFO buffers synchronize data output with clock signals, reducing noise and jitter in high-speed semiconductor transfers.
Independent lower gate electrodes improve manufacturing precision and current driving performance while reducing parasitic resistance and leakage current.
A high voltage switch circuit uses depletion mode transistors and a level shifter to transmit driving voltages.
A semiconductor non-volatile memory cell manages data writing by supplying power to charge accumulation portions in descending order of required charge amounts.
A non-volatile memory cell uses a select transistor to control unselected cells and improve programming speed.
Segmented reference cell banks with alternating access circuits mitigate spurious programming drift to maintain threshold voltage separation.
A memory programming method uses flag bits to set threshold voltage ranges during multi-level cell operations.
Segmenting 128-bit columns into partial targets eliminates extra protection circuits, resolving the complexity-speed trade-off.
Multi-level cell flash memory applies segmented hard and soft decision read operations to correct threshold voltage variations and enhance reliability.
An operation control circuit adjusts the charge pump clock cycle based on active plane count to lower current consumption.
A bitwise memory data management method selects between original and inverted data states to minimize programming operations.
Segments program operations and verifies cell states to narrow threshold voltage distribution width, preventing data separation errors.
A semiconductor memory device uses a zigzag cutting structure to isolate gate electrodes within stacked mold layers.
Integrating SOT-MRAM memory with CNN processing units resolves the speed and power trade-off in AI hardware by enabling parallel read operations.
Segmenting erase operations across multiple memory planes prevents simultaneous power spikes while maintaining high data input output performance.
A SONOS byte-erasable EEPROM controller executes refresh operations on unselected memory cells.
A bit line control circuit isolates local and global bit lines during refresh operations to reduce current consumption in semiconductor memory devices.
Cross-coupled pre-charging circuits pull data lines to high voltage levels, reducing sensing time and improving read operation speed.
Big flash cells trim threshold voltages to stabilize wordline levels while cascaded current mirrors reduce impact ionization.
A semiconductor memory sequencer executes read and erase operations in parallel to reduce data retrieval latency.
A capacitive discharge method writes to non-volatile memory by controlling SET current through bit line circuits.
A memory controller variably applies program start voltages to target blocks based on check data status information.
Control circuit shifts threshold voltage distributions to deposit new data over old memory cells, eliminating erase operations that slow programming speed.
Hot hole injection reduces threshold voltages in 3D U-shaped memory pipe cells, stabilizing cell current and preventing deterioration.
A dummy bit line driver buffers noise from the common source line to improve read accuracy and shorten erase voltage timing in flash memory devices.
ALD hermetically seals IGZO channels in vertical wordline drivers, reducing lateral area while supporting super-high voltage operations.
A nonvolatile memory controller updates reference voltages by comparing error counts from original and modified voltage sets to reduce read errors.
Negative well voltage biasing reduces program disturb on unselected cells by creating a protective potential barrier without increasing Vpass voltage.
Mid-material out-diffuses conductivity-enhancing dopants into memory channel cylinders to optimize select-gate transistor threshold voltage.
Periodic programming pulses drive memory cells into saturation, narrowing threshold voltage distributions without reducing programming throughput.
A flash memory serial-to-parallel converter processes data streams to maintain programming efficiency.
A voltage generator applies an erase voltage higher than ground to flash memory layers during erase operations.
A non-volatile memory device uses a leak sense circuit to detect word-line faults.
Replacing gate-oxygen fuses with series diodes reduces OTP memory cell volume, resolving low integration constraints for high-security applications.
Ramp voltage verify operations adjust programming rates to resolve trade-offs between speed and accuracy in multi-level cells.
Control logic separates bit line sensing from cell string operations to detect progressive defects before data loss occurs.
Programs non-volatile memory cells with higher reference voltage before soldering to preserve data retention and endurance against charge loss.
A sense amplifier uses pre-charged bit lines to accelerate detection of minute current differences in magnetic random access memory circuits.
Logic circuits implement specific verify levels for 3-bit and 4-bit modes, resolving the contradiction between storage capacity and data integrity.
A post over-erase correction method uses an auto-adjusting verification mechanism to repair threshold voltages in flash memory cells.
Filtering raw histogram data with weighted averaging identifies local minimums to determine accurate read voltage levels despite noise fluctuations.
Processing units integrated on non-volatile memory chips compute data in-place, eliminating the Von Neumann bottleneck that limits hardware bandwidth.
Dynamic reference level adjustment compensates for shrinking voltage separation in multilevel flash memory cells.
A shared data valid signal line indicates block write and erase completion to the memory controller.
Segmenting buffers into turbo and normal zones resolves the contradiction between high write speed and device complexity in nonvolatile memory.
Segmented intermediate state programming with periodic verification cycles cuts threshold voltage identification time.
A differential sense amplifier detects eFUSE states using a programmable variable resistance device, eliminating reference fuses to improve fuse bay density.