Multiplexing regions utilize unused space adjacent to staircase structures, improving memory die space utilization without increasing manufacturing complexity.
Word drivers apply intermediate inactive voltages to lower current draw during refresh operations.
Sequential power-on control prevents internal logic confusion and reduces power consumption by delaying SRAM activation until core voltages stabilize.
Recycling charge from the plate line reduces power consumption in ferroelectric memory arrays while maintaining stable logic states.
A refresh management system monitors row addresses to identify aggressor rows and selectively skip unnecessary operations.
A content addressable memory using Josephson junctions eliminates static power dissipation by switching from DC voltage to AC current.
A memory I/O interface dynamically switches between finite termination impedance values based on rank access status.
A decision feedback equalizer apparatus detects end-of-transfer signals to stagger internal flip-flop bypasses during idle intervals.
Calibration circuit adjusts internal node loading to resolve smaller differential voltages in amplifier systems.
A refresh timing determination unit compares floating node potentials against reference levels to trigger power switches for oxide semiconductor memory cells.
A power cut-off circuit isolates sense voltage from matchlines when invalid states are stored.
A block decoder uses high-voltage NMOS transistors to control signal potential levels.
A memory controller generates differential chip-select signals using a predetermined resistor to absorb reflections and maintain signal integrity.
A pipe latch circuit uses a division unit and multiplexing unit to generate sequential control signals from source inputs.
Shared read path sampling eliminates transistor mismatch errors to expand the STT MRAM read window accuracy.
A programming method selects set techniques based on bit error ratio values to reduce resistance variability in resistive memory arrays.
A memory system maintains computation accuracy by segmenting arrays into blocks and activating backup neurons to compensate for weight drift.
Segmented row control circuits isolate power supply periods for each memory bank, preventing voltage drops during sequential refresh cycles.