Precomputed access schemes reduce random-memory latency and controller overhead.
Grouped snoop filter instances scale cache tracking without sacrificing presence-vector precision or address capability.
The memory system shifts from broad to temperature-matched voltage models, reducing latency and power consumption during operation.
This case uses stage- and state-dependent sense times in QLC foggy-fine programming to improve efficiency and Vt width control.
A control element selects dedicated or shared storage for graph connections, improving transfer efficiency and freeing CPU resources.
A storage controller detects host capabilities, then adjusts resources and programming parameters to reduce errors and extend endurance.
This memory case uses boundary voltages and bidirectional read-voltage adjustment to limit bit errors from charge and temperature shifts.
A memory device uses larger-range data signaling and smaller-range error detection signaling to limit interference during communication.
This memory case uses a FIFO to prefetch latch data during reads, reducing sequential waiting and improving fetch speed.
This architecture combines on-chip scratchpads with multichannel off-chip DRAM to ease capacity limits and reduce energy use.
Seed-selected bijective matrices scramble logical addresses in memory, strengthening protection while preserving reversible physical access.
A one-time execution analysis assigns output data to reusable fixed memory areas, reducing memory needs and allocation latency.
A host aligns lightweight AI weight files to device channels, enabling parallel loading and faster data transfer.
Blast-mode SRAM reads use column multiplexing and one sense amplifier to cut clock cycles.
An arithmetic-pipeline RMW manager enables coherent shared-memory updates without firmware locks.
Metadata actions move, copy, or reset alongside memory access operations, preserving heat maps and prefetch history.
This case uses stored read-voltage tables and retry history to adapt sequences, improving read efficiency as memory aging changes.
Hard and soft bit reads guide LLR-based shift adjustment, improving data accuracy despite threshold voltage variation.
Vertically stacked sub-blocks use normal and reserved regions to reduce erase complexity and resource demands in high-capacity memory.
A secure SoC version directory detects rollback attacks in external memory.
Clustered user selection and attention-weighted aggregation predict mobile content popularity for proactive edge caching.
Software-programmed memory pooling maps host addresses to non-contiguous local regions, improving flexibility and access latency.
Host capability identifiers let memory systems adjust power policies, balancing storage performance with compatibility across devices.
A shared first memory area and CPU-only second area reduce resource competition while preserving real-time data access.
Reinforcement learning routes analog compute blocks to cut matrix multiplication latency and power.