A single refresh command also reads the mode register, cutting polling overhead, bus congestion, and power in memory systems.
Selective forwarding sends writes around persistent memory to the storage file system, cutting latency while preventing stale data from being served.
Partitioned interleaving, network, and crossbar routing enables non-blocking multi-channel memory access with lower circuit area and power.
Cross-array memory usage feedback adjusts mirrored and unmirrored IO pools to keep remote replication responsive during failover and failback.
Startup trim is executed only when swap usage requires it, preserving flash storage performance without adding unnecessary boot delay.
Multiple wireless protocols are ranked by receipt time so electronic locks discard conflicting lockdown commands and override default plans correctly.
When DRAM defects cluster unevenly across planes, shared cross-plane spare resources improve replacement flexibility and memory yield.
Pre-parsed object metadata enables fast recovery after space reclamation by restoring chunk linkages without restarting log parsing.
Threshold-based write booster flushing avoids unnecessary TLC programming before hibernate, reducing power use and invalid data transfer.
Block-specific control schemes limit write voltage and convert data around not-open strings to protect neighboring cells and improve reliability.
A duplicated copy in chipset-attached memory keeps reads and writes available during system memory reset, removal, or failure.
A storage stack merges data-block and checksum-block reads into one I/O to cut round trips, lower latency, and improve IOPS.
Dual-port RAM and pipeline data reordering cut FFT/IFFT circuit scale, storage demand, and power consumption.
A unified remote store carries sync metadata with each data segment, cutting interconnect traffic and latency while preserving consistency.
Queue bandwidth estimates guide shared buffer allocation so high-bandwidth queues avoid overflow while buffer use stays fair and visible.
Permanent OTP ID storage with guard key verification removes repeated power-up ID assignment and shortens memory module boot time.
Seed units and random units expand AI accelerator primitive tests while cutting build time, execution time, and error analysis effort.
After power cycling, sample-page voltage offsets estimate retention time so read voltages can counter slow charge loss and reduce read failures.
Queue-identifier-based write handling preserves request sequentiality in memory systems, cutting write amplification and garbage collection overhead.
Loopback signaling from memory devices to the PMIC preserves wake-up communication in deactivated states while reducing memory-system power use.
A storage agent updates server data accessibility for the scheduler, automating stateful app recovery and reducing downtime.
Hotness tables identify active SSD regions and move their mapping data closer to the controller, reducing table searches and speeding reads.
Separating expired and active retention-locked segments lets garbage collection reclaim cloud storage without breaking compliance retention.
Rule-based eviction keeps highly deduplicable entries in the on-disk dedupe index while freeing space for new data.
Direct global memory access lets reduction servers read mapped data blocks without network copying, easing shuffle delays and bandwidth limits.
Bluetooth-backed parity storage moves backup data out of volatile SRAM, reducing flash read strain while protecting data integrity.
Identifier mapping lets terminals locate and read nonlocal data across incompatible systems without changing application architectures.
A shared amplifier and selective driver generate standby and active internal voltages with less area and current while keeping bank operations stable.
Persists object indexing across storage zones before memory updates, improving SMR file system recovery, durability, and data integrity.
Virtual layer blocks preserve logical address access for directly flushed non-volatile data while avoiding data copying and handling bad-block errors.
Keeping memory access lines active across consecutive reads avoids discharge and re-activation delays, cutting read latency.
Status input pins and chip enable signals let a memory controller read device status without separate commands, cutting I/O occupancy time.
On-die hidden per-bank refresh lets idle memory banks refresh concurrently, cutting power use while preserving bandwidth under timing limits.
Separate key storage and attribute-based hashing protect sensitive user data even if a server or virtual environment is compromised.
Simultaneous reading of user bits and a preset counter stops the read at the target bit count, improving 3D memory accuracy under cell variation.
A TEA module uses energy signals and user constraints to time backup and garbage collection for lower energy cost without harming data quality.
Single-command all-plane status and virtual ready signals let faster memory planes read out before slower mixed-page planes finish.
A storage proxy switches between erasure coding and temporary replication to keep node-limited clusters available during failures.
Encrypted local buffering and access-rate control protect OTP memory from unauthorized reads and repeated access damage.
Lowering internal DRAM voltage during self-refresh cuts deep-sleep power use while preserving data retention under controller-managed mode changes.
Hash-based duplicate checks and count tables let a storage device reuse identical offloading programs and cut redundant memory use.
By merging less active unit blocks based on IO popularity, this case reduces fragment jitter and improves space release in storage systems.
Separate command and authentication channels let an SSD block unauthorized admin commands while preserving reliable host operations.
Small logical addresses are buffered, grouped, and moved into larger SSD access units to lower write amplification and mapping cache demand.
Modulo-based node grouping enables parallel storage upgrades while keeping replicas in separate groups to maintain data availability.
Disjoint memory column groups with independent access wiring isolate sensitive and non-sensitive data in one compact memory.
Caching indirect blocks inside in-memory journal records avoids small disk I/O during replay, cutting recovery time and client downtime.
An intermediate threshold power state cuts flash memory shutdown latency by avoiding long exit times from higher-power states.
Integrated logic beside memory arrays enables in-place sensing and compute operations, cutting external data transfer, power use, and bandwidth demand.
Synchronizing DRAM requests with refresh and maintenance cycles avoids collisions and keeps latency and bandwidth predictable.