Firmware switches a register from a faulting device-mapped address to memory, cutting VM-hypervisor I/O overhead and duplicate signals.
A stash hint instruction pushes updated data into another processor's local cache, cutting memory access latency and energy use.
A two-stage context cache and IOTLB lookup uses extended entries to speed I/O address remapping while limiting hardware complexity.
Dirty data is mirrored across controller and shared memories so I/O can continue during power-saving or blocked controller states without data loss.
Segmented pseudo-FIFO tag groups cut allocation stalls in tagged DSP memory, improving bandwidth and throughput across multiple data streams.
A production-state flag cuts dummy data during reflow-sensitive writes, preserving host space and reducing write failures in memory devices.
Obfuscated L2P updates let hosts cache mappings while the controller validates changes to protect data integrity and reduce latency.
When memory regions reach fullness criteria, an internal controller offloads data to storage without host routing, reducing delay and power use.
Borrowed memory is throttled by bandwidth and content criticality, expanding capacity while limiting remote access latency.
A shared page table lets multiple NPU processes keep address translations across switches, improving TLB hit rate and memory efficiency.
By padding queued write data to die-aligned sizes, the memory controller cuts extra read requests and improves storage read efficiency.
Block-state lists let a storage controller reuse full blocks and trigger targeted garbage collection to improve space use and reduce erase wear.
A NIC translates virtual addresses for direct reconfigurable-processor access to external storage, cutting latency and host overhead.
Dynamic SLC policy mapping uses client telemetry, ARIDs, and buffer types to adapt cache replacement rules for better utilization and power management.
Sensor-driven model loading adapts to eyewear state, location, and resources to cut latency while limiting memory and power use.
Hierarchical retrieval and dynamic knowledge integration help LLMs handle long multimodal documents without losing coherence or context.
A unified system region lets the memory controller store mixed system data with mapping-based reuse, freeing more memory for user data.
Encoded maintenance mode commands let memory controllers trigger directed or periodic scrubbing to improve data integrity with less data transfer and power use.
Selective hard- and soft-decision reads by cell region cut memory read latency while preserving error correction in degraded areas.
When internal operations block valid UFS signaling, the device shifts link channels to low-speed mode to cut unnecessary power use.
Host and drive FTL synchronization aligns logical and physical bands to cut write amplification, reduce over-provisioning, and extend SSD life.
Parallel state machines let assigned memory planes process control commands asynchronously, cutting serial waiting time and boosting access efficiency.
Conditional atomic updates and read-count-based cache eviction improve GPU memory consistency and throughput in parallel workloads.
Online streaming models predict changing file access patterns to guide prefetch and migration with higher accuracy and lower compute overhead.
Adaptive memory placement, shared key-value storage, and hierarchical scheduling improve secure multi-agent AI collaboration across heterogeneous hardware.
Switch-port partitioning isolates configurable-unit sets so multiple application graphs run in parallel with faster loading and confined memory access.
Weighted temperature exposure over time triggers timely data migration, reducing retention failures in storage memory.
A shared pooled memory page table lets cluster nodes translate and access shared data without duplicating local page tables.
Periodic stuck-bit counting tracks micro crack growth in nonvolatile memory, enabling chip verification and early isolation of unreliable chips.
Automatic erase suspends are disabled during sanitize commands so memory can erase continuously, cutting latency and improving sanitize reliability.
Descriptor-queue status checks let a storage controller output buffered read data sooner despite uneven memory-device timing.
Packing two physical addresses into one L2P entry cuts table footprint and enables single-command multi-page reads in SRAM-limited memory.
A dual sub-cache stores write-miss data, merges color tags, and controls eviction to cut ECC-related cache latency.
Encrypting pointer address bits and adding authentication values helps block undetected pointer or branch tampering in processing systems.
When spare blocks run low, the memory system reassigns user blocks and migrates data to avoid write-protect mode and extend service life.
Before deleting a low-temperature cache block, hot elements are moved to retained blocks to free space without losing cache performance.
Recursive large-to-small metadata queries cut bandwidth, latency, and compute load during storage live migration.
Dynamic throughput ratio control balances garbage collection and user writes to stabilize free zones and sustain zoned storage performance.
Upstream cacheline encoding and domain masking enable single-key memory encryption to scale across domains with lower latency and fewer cache flushes.
Hot and cold data analysis guides cache and persistent storage reallocation to improve storage utilization, performance, and cost.
Time-series resource data and a scheduling topology graph rebalance cloud storage volumes across capacity and performance dimensions to speed requests.
Encrypted address prefetching hides secret data from speculative memory access while preserving aggressive cache prefetch performance.
Batching valid data by file metadata and aggregating cache-pool writes cuts ZNS garbage collection queries and IOPS while preserving read/write performance.
Periodic sampling tracks page access heat accurately enough to move hot data to near memory and cold data to far memory with lower delay.
Encoded pointers split plaintext and encrypted address bits so speculative TLB access can preserve memory isolation with lower overhead.
Way-mask cache partitioning reserves trusted cache regions, blocks unauthorized access, and mitigates side-channel attacks in multiprocessor systems.
A fixed metadata table in non-volatile memory lets the OS recover heap and stack pages after crashes without extra allocation.
Grouping cached data by hotness intervals and swapping by storage area raises hit rates while cutting cache management overhead.
A DRAM-NAND caching scheme expands persistent memory regions beyond NVDIMM limits while preserving host transparency, persistence, and lower cost.
Balances garbage collection and user write throughput in zoned storage by adjusting bandwidth from garbage and valid data ratios.