Memory Architecture Accessing/Allocation TRIZ Cases

Pre-stored temperature-range parameters let the controller reset settings quickly when search timing is limited, improving storage operation stability.

Routing registers remap host memory addresses to PIM tiles, cutting data movement, power use, and software overhead in memory processing.

Traffic logic predicts response size and paces NIC data requests to keep queues within threshold and prevent congestion.

Address flags and check codes let the controller block invalid nonvolatile memory reads before incorrect data reaches the host.

Hotness-based control switches storage between parallel and cache hierarchies to balance fast access, memory capacity, and management complexity.

Selective refresh masking across DRAM segments cuts power use while cache-backed metadata remapping helps avoid data deterioration.

Program suspend and resume shrink garbage-collection buffer needs in memory systems, reducing power use and NAND wear.

Dual mWCCBs and variable plane programming let SSDs write partial stream data with less volatile buffering, lower latency, and stronger power-loss protection.

Flow-specific queues and acknowledgement-based control let switches react quickly to changing traffic, prevent congestion buildup, and preserve packet order.

Critical app components are scored and loaded into faster memory first, cutting startup delay without overusing scarce memory.

A virtual register extension lets an I2C master read large IR sensor data in one continuous transaction beyond physical map limits.

Additional RAS state enables partial rollback after branch misprediction, preserving nested call returns and reducing pipeline recovery time.

Maps high-access VMs to cooler 3DS DRAM die layers and migrates memory across ranks to prevent thermal runaway and protect bandwidth.

Hardware PCIe address translation and endpoint routing enable scalable multi-chip daisy chains without custom software or driver changes.

Periodic memory-area temperature sensing lets the controller retime reclaim, garbage collection, and trim to protect retention and cut wear.

Hardware-based reclaim group mapping validates placement handles to cut write amplification and reduce VM interference in memory sub-systems.

Selective texture-line reads cut unnecessary data transfer, reducing memory bandwidth and power use during modified texture rendering.

Pre-translating and caching host memory addresses in the SSD cuts IOMMU delay and CPU overhead during PCIe DMA transfers.

Configurable memory array regions store data and ECC metadata together, cutting wasted space, soft-error risk, and separate SRAM overhead.

Duplicate user data is written to padding wordlines in parallel to improve memory retention and reliability without added latency or power.

Computing RAID parity stripe deletion from FDP region sizes frees complete SSD regions, improving garbage collection efficiency.

Register-based control schedules memory defragmentation by endurance and power status to preserve access speed, device life, and energy use.

When a memory block read fails, buffered data and mapping-based search help locate substitute data faster while reducing data loss.

Before erasing partially programmed SSD virtual blocks, dummy-data flash writes reduce oxide damage, corruption, and lifetime loss.

Selective migration of degraded NAND pages cuts read reclaim delay while preserving data reliability based on block state and degradation type.

UECC-triggered data relocation protects zone-based SSD cache and non-cache blocks during migration, refresh, and zone completion.

A FIFO buffer with metadata-managed hit and miss handling bridges wide-IO and NAND speed mismatch to improve bandwidth use and cut latency.

Dynamic switching between caching and non-caching modes reduces transaction stalls while preserving cache coherence in multi-level memory systems.

Wear-aware zone allocation uses read/write counts and block wear levels to balance SSD usage, reduce wear gaps, and extend lifespan.

Buffers and address matching merge small host accesses into wide-IO SSD transfers, improving bandwidth use while cutting latency and power.

Metadata-backed verification preserves logical-physical address integrity during SLC-to-QLC block moves while limiting working memory use.

Selective retrieval of split data portions lets a combiner unit balance memory access speed, precision, and computational throughput.

Timestamped write completions pace host-to-cache traffic in SLC-cached QLC memory, reducing latency swings and preserving bandwidth.

Parallel sub-caches isolate write-miss data, using line type bits and eviction control to cut ECC timing overhead without sacrificing fault tolerance.

Moving L2P mapping from the SSD controller to the host cuts access latency and gives visibility into storage structure and drive health.

Writes are routed by stream size and bandwidth so SSDs keep low-density memory for fast data and reduce access latency.

Direct LBA remapping within the same flash die removes controller translation overhead, cutting redundant writes and improving storage reliability.

Flexible memory regions store data and metadata together, cutting wasted space, avoiding dedicated SRAM, and supporting unified ECC handling.

Dynamic CXL metadata allocation and local caching match ECC and security needs per VM, cutting memory overhead and waste.

Bit-flip and failed-read statistics let a memory controller detect NAND read disturb quickly, avoiding complex decoding and lowering power use.

Dynamic mapping between cell blocks and data pads limits error bits from shared sub-word line driver faults to stay within ECC capability.

FIFO buffering with metadata-guided access control raises wide-IO solid-state storage bandwidth utilization while cutting latency and buffering power.

Dynamic write-combine buffer partitions match incoming block sizes to improve utilization, reduce delays, and raise memory write throughput.

Unit zone regions and a zone metadata table enable ZNS sequential writes, cutting garbage collection and extending non-volatile memory lifetime.

Dynamic cache way allocation shifts private and shared cache capacity to match workload needs, improving utilization in multi-core computing.

Randomized row and column access obscures static weight data in in-memory computing while map signals preserve correct feature-to-weight matching.

A buffer and address-list converter merges small memory accesses into larger writes to improve wide-IO SSD bandwidth and power use.

Threshold-based bank write logic skips unnecessary reads on non-aligned writes, cutting write cycles and memory access latency.

Uncorrelated hash values let separate TLB banks check contiguous and non-contiguous entries in parallel, improving space use and latency.

Requestor IDs and IOMMU page tables let bus devices access VM memory directly while blocking unauthorized cross-VM access.