Memory Adressing/Allocation/Relocation TRIZ Cases

A kernel agent detects corrupt memory locations and skips or redirects access to prevent crashes and keep cloud hosts and VMs running.

Tilted ion implantation creates a uniform selector-layer dopant profile, reducing memory-cell variation and process cost at smaller pitches.

Firmware polls extended hot line tables to detect cross-core cache contention, segment cache lines, and mitigate false structure sharing.

A memory system starts with a broad thermal voltage model, then switches to a narrower one from monitored conditions to cut latency and power use.

A linker script adjusts aliased address ranges so code and data can share one RAM without overlap or corruption on separate instruction and data busses.

Dummy data is used to estimate power-off retention drift and reset read voltages for accurate memory retrieval after restart.

Dynamic grouping of shared-cache users by demand reduces interference and applies tailored replacement policies to improve fairness and hit rates.

Preallocated circular DMA buffers and coherent mapping cut cache maintenance, power use, and memory overhead in high-speed interfaces.

Interleaving requests across DRAM ranks lets data and metadata run in parallel, reducing metadata overhead and improving bandwidth use.

Lightweight GC monitoring triggers constrained tracing only for relevant events and time windows, reducing overhead while preserving diagnosis accuracy.

A memory controller computes CRC values during memory access, cutting CPU core load while improving data damage detection.

When storage workload drops, authority migration shifts functions between nodes so processors can enter reduced power mode without hurting flash reliability.

Concurrent lazy reference counting shifts updates from mutator writes to GC processing, cutting old-generation atomic overhead while preserving correctness.

Using CE and command signals, non-target dies self-enable ntODT during data transfer to improve signal quality and cut controller complexity.

A dual-interim table remap circuit resizes LIFO and hash memory tables during access, avoiding stalls and limiting performance impact.

Physical-address cache banking enables parallel reads and writes while cutting interconnect cost, power use, and virtual-address aliasing.

Power-of-2 block allocation and register-stored memory prefixes cut GPU lookup overhead while isolating memory access across processors.

Alternating active and inactive memory data units preserves a valid prior version during updates, preventing corruption after power loss.

PCIe header index lookup lets NVMe crypto engines recover LBA metadata for inline DMA encryption without costly SRAM.

Stored access parameters let DRAM initialize internally, cutting CPU bus traffic, power use, and boot latency.

Targets empty page scans to word lines near the last programmed WL in open blocks, improving read disturb error detection and scan efficiency.

Peripheral circuits compare block addresses before activation to isolate bad blocks, protect data integrity, and sustain memory efficiency.

Complex-valued SDM stores integer elements as real and imaginary parts, cutting memory hardware from r*n to 2*n while preserving retrieval efficiency.

Using bijective Galois-field matrices, this case expands address-scrambling options to slow logical-to-physical mapping attacks in memory arrays.

An accelerator circuit updates scheduler nodes in memory to offload CPU traffic management and sustain QoS on high-speed network ports.

Dynamic page policy selection uses physical addresses and page history to cut memory access latency, improve hit rates, and reduce power use.

Precomputed output buffers let microcontrollers run ANN pooling with less RAM and lower latency across varying window, stride, and padding settings.

Input-voltage monitoring throttles memory performance before current draw causes voltage drops, helping prevent failures and stabilize operation.

Offload commands are sent as standard write operations to a virtual storage engine, enabling parallel execution with lower latency and higher throughput.

Page table mapping replaces full memory copying, enabling faster VM hot migration and VMM upgrades with lower resource use.

Segmented non-volatile memory uses stored immutability settings and controller write blocking to protect keys and critical firmware data.

Selective red zones and shadow memory catch kernel memory errors in chosen processes without source changes or broad performance loss.

Compiler-created tensor duplicates are trimmed and mapped to PMUs to reduce memory access conflicts in reconfigurable data processors.

Dynamic page sizing across parallel memory sections cuts unused cell access, reducing power and die area while preserving fast reads.

Dynamic non-contiguous block allocation with CAM and a free pool cuts memory waste while preserving fixed-latency FIFO or random access.

A memory controller reads host peak power capability and adapts clocking and parallelism to maximize storage performance within power limits.

Internal NAND processing generates LLR values from soft reads in one command, cutting transfer overhead and latency for faster error correction.

Adaptive read-voltage mapping corrects threshold drift from temperature and read disturb, improving memory data retrieval accuracy.

Selective bank strobe disabling keeps channel strobes aligned, improving synchronized memory read output across bank and channel areas.