Memory Adressing/Allocation/Relocation TRIZ Cases

A USB controller manages mass storage and security token functions using a single enumeration process.

Relocating logical volumes across distinct array groups prevents simultaneous failure while distributing I/O load to avoid performance degradation.

A memory controller detects program error bits to select victim blocks and copy data without error correction.

One-time programmable memory devices switch operational states to enable write commands, resolving host compatibility issues with DOS FAT file systems.

Local device attached memory within a hybrid CXL Type-3 SSD processes NVMe commands directly, eliminating system memory hops that cause high command latencies.

Segmented read-only and read-write storage areas reduce corruption risks during power interruptions.

Tracking active node transfers allows retaining valid read cache data, avoiding full rebuilds that degrade performance during reboots.

Local flag storage via a non-transparent bridge cuts latency by 70% and boosts throughput while resolving mutual exclusion reliability issues.

A re-mapper circuit translates memory identifiers to maintain cache coherency in system-on-chip designs.

A memory apparatus converts physical addresses to virtual regions for uniform storage space utilization.

Partition state-sequenced data across multiple I/O busses to eliminate subsystem idle time caused by limited single-channel bandwidth.

System manager moves data between logical disk regions to change RAID type, avoiding service disruption during migration.

An intermediate S2M state reduces current consumption by minimizing cache memory accesses during write operations in shared memory systems.

A phase-change memory controller ignores subsequent Activate commands until a preset time interval elapses after the initial command.

A die-stacked memory device integrates a hardware QoS manager to coordinate access requests across stacked dies.

Content-addressable memory circuits match region identifiers to invalidate only relevant cache lines, eliminating sequential scanning overhead.

Isochronous command queue scheduling with priority and deadline information optimizes storage plans in shingled magnetic recording drives.

Segmenting memory writes into aligned and unaligned phases reduces instruction count for misaligned data, cutting application wait times.

Controller segments memory areas by data frequency, improving reliability and speed while conserving space.

A signal processing device accumulates echo laser reception counts in segmented search and candidate memories to determine precise reception times.

A Java thread state mechanism prevents garbage collection during direct socket I/O operations to maintain heap object stability.

Memory controller determines new blocks in advance to prevent temporary slowdowns during stream data writing.

A header-less memory architecture manages fixed-size blocks via a freelist to maximize storage utilization.

Direct connections eliminate signal reflections from multi-drop buses, reducing latency while lowering manufacturing costs.

Multiple parallel pipelines process data units concurrently to boost storage controller bandwidth without raising clock speeds or power consumption.

A memory sub-system adjusts its SLC cache size based on available over-provisioning blocks to optimize storage performance.

A cache controller coalesces data from multiple lines into a single memory instruction to match native burst lengths.

A remote data caching mechanism generates cache names from client queries to retrieve stored information directly.

A manifest using hash trees identifies file system changes for targeted updates.

An application direct virtual memory management system uses a sparse address space index to move data between main memory and persistent storage.

A stacked logic and memory module manages virtual memory in host or slave modes, resolving manufacturing complexity while enabling autonomous operation.

A single Unbuffered Dual In Line Memory Module with two separate memories and independent data, address, and control interfaces.

A bucketized multi-index data structure uses fixed-size memory regions to map short signatures, enabling single I/O retrieval of metadata and cache content.

Unified render-cache controller merges separate cache management functions into a single unit, reducing logic size while maintaining data coherency.

A dual-level branch target cache structure allocates entries to an initial cache and promotes them based on usage patterns.

A protection register array stores lock status bits internally to allow on-chip devices to read and decode specific bits at a fixed address.

Operating system marks virtual memory pages as critical to retain them in physical memory during over-commitment.

Atomic cache pointer updates enable concurrent access while eliminating space overhead from redundant process-specific caches.

Segmented SPI channels enable random access and wear leveling, reducing interface complexity and electromagnetic interference in NAND flash devices.

Locks page table entries in processor caches to eliminate address translation latency.

Segmenting a unified cache into coherent and incoherent domains reduces interconnect congestion by limiting global snoop operations for instruction fetches.

A bus switch selectively couples SPI buses between primary and secondary controllers to manage flash memory access.

Re-sorting subdata into a unique writing sequence prevents reverse engineering by ensuring data read differs from target data without the correct order.

A memory controller selects garbage collection units using variable thresholds to balance processing rates with host input output demands.

Local caching devices store content data to maintain delivery speed while connection stability deteriorates during handover events.

A movable buffer window in MRAM facilitates efficient data transfer between a host and memory, reducing latency while maintaining non-volatility.

A pseudo-orthogonal code memory maps 9-bit parallel data to 16-bit codes via a mathematical addressing scheme.

A secure device creates an isolated parallel world to handle sensitive data without exposing it to the host machine.

A GPU-based spatial binning algorithm sorts point data into buckets using vertex and geometry shaders to manage agent positions.

A memory controller manages nonvolatile memory blocks using distinct strategies based on program-erase counts to optimize storage operations.