Memory Adressing/Allocation/Relocation TRIZ Cases

A cache controller skips unnecessary fills by checking stack pointer ranges and write history indicators.

A memory management apparatus adjusts deallocation units based on allocation size to optimize system performance.

A split packet transmission DMA engine assembles dispersed packet parts into contiguous blocks for ordered egress.

A virtual LUN portal mechanism enables server-defined data object replication without modifying existing storage structures.

A memory controller manages a program depth bit map to output optimized read commands for nonvolatile memory arrays.

A memory portion balancer shuffles addresses using bit ratios to distribute requests across cache sets.

Multidimensional memory space with row and column pointers eliminates address calculation overhead for 2D array processing.

Aligning variable-length ECKD data into blocks with SCSI trailers eliminates transformation costs while maintaining FICON protocol compatibility.

A cache window aware flush process prioritizes storage devices with low physical capacity to reclaim space efficiently.

Storing redundant data in low-latency random read memory eliminates mechanical seek times, reducing read latency for deduplicated blocks.

A translation lookaside buffer uses a size flag bit to support multiple page sizes within a single structure.

A buffer map reconciles shader input and output attributes to reduce vertex data memory usage.

A memory controller dispatches data streams between a host system and a smart card chip using logical block address configuration.

A microprocessor power management unit uses external rewritable non-volatile memory to store and execute customized control commands.

A read-after-read buffer tracks load instruction addresses to control private cache eviction decisions in out-of-order processors.

An application monitoring system identifies and removes unused software components from memory to reduce resource consumption.

Replacing virtual-to-physical address mappings and invalidating cache entries avoids costly VM exits caused by privileged descriptor table instructions.

A storage processor updates cache pages to prepared and dirty states while mirroring write data to a second processor for fault tolerance.

Segmented memory banks allow parallel input writing and weight reading, reducing access latency during streaming neural network execution.

A target buffer address region tracking system compares restart addresses to stored ranges to predict branch targets accurately.

Segmented scratchpad hierarchy places data based on reuse patterns, reducing external bandwidth constraints and improving AI accelerator utilization.

Programmable target charge levels define non-integer data values in flash memory cells.

Banked memory architecture distributes incoming data across multiple slower memory elements to handle high-speed sequential streams.

Address matching in a multi-stage write buffer reduces snoop frequency and access delays, resolving the trade-off between cache coherency and CPU productivity.

A flash memory controller segments data into integrated segments to accelerate write operations.

A universal address system maps virtual addresses to physical locations across distributed nodes.

Segmenting primary and secondary branch data reduces cache size and lookup latency while maintaining high prediction accuracy.

Segmenting multi-level cell states into disjoint sets allows single-sensing reads, reducing latency while maintaining high storage density.

Automated mechanism analyzes memory configuration criteria to recommend optimized reconfiguration paths for capacity and speed improvements.

Dynamic memory allocation segments large objects into incremental fetches, eliminating excessive pre-allocation and LOB locator overhead.

A Linux dirty data update mechanism uses a fast search tree to locate and write pages directly to disk.

Adjusting bit line voltage based on page program order compensates for drain and source resistance changes, ensuring uniform threshold voltage distribution.

Segmented memory areas with device-specific formatting resolve the trade-off between cross-platform compatibility and data protection complexity.

A NAND-Flash identification method writes a predetermined pattern to query device attributes directly.

Context-specific encoding of branch prediction state entries prevents side channel attacks by isolating address spaces across execution environments.

Segmenting input data into blocks distributed across memory banks reduces memory access frequency and bandwidth consumption during neural network processing.

Tracking flags prevent premature eviction of unconsumed lines, reducing unnecessary misses and improving system performance.

A memory controller predicts free block requirements using consumption history to schedule garbage collection during idle periods.

Hash table prefix matching filters potential conflicts before full address verification, reducing execution latency.

A direct memory access controller autonomously reads and writes configuration data from a table to configure integrated circuit components.

Controller manages parity groups to detect component failures and redistribute data across compatible flash memory devices.

A mobile application framework uses a cache manager to store web content locally for offline access.

Writing an initial value to flash memory storage areas allows the system to detect write failures without performing unnecessary block erase operations.

A memory controller analyzes access patterns to decide optimal methods for shared volatile and non-volatile memories.

Storing error data in non-volatile memory preserves critical information across restarts, enabling proactive repair prioritization and reducing server downtime.

Early-predict late-correct sensing scheme accelerates content addressable memory search operations using tunable hysteresis circuits.

Merging data and error correction code into shared memory pages reduces interconnection complexity while maintaining data integrity.

A semiconductor memory device uses segmented block arrays with independent selection circuits to enable simultaneous read and write operations.

A two-dimensional cache uses independent row and column addressing units to enable parallel data access across multi-dimensional arrays.

A packet processing block executes stateful actions using a flexible memory pool for match and action operations.