Memory Architecture Accessing/Allocation TRIZ Cases

A memory controller writes data directly to multi-level cell blocks from volatile storage.

A memory management system selects full blocks for garbage collection based on a variable block life threshold.

A memory system distributes data and enhanced parity codes across multiple bad memory blocks to enable reliable storage using previously unusable cells.

A flash memory controller establishes a valid page count table to determine block validity during zone resets.

A core-side predictor identifies likely cache misses to trigger parallel main memory access.

A cache controller assigns priority tags to memory slots, ensuring high-priority data remains available for rapid host access.

Unbalanced table regions separate hot and cold data in flash memory blocks, reducing write amplification during garbage collection.

Segmenting storage into single-level cell for hot data and multi-level cell for cold data resolves the trade-off between write reliability and storage density.

A memory unit executes shift commands to move data within logical space without bus transfer.

A Structured Data Object Processor method handle creates target objects from structured data maps.

Segmented coordinate comparison reduces circuit complexity while boosting texture mapping throughput.

Compaction reorganizes sparse compressed data into contiguous blocks within near memory, reducing reliance on slower far memory accesses.

A memory controller programs data across multiple dies at different densities using a single transfer operation.

A multiple-name-space testing system directs parallel evaluation across devices under test using dedicated load boards and FPGA hardware.

Storing flash block management tables in non-volatile memory prevents corruption and eliminates reconstruction delays after power loss.

A server memory card integrates replaceable non-volatile memory modules with master and slave controllers to provide high-speed data access.

Segmenting logical-to-physical mapping data into hierarchical levels frees unused storage for dynamic buffer expansion without adding hardware.

Circuitry translates requests between coherent and non-coherent domains, resolving data coherency trade-offs while reducing software complexity.

A hypervisor-level cache agent intercepts virtual machine disk commands to route data through a solid-state drive.

A processor manages a log chain in non-volatile memory to record data modifications during write requests.

Line eviction synchronizers coordinate cache line comparisons between cores to detect silent data corruption without adding complex checking logic.

Segmented IO cache macroblocks store compressed and non-compressed data separately, resolving fragmentation bottlenecks that reduce storage capacity.

Analyzing charge loss and gain metrics validates open memory blocks, reducing write amplification caused by automatic block abandonment.

Solid state memory modules estimate program/erase cycles via garbage collection sampling to dynamically adjust read thresholds and prevent data loss.

A streaming engine inserts null elements into matrix data streams to maintain predictable dimensional structures.

A storage system allocates erase blocks using a fragmentation stride to manage data segments across varying block sizes.

A memory controller classifies data as cold to prioritize output and manage wear leveling across storage regions.

A host detects cache loss from a storage device after reset and requests remaining data via buffer read commands.

Partitioning flash memory into main and substitute spaces enables multiple data overwrites, reducing erase operations that limit rewrite cycles.

Segmented intra and inter tile wear leveling reduces read write probability variation to extend device lifespan under varying workloads.

A data processing apparatus manages snoop requests to determine whether requested data should be returned to the source node.

A controller detects changed logical-to-physical map data in a dirty list to perform read operations on nonvolatile memory segments.

Segmenting cache tags allows rapid repopulation after power loss, resolving the trade-off between energy savings and performance degradation.

Isolated type-specific memory heaps prevent cross-type reuse of freed blocks through compile-time generated allocators.

Segmented update strategies preserve data reliability and security during software upgrades by keeping decode threshold units online.

A processor checks code block integrity within secure and non-secure memory regions to isolate compromised data.

Local SSD compression offloads computational pressure from the controller while dynamic feedback prevents storage resource waste.

A memory manager identifies sharable pages and prefetches them asynchronously while processes run.

Virtual hardware acceleration and emulation test systems replace expensive physical NAND Flash to improve firmware development efficiency.

Flash management sub-system constrains program erase cycles in NAND read caches using dynamic access policies.

Isomorphic symmetric partitions enable remote direct memory access by eliminating address translation overhead.

Virtual tape server routes active data streams to physical tape drive buffers, preventing data loss during deduplication while balancing storage resources.

A storage controller selects cache or normal read operations based on detected workload patterns to optimize data access efficiency.

Controller copies data to strong pages before soldering, preventing loss from high heat.

A garbage collection thread manages heap memory marking phase state using conversion status variables and mutator thread handshakes.

Host-side direct writes to NVMe DRAM cache pages bypass internal copies, reducing bandwidth usage and mirroring latency.

A supervisor maps guest and supervisor memory addresses to distinct device DMA regions for secure direct access.