Memory Architecture Accessing/Allocation TRIZ Cases

A spiral cache memory dynamically reorganizes data lines to place frequently accessed values at the front-most location.

Dynamic queue segmentation prevents overflow and command timeouts, enabling error handling during large sequential reads.

Updating domain map attributes transfers data logically, eliminating energy expenditure and wear on nonvolatile memory media.

A hybrid content addressable memory system segments exact match and range rules across parallel SRAM and TCAM banks to optimize search operations.

A cache device segments data into shared and independent categories to optimize storage utilization.

Monitoring high-level cache access before low-level eviction prevents back invalidation of frequently accessed data, maintaining a higher cache hit rate.

Controller switches TLC blocks to SLC mode during high temperatures, preserving data retention against thermal stress while restoring density later.

Sorted data segment list enables memory controller to initiate flush operations that prevent throughput degradation from fragmented write buffer space.

A memory sub-system uses regression analysis to determine optimal read voltage levels from multiple test operations.

A parity data management component generates multi-page parity using N-1 planes to reduce controller cache storage requirements.

A non-volatile memory system allocates data to multi-level pages and associates a digest with write data based on specific page attributes.

Active interposer dies support multiple compute die types through reconfigurable interfaces, resolving flexibility limits in silicon interposers.

A cache manager adjusts memory distribution between read and write operations based on predicted I/O patterns.

Address mapping in a consumable chip reduces manufacturing costs by compressing data into smaller memory spaces.

Copies pre-computed parity bits across memory levels to resolve the reliability versus processing delay trade-off in multilevel architectures.

System monitors resource utilization and predicts failures to migrate workloads, reducing power waste from underutilized servers.

Adjustable fetch queue thresholds mitigate instruction cache pollution and reduce power consumption during low prediction accuracy events.

A hypervisor dynamically maps guest memory to RAM or secondary storage based on usage patterns.

A cache controller executes wear leveling by exchanging data between memory areas during refresh cycles to balance write counts.

A flash translation layer classifies zones by reset rate to allocate hot data to dies with fewer free blocks and cold data to dies with more free blocks.

A storage device uses a volatile memory with separate map entry and index cache areas to accelerate physical address retrieval.

Hardware logic determines if a second cache line is outside the page table and selectively prefetches it, reducing clock cycles for page table walks.

Storage controller uses file system flag sets to classify data types for optimal placement in non-volatile memory.

Allocator segments database data into chunks distributed across multiple computing devices, resolving performance limits in large-scale mobile operator systems.

A memory mapper extends GPU memory with nonvolatile storage to load high-resolution graphics assets dynamically, resolving frame rate drops in virtual reality.

A system stores sensor data hierarchically near the source, enabling selective transmission of aggregated information.

Secondary flag tables accumulate document flags before merging into a primary table, reducing memory usage for large datasets.

Exchanging RDMA credentials enables cache-aligned write operations, reducing latency from partial store operations.

A memory controller transmits cache read commands and status read responses to manage data output timing.

Solid state drive logs temperature and erase cycles to schedule flash memory refresh cycles, preventing data corruption while minimizing power consumption.

A memory system uses auxiliary blocks to store small data directly from the cache buffer without erasing it.

A storage controller selects garbage collection portions based on I/O workload intensity to optimize device performance.

A merged translation buffer caches effective to real address mappings directly.

A memory management system segments pages into near and far blocks to optimize data placement across heterogeneous storage technologies.

A JVM resource reclamation method segments heap memory into tenant-specific regions to enable targeted garbage collection cycles.

NVDIMM controller adapts write patterns based on non-volatile memory type to lower energy usage during sanitize operations while maintaining data security.

Translation lookaside buffers use lease values to check entry validity before modifying page tables, reducing shootdown latency and communication bandwidth.

Quality-of-service monitoring circuitry dynamically adjusts cache allocation policies to prevent write-backs and reduce memory access bandwidth consumption.

Controller adjusts storage class memory queue depth thresholds based on IO request latency to prevent exceeding data rate limits and reduce high latency.

Appending non-memory encryption engine metadata bits to version lines generates an embedded message authentication code for integrity verification.

A virtual machine cache system intercepts I/O operations and dynamically allocates resources across hosts.

A storage controller detects and corrects reference count discrepancies by scanning logical block subsets to identify orphaned physical blocks.

A cache memory circuit selects lines for eviction based on stored data patterns to reduce power consumption.

Memory controller adjusts wear leveling frequency based on detected erase counts to balance block usage.

Electronic apparatus dynamically configures processing pipelines by pre-fetching content based on user probability and available resources.

A virtual machine monitor generates a file table to verify access rights before executing commands.

Compiler indicators direct neural network operations to on-chip cache, resolving the trade-off between memory capacity and access speed.

Automated cache configuration uses I/O class traces and utility metrics to resolve the trade-off between high hit rates and management complexity.

Updating the tail marker during flushing maintains temporal ordering while making page buffers available for new dirty pages.

A memory-adaptive processing method segments convolutional neural network feature maps into tiles to optimize cache usage.

A correlation prefetcher exploits control flow history to guide memory access.

Hypervisors deploy virtual IOMMUs to track memory encryption status, preventing guest memory corruption from para-virtualization.

A direct IO path transmits compressed data between storage systems without decompression overhead.

A file system cache stores large files as chunks with access bitmaps to track recent usage for targeted eviction.

Concurrent overwrite of stale data during writes eliminates security risks from recoverable old versions while reducing memory wear.

Dynamic extent allocation improves cache space utilization while maintaining data redundancy through selective mirroring.

A mask register tracks gathered elements to resume interrupted vector operations, avoiding redundant processing and improving memory access efficiency.

Tombstones mark obsolete deduplication entries, enabling proactive flattening that reduces map size and processing time.

Controller groups memory blocks by variable max erase count values to minimize disturbances during sudden power-off events and improve system stability.

A storage controller executes data transformations on memory contents before comparison to enable advanced matching operations.

Partitioning logical addresses reduces search time from 11.4 days to 1.21 days for one year of footage.

A flash memory controller uses a nonvolatile metadata buffer to create pointers for data sectors, enabling efficient merging within erase units.

Dynamic block allocation cycles wear-prone cells into single-level cell mode, resolving the contradiction between high storage density and data integrity.

A controller manages logical address mapping to optimize memory copy operations.

Intelligent hierarchical caching uses size and request rate metrics to manage storage resources across multiple cache levels.

Internal cache state management reduces controller configuration complexity and prevents malfunctions.

Pre-fetch throttling logic adjusts command issuance based on priority levels and real-time sensor data.

A memory controller maps external addresses to erased segments, enabling fast reset writes without host modification.

Storing mapping tables in backend SSD memory protects against power loss and reduces write amplification during transparent block compression.

Segmented translation look-aside buffers use memory markers to selectively purge entries, preventing unnecessary rewalks of address translation tables.

A controller monitors power states during read and write operations on non-volatile memories to detect failures.

Prioritizing mirroring queues by modified track counts reduces latency from secondary storage retrieval.

A branch prediction circuit skips empty cachelines using a memory segment flag to reduce processing cycles.

A delegated snoop protocol enables response agents to perform cache-to-cache transfers independently.

A hardware-based page fault manager processes memory requests locally within the graphics processing unit.

A set-associative cache uses a subset mask to store local replacement policies for specific sets while sharing policies elsewhere.

Asynchronous Verticle deployment enables distributed storage node role changes without terminating the operating system process.

Controller segregates SSD metadata by write heat, reducing amplification and extending lifespan.

A memory controller distributes error correction codeword parts across multiple non-volatile memory rows to manage address mapping efficiently.

A kernel component translates virtual addresses to storage object offsets for user space threads.

Tracking frequent accesses moves data from high-latency CXL tiers to low-latency DDR, preventing latency swings during transfers.

A neural network cache predicts access patterns to minimize memory system area while handling faults in next-generation memories.

Memory space mapping allows concurrent I/O operations, eliminating sequential data formatting bottlenecks in multi-task systems.

A nested heap structure normalizes component values across diverse sources using weighted inner heaps and reference-based outer heaps.

Local message queues mediate direct data transfers across non-coherent memory fabrics, reducing inter-node traffic while maintaining cache consistency.

A wear-leveling remapper migrates valid data between usable and unusable memory address spaces.

Dynamic SLC buffer allocation manages concurrent application programs without increasing write buffer size.

Mirrors header and metadata across cache devices to ensure continuous operation during failures.

A secure element copies platform configuration register data values via a communications interface to enable trusted platform module services.

A controller reassigns physical addresses on a magnetic storage medium to manage localized wear patterns.

Segmenting cache logic units into multiple spaces enables parallel write processing, resolving concurrency bottlenecks caused by strict locking mechanisms.

A flash memory controller accelerates device startup by prioritizing garbage collection on the last written block.

A storage device selects victim memory blocks based on data streams to perform garbage collection.

A refresh control device decodes command signals to generate targeted row hammer refresh operations.

A storage controller groups data from related namespaces into shared memory blocks to optimize physical placement.

Hypervisor intercepts uncorrected memory errors during virtual machine migration to trigger page replication from source host copies.