Memory Architecture Accessing/Allocation TRIZ Cases

An on-chip memory accelerator executes database commands in parallel with data loading to support near data processing.

An operating system reconfigures address translation tables to map virtual addresses to physical memory modules based on direct memory access engine utilization.

Storage controller optimizes tiered data placement by analyzing logical extent linkage, reducing transfer overhead from periodic frequency estimation.

A memory controller manages heterogeneous memory channels using a non-volatile command queue and ready response signals.

Storage device tracks HPB sub-region validity to recommend deactivation, reducing memory waste and improving read speed.

Segmenting the tag directory into core memory groups eliminates the centralized home agent bottleneck, reducing circuit scale and processing latency.

A garbage collection management component selects source blocks using valid data count and temperature metrics.

A virtual memory address area container system maps physical pages to prioritize hot page restoration for faster application launch.

A tiered memory allocation system segments data into big, intermediate, and small blocks to optimize cache line efficiency.

Dynamic storage allocation extends solid-state drive service life by routing high-speed data to flash memory while using hard drives for bulk retention.

A computing accelerator uses a state control unit to route instructions between executing units based on operation states.

Bandwidth estimator circuitry measures consumed memory bandwidth to throttle transactions, preventing memory controller overload.

Clustering translation lookaside buffer entries with offset encoding and prefetch circuitry reduces main memory access latency.

A remote copy system transfers compressed data between storage devices using matching compression functions within identical RAID groups.

A storage controller adjusts processor power modes via shared memory to manage input output intensity across multiple cores.

A computer device configures data validity counters to track units at a specific granularity using a machine-readable file.

Lower page priority programming in MLC blocks reduces average write latency by exploiting faster lower page speeds before upper page completion.

Parallel pipelines in the inline encryption engine reduce processing latency while maintaining data security.

A garbage collection service maintains temporal order logs to consolidate related data blocks, reducing fragmentation and improving sequential read efficiency.

Dual outbound areas enable parallel data transfer and address reprogramming, eliminating sequential overhead in storage devices.

Tracking row activations enables the cache to adjust policies and issue refresh commands, preventing data corruption from probabilistic detection failures.

A memory controller allocates page read commands to queues for bank interleaving.

Dual replacement lists manage storage system cache by tracking access counts and frequencies, reducing unnecessary data promotion from devices to caches.

Partitioning SSD memory into reserved and caching segments preserves RAM data during deep sleep, preventing loss while optimizing storage utilization.

A memory controller issues specific refresh commands to manage sequential and targeted operations based on real-time access patterns.

A garbage collection system performs marking, copying, and re-referencing in a single heap traversal.

A deployment server mediates secure object construction between build and target machines using public key cryptography.

Hardware security subsystem accelerates multicore SoC boot authentication, resolving startup time delays caused by sequential initialization.

A probe buffering unit filters cache coherency probes using a microtag comparator to distinguish cached memory blocks before processing.

Classifies memory access frequency via segmented counters to balance cell wear, resolving the trade-off between tracking precision and processing overhead.

Segmenting memory operations into fast and normal modes resolves boot time constraints while preserving data accessibility.

Eviction notifications allow a secondary storage server to pre-load evicted blocks, preventing performance degradation during database failover events.

Local caching allows the system to acknowledge writes after a single remote replica, reducing network traffic while maintaining data durability.

Hardware and software arrangements transform deterministic GPU resource addresses into randomized effective locations.

A memory controller provides host feedback on stream write effectiveness to adjust allocation policies.

Asymmetric selection elements in a cross-point memory cell reduce sneak current by blocking unwanted paths during write operations.

A memory manager translates virtual addresses to physical ones using a hash function circuit and internal tables.

Detects dynamic input output patterns to pre-fetch data into cache, resolving low hit ratios from non sequential access.

Mapping I/O device controller registers to cache coherent memory space reduces CPU stall cycles caused by serialized write transactions.

Off-heap memory management allocates data outside the Java heap, eliminating garbage collection pauses and improving CPU utilization in distributed databases.

Segmenting the storage device into code and data areas allows multiple program codes to execute without separate RAM or ROM, reducing device complexity.

An event historian system manages an event data dictionary to store and retrieve industrial process information efficiently.

Combining a stored base symmetric key with a remote public key reduces memory usage while maintaining secure communication channels.

A control circuit transmits pre-stored reinitialization operations to a cache block via a bridge, enabling power gating without waking processors.

Caching compiled Apex bytecode lowers processor cycle consumption and improves response times.

A flash device controller adjusts over provisioning levels based on user storage capacity intervals to optimize garbage collection resources.

A memory controller schedules bank interleaving operations to optimize data processing speed.