Memory Architecture Accessing/Allocation TRIZ Cases

A semiconductor memory controller copies data to a secondary block when read counts reach a reference value.

A processor system automatically tunes tunable parameters for demarcated code regions to optimize execution speed and energy efficiency.

A memory controller fetches parity data from cache to support RAID operations.

Splitting memory pages into sub-pages reduces page entry data structure size while maintaining fast access times through hierarchical segmentation.

Electronic control unit controller manages data transfer between RAM and non-volatile memory for operational continuity.

A zero bitmap in the cache detects storage regions filled with zeros to skip unnecessary IO operations during data copy.

A storage system assigns favored cache status to selected volumes based on monitored I/O patterns.

Host memory stores flash status data to reduce internal capacity costs and avoid slow loading times during read operations.

A cache data processing system divides storage space into sections to record section numbers for data blocks.

Page-level data relocation prevents read disturb errors in NAND flash memory while minimizing erase cycles and preserving system performance.

A memory scheduler categorizes virtual machine pages into usage classes to estimate requirements and perform dynamic reclamation operations.

A hardware cache controller manages write data caching to reduce storage processor load.

A dynamic cache insertion rate algorithm adjusts memory allocation based on traffic patterns.

Segmented register files enable partitionable engines to instantiate virtual cores, eliminating context switch time without increasing hardware complexity.

Segmented processing avoids disk spilling to maintain speed when working memory fills.

A prefetch control unit moves data from storage to a cache before read requests arrive on the serial bus.

Sending cores transmit memory write requests to destination cores via shared data structures, eliminating hardware cache coherency overhead.

Hashing algorithms assign cache headers to buckets, reducing search complexity and minimizing cache misses in large capacity solid state devices.

Unique encryption keys per write mitigate side channel attacks and unauthorized access risks.

A disaggregated computing system replicates workload data to secondary memory pools without attached compute resources.

A memory system dynamically allocates buffer regions to workload groups based on real-time interface performance monitoring.

A partition adjunct processes service requests using processor quanta donated by client partitions to reduce system overhead.

Segmenting the cache subsystem into independent divisions reduces power consumption and heat generation while maintaining high performance.

A tagged cache system translates virtual addresses to physical locations using address translation tables.

A rewritable non-volatile memory controller groups physical units to balance erase counts across storage planes.

A memory system organizes translation information into a multi-level hierarchy with uniform unit sizes for efficient storage.

A cloud storage system manages object defragmentation by temporarily modifying read-only attributes to compact unused data slots.

A CPU measurement sampling facility accumulates data in a buffer before triggering interrupts to read out the stored information.

A signed bounded pointer embeds a cryptographic signature within its attributes to restrict unauthorized use of the pointer value.

A storage system moves data between devices through a cache tier with zone groups to balance access loads.

Merging main memory and long-term storage into a single non-volatile unit reduces energy consumption and data access latency.

A progressive indexing structure manages flash memory data to enable high-speed byte access without sector erase operations.

A control device stores block usability flags in a dedicated non-volatile area to manage flash memory data integrity.

A memory resource partitioning system allocates flexible partitions based on defined minimum and maximum sizes.

A memory controller organizes physical blocks into Super Blocks across multiple Groups to assign logical addresses dynamically.

Forking logic establishes child enclaves in a secure enclave page cache to resume interrupted copying operations.

A delayed caching mechanism manages lower-level cache victims by routing them to system memory based on a threshold count.

A combined cache-and-overflow memory structure dynamically reallocates space using a single hash key for both data types.

A cache system retrieves uncompressed data from a data array to optimize processor loading.

A configurable cache system differentiates load instructions to control first level cache linefill operations based on operational codes.

A memory controller uses Threefish block ciphers with diffusers to encrypt data streams.

A memory controller creates aliases between volatile and nonvolatile memory blocks to redirect data access requests transparently.

A computing device monitors memory address segments to suspend overlapping instructions.

A prefetch stream management system identifies and saves memory access instructions to control data flow.

A controller moves system data copies to fresh memory planes, reallocating worn blocks within the storage apparatus.

A memory management device dynamically adjusts the threshold value based on performance information to determine when to terminate processes.

Silicon photonics replaces electrical interconnects to eliminate latency uncertainties, enabling lock-step processor synchronization for non-local data access.

A memory controller predicts garbage collection performance parameters before execution.

A wear leveling method balances program erase cycles across single level and multi level memory cell blocks.