Memory Architecture Accessing/Allocation TRIZ Cases

A storage controller generates a reduced set of parity bits to flush volatile memory data during power loss events.

An instruction fetch unit uses an effective address directory to locate instructions in the cache without real address translation.

Segmented permission storage resolves speed-security trade-offs in stage-two translation by eliminating extensive main memory references.

Direct address translation via a parallel memory interface eliminates intermediate controllers, reducing latency and increasing bandwidth.

A biological sensor detects a sleeper's state to dynamically adjust device sound volume and illuminance upper limits.

Classifying data as non-reusable prevents allocation in cache storage, reducing latency for reusable entries.

A memory device stores program instructions in its array to execute logical operations, reducing data transfer latency and power consumption.

A memory operation method monitors block read counts to trigger data migration.

A memory controller uses address separation commands to determine execution relationships for concurrent multi-plane operations.

A storage system retrieves data segments from solid state device caches using parallel input output threads to accelerate read operations.

A memory control circuit unit executes parallel write operations across distinct physical groups to release spare units.

Automated multi-plane data transfer eliminates controller command latency and resource consumption during non-volatile memory read operations.

Controller merges user data and metadata into a super memory block to reduce sequential access latency.

Integrating a flash memory interface into a hard disk drive reduces laptop power dissipation, extending battery life during low power operation.

A memory controller dynamically selects physical blocks across planes to form super blocks based on real-time wear metrics.

A data updating device modifies binary representations of reserved words in flash memory to enable partial sector updates.

Dynamic buffer resizing reclaims memory in large-scale deduplication systems, preventing tag eviction and exhaustion.

A whiteboard interface facilitates asynchronous data sharing between processors, reducing power consumption by allowing units to hibernate when idle.

A distributed system updates cryptographic domain trust versions using quorum-based digital signature verification across multiple nodes.

A computing device relocates and resizes active device tables in memory by updating base addresses and sizes.

Controller returns erase state information to host, enabling verification of complete data removal across inaccessible memory blocks.

Coarse and fine grain access circuits segment address spaces to reduce memory consumption while maintaining low latency.

Bypassing upstream controllers reduces latency bottlenecks by allowing storage devices to independently process requests using in-drive mutex synchronization.

A memory controller skips writing specific data bits to physical pages, reducing write command execution time.

Memory management unit excludes scratchpad pages from swap sequences, reducing overhead while maintaining regular memory consistency.

Segmented address arrays enable high-speed processing while reducing circuit volume in Set Associative cache memory systems.

Segmenting the key index into a hierarchical structure allows the system to invalidate specific root nodes, reducing scan time and blocking of other requests.

A cartridge chip splits memory into primary and backup areas to record operations without access restrictions.

Memory system stores transition parameters in registers, enabling host optimization of sequential write operations and resource consumption efficiency.

A second controller converts persistent wait instructions into periodic commands to maintain reliable communication between different operating systems.

Segmenting cache memory with a write buffer and mapping records enables reliable data recovery from channel failures without adding discrete devices.

Remote page tables copy data to local memory, reducing latency in NUMA systems.

An image forming apparatus manages set values through a determination unit that directs storage operations based on data sensitivity.

Transaction objects group data fragments to enable single-pass writes in persistent storage systems.

A data processing section saves record data in a local cache before transferring it to an archive device library.

Dual memory systems generate physical addresses from logical inputs using independent lookup tables for simultaneous data operations.

Partial page caching fills existing flash blocks with data to reduce transfer times and wear.

A memory controller schedules preemptive read scans during idle periods to maintain NAND health without impacting active host operations.

A smart prefetch buffer selectively stores extra read data based on address continuity logic within the memory controller.

A data converter generates deterministic index values from encrypted numerical data to enable server-side search operations without decryption.

Configuring memory rows as vector registers eliminates external register hardware, resolving speed-cost trade-offs.

Segmenting memory ranks allows selective access to reduce power waste and thermal loading while maintaining peak data transfer rates.

Segmented management tables reduce address translation overhead while maintaining precise wear leveling for NAND flash memory durability.

A smart buffer memory device classifies sensing data by priority to allocate dedicated transmission channels for efficient processing.

A sequential mapping table stores initial logical and physical block addresses to compress L2P data within limited RAM.

Prefetching logic at an accelerator device proactively caches data and address translations from host memory to support offloaded workloads.

SSD controller transfers volatile memory data to host buffer, allowing memory shutdown to reduce power consumption and minimize non-volatile memory wear.

A range checking instruction determines whether two addresses map to the same memory attribute entry.