Memory Architecture Accessing/Allocation TRIZ Cases

Segmenting coherency domains reduces bus congestion and power consumption while maintaining data consistency across virtualized input/output devices.

A middleware application intercepts remote links to map content to local caches, reducing network load and latency.

Control circuitry transfers translation data between processing element TLBs to eliminate time-consuming page table walks during task migration.

A voltage regulator secures memory modules by transitioning to a low-voltage state when encryption keys expire.

Storage systems reduce write amplification by comparing address map snapshots before writing data back during defragmentation.

A storage translation layer manages tiered memory using a persistent memory cache to stage write operations.

A mapping cache stores address mapping data within a semiconductor memory device to manage host requests efficiently.

A coherence notification module signals processor cache incoherence when buffered data identifiers update.

Segmenting descriptors into distinct queues enables the controller to track operation status and re-attempt failed cache commands.

A tree-like memory hierarchy structure connects local L1 caches to higher-level storage, enabling efficient data transfer across multi-core processors.

A power management unit dynamically adjusts active cache ways to match processor workload demands.

Address-based clock gating in D-type latch RAM reduces area overhead while maintaining automotive fault coverage.

A memory device maintains internal status of the last written page to select appropriate read trim sets for partially written blocks.

A memory controller analyzes command patterns to dynamically switch between single-level cell and multi-level cell access modes.

Host-managed buffer addresses offload cache management from the storage controller, resolving complexity bottlenecks during high-speed write operations.

A unified IOMMU architecture supports multiple virtualization techniques through flexible address translation circuitry.

A streaming module assigns unique tags to write requests across multiple controllers, organizing data into specific blocks within solid state drives.

A prefetch module maintains historical cache-miss offsets to speculatively fetch data using content addressable memory.

A buffer chip exchanges data between host and memory interfaces to distribute input output pad loading.

A request filter compares virtual addresses to block duplicate translation lookaside buffer misses.

Segmenting data structures between volatile and nonvolatile memory preserves state during power failures without explicit commit commands.

Segmenting memory subarrays by digit line length creates a hierarchical structure that reduces power consumption while maintaining high density.

A cache location buffer stores pre-computed way and set indices to enable direct data retrieval without associative lookups.

Dedicated physical regions store trim metadata to minimize write operations and extend non-volatile memory lifespan.

A solid state drive controller switches between storage and memory modes to optimize data access paths.

A memory controller manages data access using dual logical-to-physical address tables to handle host read requests efficiently.

Multiplexers select RDMA or cache coherence modes to eliminate kernel processing bottlenecks while maintaining scale-out architecture benefits.

Address and data scrambling in the NVM controller minimizes side channel attack exposure while eliminating external secure elements.

Segmented configuration service translates shared structured data into local runtime formats, eliminating code deployment downtime.

A storage device tracks host memory access statistics to support allocation decisions without burdening the processor.

Segmenting the write cache into two semiconductor memories with different endurance levels reduces access latency and conserves write cycles.

Combining adjacent memory pages into blocks cuts migration frequency, resolving high CPU usage from excessive page-level transfers.

A multiprocessor system provides each central processing unit with a dedicated path to flash memory resources for parallel data operations.

A memory controller delays suspend command output based on the read command queue depth to optimize timing.

A charge loss measurement cell tracks threshold voltage changes to calculate effective erase counts for nonvolatile memory blocks.

A host operating system allocates persistent memory as volatile memory during runtime to support virtual machine operations.

A hypervisor creates an anonymous memory page to share identical content across multiple virtual machines.

A memory management unit allocates data to heterogeneous storage devices based on access patterns.

Memory controller records previous physical page addresses in spare blocks to identify valid data after power failure.

A second level map index tracks valid pages in solid state drives to streamline block recycling operations.

A buffer allocation management circuit prioritizes internal static random access memory tags over dynamic random access memory buffers.

A semiconductor memory uses asymmetric switching element distances with added path resistance to balance current flow.

Service level differentiation in virtual memory systems resolves access latency trade-offs by assigning high-priority applications to low-latency RAM.

A storage system separates unshared and shared data to maintain sequential read performance for frequently accessed blocks.

A memory controller lock manager serializes write requests from multiple hosts to prevent concurrent access conflicts.

A Compute Last Message Digest instruction uses a padding state control bit to differentiate execution conditions for message authentication.

An IOMMU protection mode disables peripheral memory access by mapping all requests to a single translation table.

A memory controller copies data from an error-triggered source block to a dedicated mitigation block within the same plane.

Local memory hash tables locate data in remote memory, expanding capacity without increasing access latency.

A memory controller calculates read, write, and time attributes to determine operation modes.