Memory Architecture Accessing/Allocation TRIZ Cases

A valid data merging method copies source unit data to a target unit based on logical-to-physical address mapping tables.

Mapping control registers to system memory reduces context switching overhead while maintaining efficient access speeds.

A memory controller embeds write tokens in data streams to verify smart card responses.

A cache allocation governor adjusts the CPU portion size in a system cache based on real-time performance metrics.

Non-volatile dual in-line memory modules prevent warm boot attacks by verifying nonce values and locking regions during power transitions.

A method dynamically reserves storage space for metadata consistency checking based on the ratio of metadata to user data.

Transparent compression increases memory capacity while minimizing latency through a shadow address space and parallel processing operations.

A snoop filter reuses interconnect coherency control circuitry to handle invalidate transactions generated during victim entry eviction.

Memory controller parses segmented read commands to retrieve data from multiple logical addresses simultaneously, eliminating sequential operation delays.

A power management module flushes volatile memory data to nonvolatile storage during power loss events.

Unified neural image compression framework merges encoder and decoder modules to resolve holistic optimization bottlenecks in traditional hybrid codecs.

Partitioning SSD context data into slices reduces write latency and CPU idle time during restoration operations.

Memory mapped file regions eliminate system traps and permission checks, reducing execution time for parallel multiprocessor applications.

Configuration space mapping tables enable direct hardware access in virtual machines, resolving hypervisor driver performance bottlenecks.

An overlapping data cache maps object request graphs to entries using identifiers to retrieve sub-components from prior requests.

A reserved caching namespace bypasses host-write throttling to deliver continuous write bandwidth.

A physical region page address converter calculates base addresses and pointers via bit operations to streamline data access.

A memory controller generates a data map to identify valid data chunks across multiple planes.

Pre-generating file system data during initialization allows the controller to copy templates instead of computing structures, reducing formatting time.

A data storage device writes management data to a backup page before main data.

A memory controller dynamically remaps logical addresses to physical locations during data access operations.

Centralizing flash translation layer logic in the host device eliminates per-controller hardware, reducing system cost while maintaining RAID 5.0 data security.

Address rotation redistributes writes across multiple memory groups to extend endurance while avoiding the mapping table overhead of byte-addressable storage.

A Receive Packet in Ring queue mechanism writes small data messages directly to unpinned host memory.

Dividing tasks by cache size and classifying them by data reference ranges maintains high cache hit rates during continuous execution.

Cache controller sets image modification flags for virtual machine memory lines to track changes, reducing data transfer volume and avoiding page faults.

A memory controller manages data copying across nonvolatile storage blocks using multiple copy modes to ensure consistent processing times.

Processor detects uniform address intervals to execute stride accesses as single instructions, resolving speed versus flexibility trade-offs.

A solid state drive controller manages cache units by dividing them into groups based on operating status.

Reconfiguring remaining NVRAM drives into new virtual sets prevents system downtime when initial drive pairs fail.

Segmenting buffers reduces area and static power while maintaining throughput by distributing chopped data across parallel NAND channels.

A cellular modem processor implements a multi-mode PDCCH decoder using dedicated functional units for polar and convolutional decoding.

Decoded 2n-bit bitcells store one-hot words directly in state nodes to enable immediate data retrieval without intermediate decoding logic.

Network interface controllers log write packets in non-volatile random access memory to eliminate the write-twice penalty and reduce latency.

Tracking memory access patterns enables dynamic thread migration across NUMA nodes, reducing remote memory latency and improving system performance.

A digital-backed flash refresh mechanism compares analog array values against non-volatile memory to maintain output accuracy.

A device control unit calculates eviction counts to select erase blocks for memory storage.

Repair control circuit varies granularity to resolve defect occurrence rate.

Unified garbage collection across SLC and non-SLC blocks reduces unnecessary storage while maintaining write performance through dynamic threshold adjustment.

Command windows with buffer registers enable non-volatile memory to use standard DDR protocols, reducing bus complexity and write latency.

A cache latch circuit uses a two-dimensional arrangement of even and odd latches sharing data lines to reduce wiring overlap with local sense amplifiers.

A hub board connects multiple sibling boards via a common bus, alleviating complexity and expense of traditional distributed computing systems.

Configurable firewalls block subsystem communication at boot, preventing unauthorized memory access by restricting address ranges.

Transparent allocation of small files to SSDs and large files to spinning disks doubles throughput while halving costs compared to pure SSD solutions.

Segmented request processing units decompose data and route partial requests through a crossbar switch, resolving neural network memory access bottlenecks.

A nonvolatile memory module integrates dynamic random access memory as a cache layer alongside data buffers to accelerate processor communication.

Address mapping and segmentation enable comprehensive testing while identifying faulty modules.

Hardware address translators eliminate IOMMU latency and silicon area costs during processor communication.