Memory Architecture Accessing/Allocation TRIZ Cases

Pre-allocated page table entries allow nested virtual machines to access SR-IOV capabilities without runtime delays or memory overhead.

Page table attributes enable dynamic prefetching without pattern analysis, reducing memory latency.

A read cache memory apparatus manages data movement between a DRAM array and two NAND arrays.

Processor route tables use index offset information to identify memory access resources for incoming requests.

A zoned storage controller manages out-of-order write commands using a logical-to-physical address map and temporary buffer.

A memory system uses dual control units to manage data writing operations and enforce protection states.

A memory controller routes data with high error bits to a keep buffer for storage and correction.

A cache retrieves data from a processor prior to receiving a node buffer identifier, accelerating non-cache data writes in multi-core systems.

A compressed memory controller uses a translation lookaside buffer to map physical addresses for efficient data storage.

A controller decouples volatile memory from the host and writes data to multiple non-volatile memory channels for redundant storage.

Upper-level prefetch units convey physical address translations to lower-level units, preventing stalls at page boundaries.

A local scope atomic instruction locks only the target cache line to execute read-modify-write operations without system-wide memory blocking.

Unified memory access maps client and server regions to synchronize changed data blocks, reducing network saturation in GPU distributed systems.

Dynamic compression reduces off-chip memory access and power consumption while managing computational overhead.

Graphics subsystem RAM caches main system data, bypassing slow hard disk bottlenecks.

Internal copying via shadow memory bypasses the host interface, reducing bandwidth contention and improving file transfer speed.

A memory controller manages blocks and string units using a Partial Bad Block Table to identify defective components.

A machine learning module anticipates customer data requests by analyzing historical usage patterns to pre-populate server caches.

A storage controller allocates free memory blocks and checks garbage collection success to maintain device stability.

Pre-saves disk location metadata in cache headers, eliminating re-reading overhead during abnormal database restarts.

Redundant traces and curvilinear solder mask edges distribute stress and enable alternative data storage paths when primary components fail.

Chip interconnect interfaces forward memory access requests between chips, reducing processing time delay and power consumption.

A DIMM card integrates DRAM and non-volatile memory to cache system data during operation.

Filter constructs route address translation invalidation instructions only to relevant processors, reducing latency in large symmetric multi-processor systems.

Buffer memory stores incoming program data while the controller copies valid data from victim blocks, eliminating write delays caused by storage reclamation.

Dynamic addressing maps logical to physical addresses, eliminating erase wait times from the write path.

A multi-grained writeback cache uses fine block descriptors to allocate variable-size chunks for efficient data storage.

Pre-boot compatibility verification detects boot disk alignment with updated encryption software, avoiding decryption delays and data exposure risks.

Scatter Gather Lists direct DMA transfers from cache memory independently of indexing data, eliminating region locks that cause processing delays.

A memory controller establishes a link list to prioritize erase commands on spare physical blocks.

Defragments chip card memory to create contiguous space for compressed user data, extending usable storage capacity.

A multi-way L1 instruction cache reserves space for non-instruction data to optimize prefetching efficiency.

A dynamic linker relocates program modules to known virtual addresses, enabling memory de-duplication across multiple virtual machines.

Offset-based string encoding embeds context within execution traces to resolve information loss during debugging without increasing device complexity.

Dynamic virtual band mapping adjusts address counts to resolve adjacent track interference while maintaining directional consistency.

Segment-based erasure reduces latency and energy consumption by avoiding full block wipes during mixed workload operations.

A multithreaded memory management unit processes address translations in parallel using multiple translation table walkers.

A RAID resiliency set allocates segments from storage devices to create sub-RRSs.

Segmented queues and hazard detection reduce head-of-line blocking in graphics processor cache systems.

Prioritizing cached security keys reduces DRAM loading latency and power consumption during secure data operations.

Logical sector division minimizes erasure disturbance by restricting batch erasure to fully written regions, preserving data integrity during frequent updates.

Controller detects memory usage and processing times for SRAM and DRAM layers to determine optimal allocation.

Segmenting a pinned shared memory pool allows RDMA operations while preserving memory overcommitment and reducing processor overhead.

A memory system buffer manager generates and compares parity bits to identify defective addresses within volatile storage areas.

Agent VMs isolate guest VMCS from the host VMM, preventing unauthorized data access.

A credit-based mechanism moves data between solid state drives to balance wear distribution.

A cache controller dynamically allocates permitted and inhibited memory areas based on backup power supply capacity to manage dirty data storage.

A memory system uses configurable address tables to translate logical addresses at different granularities for video and image data.

An adaptive configuration manager identifies host profiles to optimize memory access commands.

Hardware-enforced linear capabilities transfer physical access rights between software modules without retention, resolving hypervisor trust compromises.