Memory Adressing/Allocation/Relocation TRIZ Cases

Cache coherency manager selectively invalidates pending snoop requests before disabling processor caches.

Memory manager supplies dynamic survivor memory units during garbage collection cycles to handle active data copying.

A GPU demand paging system organizes input data into pages managed in a virtual address space and stored in physical cache.

A memory controller routes command and response data units through distinct logical block addresses to manage storage apparatus streams.

Direct memory access bypasses north and south bridges to reduce transmission time for high-speed data processing.

Unified virtual addressing across multiple VPUs reduces memory mapping complexity while enabling parallel cooperative rendering.

Segmented memory attribute units reduce permission checking time and power consumption by evaluating address ranges collectively.

Programmable hash tables map input keys to memory addresses via dedicated hardware circuits for fast data retrieval.

A credential allocator circuit generates unique identification values to map functions across multiple peripherals and channels.

Encoder module embeds source address in payload to bypass base address register limitations for efficient large block data transfer.

Dual configurable thresholds in the direct memory access engine reduce CPU utilization while increasing memory buffering capacity.

A memory allocation method locates unallocated addresses based on multiples of requested data size to enable efficient storage.

A memory controller processes multiple discontinuous addresses simultaneously to accelerate data retrieval.

A control server dynamically calculates virtual machine memory based on host capacity at launch.

Dynamically disables sleep states and modifies page files when main memory exceeds secondary storage, preventing system crashes from overflow.

Estimating shared cache miss rates allows the scheduler to assign threads and reduce latency caused by cache contention.

Segmenting address space into independent coherence planes reduces latency by allowing parallel coherency operations across multiple threads.

A shuffling unit randomizes memory access addresses, varying timing and energy patterns to prevent side-channel attacks on direct memory access systems.

Memory design tools calculate segment counts via scrambling data to satisfy masked write and upset requirements without degrading performance.

A hardware-compiled stream ring system serially clocks address indicator words through device modules, resolving dynamic data stream management challenges.

Segmenting compressed data into distinct memory modes balances storage capacity against read speed and endurance limits.

Memory controller queries program order and timestamp tables to adjust read voltage, reducing read failures from fast charge loss in charge trap flash.

Allocator reuses obsolete map entries to maintain storage allocation integrity during interrupted writes, reducing I/O operations and extra disk space.

Block writes compile operating data into contiguous segments to reduce write cycle frequency and enhance automotive controller reliability.

Explicit private and read-only cache states bypass global directory tracking, reducing messaging overhead while maintaining coherency.

A translation table maps attribute name strings to unique integer values, reducing processing burden and resource consumption in API protocols.

An object lifecycle engine constructs directed graphs to track reachability and identify unreachable objects for immediate destruction.

Point-to-point communication in shared memory mediates data transfer between processing stages, reducing device complexity while maintaining high throughput.

A memory controller issues coherency responses to processor cores for adjusting data prefetch request rates.

A variable length representation system stores machine learning statistics in n-bit and m-bit cells to optimize memory allocation.

A serial bus master transmits dummy bits to synchronize data exchanges with a slave device.

A network traffic management apparatus generates and stores a mapping of compressed blocks to object data.

Hardware-based checksums verify non-volatile memory integrity during restart, eliminating time-consuming data transfers to processing cores.

A validity logic system determines data status through configurable time and category rules.

A cache manager program intercepts network traffic below the application layer to enable secure peer-to-peer data retrieval.

A calculation unit splits image data into multiple planes to optimize drive time periods for OLED displays.

An address remapper repurposes unused memory in functional hardware circuits for a master device.

A multi-pipeline graphics system subdivides the frame buffer into a repeating pattern of square regions to ensure balanced load distribution across processing units.

A memory controller adjusts active write drivers in resistive memory devices based on NAND flash operational status.

A memory system determines block overwritability to selectively perform pre-erase operations.

Local current measurement at each bus node enables efficient auto-addressing while preventing bus master overload and reducing voltage drop.

A memory controller issues time-staggered burst-length 4 commands to dual DDR sub-channels behind a buffer.

An address conversion table and page status register allow selective output of latest and past data, reducing controller load during snapshot operations.

Unified memory interface merges message passing and shared access to reduce communication latency while maintaining data coherency across multiple cores.

Portable devices share memory resources via direct wireless links, relocating data to nearby units to resolve local storage constraints.

Segmented forwarding tables with rule-based translation resolve latency bottlenecks in packet switching devices.

An instruction address register file stores operation and memory location identifiers to track cache line origins within processor execution units.

Segmenting distributed caches into sub-numa clusters reduces latency by keeping frequently accessed data close to active processing units.

Evaluating threshold voltage distribution reduces detection latency and false positives compared to full bit error rate calculations.