Memory Architecture Accessing/Allocation TRIZ Cases

A programmable memory access processor manages address generation and data mapping for reconfigurable partitions.

FIFO prefetching translation units in the display pipe reduce memory access latency by eliminating translation misses.

A garbage collection method inspects non-volatile memory pages to identify valid data within specific planes for selective recirculation.

A flash controller maps function queues to dies for parallel instruction execution.

Host computers notify I/O devices of pending page swaps and estimated completion times, allowing devices to buffer or stall operations and reduce system delays.

Segments processor cores to invalidate only affected translation lookaside buffers, eliminating unnecessary communication overhead.

A branch predictor hashes instruction block addresses with multiple byte offsets to generate conditional branch indexes.

A dynamic last level cache architecture switches between read and write phases to optimize memory efficiency.

A controller manages nonvolatile memory recovery by updating state indicators during block repair operations.

A non-volatile memory controller sequences write operations via a log structure to optimize data storage efficiency.

A memory controller manages initial-address-unit groups and storage units to reassign addresses, preventing wastage of storage space when modifying data.

A demote instruction updates cache state to release exclusive ownership without waiting for acknowledgments.

Hardware asset control core prevents unauthorized feature activation by establishing a silicon root of trust for secure key injection.

Integrated temperature sensors enable localized memory throttling that prevents bandwidth drops below user expectations while managing excessive heat.

Control modules compute and transfer content-based signatures instead of full pages, reducing network bandwidth consumption during small write operations.

A memory control circuit unit segments logical units into distinct areas to optimize data distribution across physical erasing units.

Segmenting authentication knowledge across client and server devices prevents third parties from accessing complete credentials during user verification.

A unified hardware and software two-level memory scheme combines near volatile DRAM with far storage-class memory accessed via a low-latency fabric.

A processor maps target data onto a process address space by marking unused tree nodes as use nodes to reuse virtual areas.

Intercepting geometry updates via a filter driver broadcasts changes simultaneously, eliminating redundant operations and reducing latency.

A processor execution unit swaps register designations to execute hash rounds without moving state data.

External buffer memory manages large map data volumes while ensuring safe recovery during sudden power-off events.

A non-volatile memory controller detects multistate error indications during the write process to correct data before read access.

A write back policy flushes modified cache data based on idle core counts and thread activity.

Segmented controllers buffer data in non-volatile memory to maintain integrity during power loss.

Segmented cache memory guarantees real-time bandwidth for display processing, reducing glitches and power consumption.

Machine learning models predict field values in unlabeled master data tables to generate recommended corrections.

A flash memory controller stores logical pages in spanning read units using identification headers to locate data across boundaries.

Hierarchical error checking identifies defects in first-level cells before read disturbance degrades retention efficiency, preserving data correctness.

A memory control circuit unit switches to single-page programming mode upon detecting unexpected power loss.

A victim buffer stores evicted cache lines with address tags to enable rapid cache space reuse.

Segmenting memory references into portable region identifiers and local offsets enables cross-host access without complex global address translation.

Single requests retrieve hierarchical nodes to reduce command overhead and improve management efficiency.

A processor loads data elements by sorting them into storage units from adjacent memory areas.

Controller toggles fetch modes to align write commands, reducing latency without increasing buffer size.

Pairing logic units enables sequential data writing to eliminate idle waiting time and improve NAND bus transmission efficiency.

A memory controller sends column addresses and data only to changed cache blocks, skipping unchanged ones.

Memory controller adjusts program and erase voltages based on process capability index to compensate for structural deviations from target shapes.

Storage array identifies pre defined input output patterns to generate application consistent snapshots, eliminating host agent complexity.

A data port framework merges partial memory addresses from multiple SIMD messages into a single cache line address.

A persistent power enabled on-chip data processor transfers volatile memory data to non-volatile storage using emergency power supplies.

A remove-on-delete command marks invalid data on solid state drives to prevent unnecessary write operations.

A predictive block allocation method adjusts storage memory strategies based on detected usage scenarios to optimize garbage collection timing.

A phase-change memory cache duplicates frequently accessed NAND pages to enable faster data retrieval and preserve information during power cycles.

Transfer agent routes cache lines directly to requesting nodes, bypassing the local coherency node to reduce interconnect congestion and access latency.

Dynamic cache management aligns track retention with application hints to reduce unnecessary destaging operations between DRAM and SCM tiers.

A volatile memory module uses a backup energy source and controller to emulate non-volatile operations through self-refresh mode.

Register-defined address ranges enable direct cache-to-NAND data write, eliminating extra memory components and reducing circuit area.

A memory controller uses a writing mode table to switch between high-speed multilevel and protected single-level data writing modes.