Memory Architecture Accessing/Allocation TRIZ Cases

The device reports superblock sizes so hosts align streams, reducing fragmentation and write amplification.

Serial shift buffers let MAC units reuse matrix data, cutting bandwidth and power.

Retain transfer-queue commands after LUN failure to cut power and traffic.

Predecode caching activates full instruction length decoding only for uncertain sections, reducing power and decode latency.

Contiguous namespaces and cached mapping information reduce fragmentation while preserving rapid host responses during defragmentation.

Kernel monitoring flags RDMA mapping changes, avoiding redundant registration and data corruption.

Separate VM credit counters and programmable delays enforce fair memory bandwidth, improving throughput and performance determinism.

A signal development cache overlaps memory-cell signal preparation with sensing, reducing latency and improving output throughput.

This case uses data characteristics and direct-mapped flash storage to reduce redundant writes and improve reliability.

A transaction manager uses page bitmaps, early write acknowledgments, and read prioritization to reduce deduplicated-memory latency.

XOR-combined protection data and counter tracking support parallel cursors and garbage collection without data loss.

This case uses bank groups and clusters with tiered access intervals to manage timing constraints and improve memory data transfer.

A bus arbiter and control circuit switch volatile SRAM to power-saving mode after idle access periods, reducing processor workload.

Access counters order background media management operations, protecting memory cells from read disturb and thermal stress during use.

Zone and page maps speed reads while organizing full zones and access errors.

A data fabric adjusts shared last-level cache power states, preserving content in retention mode to reduce energy and resume latency.

An ATS controller estimates address-translation statistics and reconfigures ATCs for page-size patterns, reducing latency and memory waste.

Queued LBA-aware prefetching loads required metadata pages early, reducing IO thread waits during metadata-intensive operations.

This case adjusts read look-ahead cache capacity from queue activity to balance pre-fetching, read performance, and resource overhead.

The controller monitors core wear and write counts, swapping data only in imbalanced logical areas to extend memory life.

A storage controller checks one representative page, then selects internal or external copy-back to reduce migration time.

Programmable linear or circular addressing across nested loops reduces latency, cache misses, and CPU data-streaming work.

Template matching uses scaled images and in-memory correlation to reduce data movement, processing time, and power consumption.

Partitioned cache keys limit re-keying overhead while strengthening side-channel protection.

Migrate data across hybrid storage without page locks or write-consistency conflicts.

An independently powered memory portion is erased after tampering, leaving the stored key undecipherable even if hardware is compromised.

A controller detects failing MLC cells and remaps their data to SLC storage, balancing cost, reliability, and NAND lifetime.

A dirty L2P table counter compares neighboring nodes to reduce SRAM needs while tracking storage mapping updates efficiently.

Logical and physical trees guide node reallocation after failure. NVMe-oF recovery maintains service continuity without topology changes.

A DMA device separates local and remote memory paths through a network interface, reducing packet latency in disaggregated memory.

This case uses a CXL switch and shared CXL memory to manage map data for multiple storage devices without dedicated buffers.

Dual-port SerDes memory enables software-configured capacity sharing across computing hosts.

A slave protection unit checks master and thread identifiers to enforce fine-grained access control on shared bus slaves.

This case uses data object extent fields in pointers to improve cache-line prefetch accuracy and reduce unnecessary power consumption.

Network nodes monitor shared-buffer QoS and exchange throttling messages to adjust request injection rates, reducing contention and latency.

A controller uses memory-device power profiles to schedule command batches, balancing storage throughput with constrained power budgets.

Controllers move PoC and PoS responsibility toward active NUMA clusters, reducing interconnect traffic and coherency-check latency.

Flow-specific queues and return acknowledgments let switches detect congestion per flow, improving fairness and network utilization.

This case maps file pointers to physical block addresses in the SSD controller, reducing latency from layered file reads.

An MPR instruction translates virtual addresses before DMA, enabling synchronous or asynchronous handling of page faults.

Dummy wordlines proxy charge loss in denser cells, reducing dedicated circuits and tracking tables while preserving flexible calibration.

A CXL memory controller ranks candidate data with locality algorithms before host requests, reducing access latency and bandwidth waste.

This case uses NIC-side aggregation, ALU processing, and paced network operations to scale allreduce for deep learning workloads.

This case shows how an interface serves read-after-write data directly, reducing cache-controller workload and memory access latency.

Pre-established address mappings let clients direct data to storage devices, reducing CPU address calculations and write delay.

This case synchronizes the fetch pipeline after TLBI requests, avoiding full flushes and execution halts on remote processors.

A controller reorders overlapping read and write commands, using linked cache buffers to avoid NAND access and data override.

Timestamp metadata separates hot and cold data, guiding selective wear leveling, compaction, and cloud transfer in storage devices.

A paired physical-zone layout and random-write buffer manage SSD I/O while reducing delays from sequential erase operations.

This case uses erase-unit cell assignments and buffered sequential writes to reduce write amplification and extend storage reliability.

Flash controller migrates user data to continuous physical addresses via garbage collection.

A software installation method updates memory region security status after target software verification.

A database management system uses selective cache coherency to balance performance and power consumption across multiple cores.

A prefetch logic unit links cache lines and tracks historical changes to cache coherency protocol states.

Modified start-gap wear leveling excludes unusable management units from the address space to reduce latency and enhance data reliability.

Caching transfer request blocks minimizes repeated memory access, reducing time overhead during data transmission.

Instruction hints guide hardware to interleave memory spaces across sub-NUMA clusters, reducing cache miss rates and access latency.

A cloud file system manages local memory by caching files based on priority and attributes.

Synchronizing flash memory block refreshes based on temperature reduces total elapsed time and energy consumption during error-prone thermal conditions.

A service layer adapter translates effective addresses to real addresses for accelerator memory access instructions.

Periodic buffer comparison of cache and non-volatile storage data prevents mismatch errors during failover in dual server controllers.

Integrated memory processing executes Boolean logic on stored data, eliminating communication bottlenecks between multiple processors.

A hybrid memory scheduler assigns data processing functions to DRAM or NVM based on write intensity metrics.

Encrypting capabilities in global memory prevents unauthorized propagation while maintaining efficient sharing across rack-scale systems.

Memory interleaving method allocates interleave group access across all DDR channels to maximize bandwidth and minimize latency.

Clearing media scratch pad headers during idle states eliminates redundant examination after power cycles, reducing time to recover from 200 ms to 20 ms.

Instruction control converts external commands into memory access and computing instructions to reduce data loading time and improve computing efficiency.

A direct-mapped flash storage system moves data management to the operating system level to optimize small file transfers.

Operating system performs memory initialization and hardware training to generate configuration data, reducing system management mode entry time.

A container loader mounts priority layers from high-performance memory to accelerate runtime initialization.

An integrated data mover bundles data changes to reduce write amplification and improve flash memory endurance.

Active and passive baseboard management controllers arbitrate commands to resolve NVMe-MI protocol limitations for high availability.

Flexible memory compression reduces volatile-to-nonvolatile transfer frequency by storing sequentially indexed address mappings in condensed change log entries.

A unified virtual memory architecture merges host and device memory spaces to enable direct parallel processing across heterogeneous system components.

A memory management unit sends virtual address data to a router for processing by an external memory control device.

A memory analyzer reassigns virtual addresses to merge scratchpad and cache memory into a contiguous space.

A processing device segregates data streams by access patterns to match memory tier characteristics.

Lookup circuitry stores virtual addresses in translation lookaside buffer storage to prevent repeated page walks.

Extracting key management to the processor prevents exposure risks while maintaining secure command execution.

Segmenting management information into distinct tables reduces complexity while maintaining accurate data storage during large capacity operations.

An SSD controller unmapping a dummy region in volatile memory to copy invalidated data, reducing write amplification and latency during formatting operations.

Performing deduplication and compression on raw host data within the data cache before logger placement prevents NVRAM connecting bandwidth bottlenecks.

A cache management process calculates item popularity probability to adjust storage ranks dynamically.

Internal XOR logic and buffers swap data between memory regions, reducing communication overhead with the controller.

Separating transient metadata from persistent state reduces cell wear-out and power consumption in non-volatile memory systems.

A memory sub-system uses asymmetric keys and changing symmetric keys to encrypt data between host and storage.

A processor circuit uses a shared memory unit with buffer management to optimize data access.

Segments the index into local views and uses a DRAM mediator to reduce remote access and prevent exponential bandwidth consumption.

A NAND controller loads specific logical-to-physical regions using a bitmap, reducing search time during garbage collection.

A hypervisor manages pseudo-physical page mappings to store data in shared memory across virtual domains.

Dynamically adjusts wear leveling limits based on erase stages to balance erase evenness and system performance.

A graph state system manages cached resources through dynamic garbage collection and deduplication policies.

A cache controller probes non-cache buffers to adjust replacement priorities for candidate cache lines based on memory address associations.

A flash controller links retention parameters to stored data for targeted refresh operations.

A system program manages data map information to associate identifiers with virtual and physical memory areas.

A storage controller regenerates data access predictions by comparing concentration state tendencies across distinct time periods to maintain high precision.

Storing leaf nodes and index nodes in the same flash memory page reduces write cycle consumption while maintaining data access speed.

Direct virtual memory addressing fetches payload data across noncontiguous buffers without CPU copying.