Memory Adressing/Allocation/Relocation TRIZ Cases

Page table entries map virtual addresses to non-power-of-two DRAM partitions, resolving yield losses from rigid power-of-two chip scaling.

Global memory acts as non-volatile random access memory for journaling, eliminating extra hardware while reducing storage system recovery time.

Hardware-managed RDMA offset registers dynamically compute memory addresses to eliminate software-hardware synchronization overhead.

Address mapping decoder in master controller reorders requests to optimize bank interleaving, overcoming resource-constrained slave limitations.

An address translation unit shifts the accessed memory area via an offset register, eliminating extra host-device interactions for large data transfers.

A memory controller adjusts string selection line sequences to distribute voltage stresses evenly across vertically stacked cells.

Write-protecting duplicate pages and deferring deduplication reduces kernel same page merging latency during memory pressure events.

A database storage system maps tablespaces to logical units and caches sized equal to the tablespace block size.

A tag unit parses virtual addresses into portions and reduces indexed bits using XOR trees to generate memory module numbers.

A registered dual in-line memory module uses a software programmable control register to expand the feature set without increasing pin count.

Higher-level cache filters external probes using inclusion bits while underlying caches retain issued fetch requests.

Segmenting repair circuits into groups allows selective activation based on access patterns, reducing peak power consumption and leakage current.

Encoding page data groups with distinct binary codes maps each group to a single read voltage level, reducing read operation time and memory cell wear.

Shuttle storage devices duplicate data locally and physically transport it to target locations, resolving bandwidth constraints during massive data migration.

A write-back cache manages live blocks to reduce segment cleaning read operations.

A memory controller identifies and commands NAND flash devices over an 8-bit data bus without dedicated chip enable pins.

Encrypting L3 cache lines with per-VM keys prevents side-channel attacks and data leakage between co-resident virtual machines.

A memory controller generates new channel-to-die block mappings to optimize valid die operations.

Minimizes slot rebinding operations by aggregating shader constants into buffers, reducing redundant state modifications during rendering.

A memory-mapped interface translates addresses to route data directly into neural network input buffers.

BIOS calculates per-core latency to assign mapping priority levels, resolving suboptimal memory access performance in multi-core processors.

Sensing circuitry executes memory swap operations locally within the array, eliminating data transfer via input/output lines to reduce power consumption.

Pinning deep learning weight data to CPU memory enables direct coprocessor cache loading, eliminating fault handling overhead and reducing GPU oversubscription.

A memory controller masks defective bits in retired DRAM rows to store debugging logs, resolving the contradiction between reliability and storage capacity.

Dual-bank EEPROMs with internal buffers allow simultaneous data reception and programming, eliminating I2C bus blocking during write cycles.

Dynamic runtime allocation of scratch pad memory unit blocks reduces waste from static schemes and supports dynamically generated tasks.

An address decoder uses dynamic NOR logic to selectively activate memory cells via inverted AND operations.

A firmware update method calculates and transmits only block differences in flash memory using gRPC.

Unique identifiers enable trace file generation for error localization in complex USB4 subsystems with multiple protocol layers.

Separating the memory die from the fluidic die reduces silicon area while increasing memory capacity.

Sorting write requests in on-chip memory before off-chip storage resolves the trade-off between high-speed access and large capacity.

An AUFS filesystem unifies built-in flash memory and external cards into a single storage space.

Electronic units use counter comparison for implicit addressing to enable fast data transmission without explicit address pins.

Uniform pipelining across identical ports enables concurrent transfers, resolving bottlenecks from sequential processing and external memory coupling.

A telephone book data processor manages multiple memory regions to execute transfer and utilization processes simultaneously.

A command decoder interprets signals using latched logic levels and operating state to expand available commands.

A memory system consolidates non-volatile storage and volatile processing spaces for multiple processors using a shared dual-port RAM architecture.

Firmware partitions a global memory pool across computing nodes using an intermediary mechanism, eliminating specialized hardware complexity.

A method calculates optimal buffer memory size by analyzing writing and reading operations of executable tasks.

A method adjusts read voltage thresholds based on storage cell characteristics to configure non-volatile memory.

A control circuit selects reversible-resistance memory cells based on initial switching difficulty and temperature.

A multi-processor circuit uses a conflict resolution scheme to guarantee higher minimum access frequencies for associated memory banks.

Partitioning data blocks into buffered stream sub-batches ensures exactly-once processing while reducing coordination complexity and latency.