Memory Architecture Accessing/Allocation TRIZ Cases

Segmenting writes into headers and payloads allows smaller acknowledgments before large transfers finish, reducing latency while maintaining recovery integrity.

A memory data access apparatus adjusts cache block sizes dynamically based on address ranges.

Non-sequential LBA processing bypasses sequential read constraints to maintain continuous operation during error recovery, reducing total read time.

Caching mapping data eliminates direct DRAM buffer access, reducing latency and improving read performance during host command processing.

High-order address space reuse enables direct kernel resource access, resolving performance bottlenecks caused by page table copying overhead.

A disturbance preventing circuit tracks write accesses to perform targeted scrubbing on memory cells.

A flash memory architecture divides storage into three regions to manage data stability and location tracking through dedicated metadata fields.

A page allocator identifies suitable memory modules based on power policies to allocate space.

A universal data structure combines multiple data units into erasable blocks to enable a single file system image across varying memory types.

Parallel plane writing separates data streams by heat level across memory planes, doubling supported levels without increasing open block-stripes.

A host controller writes data packets to NAND flash memory and fills unused capacity with duplicate copies or whitened data.

Segmenting cache macros into compartments hides subarray failures, reducing offline capacity while maintaining system performance.

Segmenting odd and even bit lines reduces parasitic capacitance coupling noise, improving read performance without increasing device complexity.

An incoherency detection module tracks global writes to enforce read order.

Segmenting virtual addresses into index and tag bits reduces comparator circuit area while maintaining high processing speed for mass translation data lookup.

Write operation controller detects errors during data movement and triggers recovery by storing corrected data in separate block groups.

An SoC IP core extracts address range identifiers to route access commands via the bus.

Main processor saves dedicated virtual RAM segments from co-processors to persistence storage.

A mid-level instruction cache shares instructions across multiple processor cores in a network processor memory subsystem.

A memory subsystem uses per device addressability to target configuration commands via a command bus without relying on the data bus.

A nonvolatile memory pinning system manages user-specified data sectors to accelerate application loading.

Multi-node processor network reduces read request phases from five to four by analyzing node replies directly.

A distributed page table management system enables parallel processing units to handle page faults independently through unified memory architecture.

A memory controller allocates addresses for multi-level cell blocks and determines logical page data transmission sequences based on plane correspondence.

Prefetches unused keys into memory before garbage collection rounds begin, reducing disk read latency and reclaiming storage space efficiently.

Shared memory controllers translate node addresses via global maps, resolving interconnect complexity and bandwidth bottlenecks in high-performance computing.

A controller map cache separates random and sequential data using a flag bit to optimize storage segments.

A generic vectorized d-heap splits key values into prefix and suffix components stored in separate heaps.

A memory controller establishes indexes to sort map data into specific blocks.

A flash memory controller groups physical blocks into data, spare, and random areas to manage discontinuous writes.

A neural network partitioning strategy distributes model weights across multiple processing cores to enable local caching and parallel execution.

A virtual address mapping system shares a single code copy across multiple processors using unique offset values.

Segmenting flash cache into SRAM and DRAM reduces energy consumption while maintaining high I/O throughput.

Buffer-based thread selection prioritizes instructions by count and wait time, reducing resource bottlenecks from mispredicted branches.

A unified data path architecture expresses block-based and file-based objects as files within an underlying file system.

Double-sided substrate positions flash memories away from heat sources to extend service life.

Storage processors convert active cache areas into management information space to secure redundancy without pre-allocating memory capacity.

Central collector allocates ray packet identifiers across computation units, resolving memory access bottlenecks in scalable 3-D rendering systems.

A table entry formatter converts page table entries to match cache configurations.

Segmenting program routes reduces calculation complexity while maintaining comprehensive vulnerability evaluation certainty.

A memory controller segments meta-data into modified slices and context data to streamline storage operations.

A storage device directs data to specific memory cell types based on calculated write priority levels.

Splitting physical block addresses between a main buffer and metadata buffer resolves unalignment issues in high-capacity solid-state drives.

A memory component stores updatable trim profiles to enable user-modifiable register configuration during system initialization.

A flash cache index rebuilds by extracting metadata from container headers using parallel thread reading to maintain partial availability.

A group write command bundles multiple logical addresses into a single request for the storage controller.

A dynamic caching system replicates cache units based on client usage similarity to improve data retrieval responsiveness.

Encryption circuits secure in-storage processing by isolating malicious code attacks while maintaining high-speed data throughput.

A controller selects source blocks with excessive logical group amounts and moves target data to a destination block.