Memory Architecture Accessing/Allocation TRIZ Cases

Segmenting a FIFO queue stores partial data sequentially, preventing processing delays when input endpoints remain unknown.

Distributing data units across N independent memory banks enables parallel row and column access, reducing clock cycles required for processing.

A data merging method selects valid pages from a logical block and writes them to a new physical block.

Segmented foam and rigid members resolve the trade-off between load transfer capability and seismic movement while eliminating tripping hazards.

Thread page directory tables map local data copies to specific entries, eliminating remote memory access delays in NUMA systems.

A memory controller executes block merge operations to consolidate data from victim blocks into target blocks.

A vehicle transfer dongle extracts electronic control information from an existing module via the OBD-II connector.

A hypervisor manages virtual memory pages by comparing addresses and local sizes to trigger swapping between compute blades.

A distributed flash translation layer manages write ownership reservations for shared nonvolatile memory access.

Single memory handles access matrix operands to reduce allocation overhead in computing systems.

A memory control circuit unit selects physical erasing units based on operation and usage situation values to copy valid data.

A Baseboard Management Controller caches hardware-bound SPDM certificates locally.

A solid state storage system manages wear leveling by replacing worn memory blocks using reference values stored in a buffer unit.

A flash memory controller reads pages sequentially after power restart to mark the last correct page and configures dummy pages for data storage.

A memory controller assigns output priorities to parallel read operations based on total operation time calculations.

Virtual memory management apparatus allocates system and swap resources dynamically across multi-processor nodes.

A memory controller uses an LPN translator to map logical addresses directly to physical page numbers in a dedicated address space.

A secure access control module verifies physical presence to enable encryption on self-encrypting storage devices.

Cache controller decouples store completion from CPU execution, eliminating synchronous stalls and OS intervention overhead.

Memory management software updates translation lookaside buffers based on missed virtual addresses to enhance translation efficiency.

Partitioning flash memory into read-only and read-write segments minimizes write cycles, extending device lifespan while maintaining fast boot speeds.

A single shared SRAM stores tag and data entries alongside a lookup buffer to enable speculative reads.

Compression offload hardware compresses and destages volatile memory metadata to non-volatile storage, reducing standby battery requirements.

A storage controller checks logical-to-physical map entries for errors before storing them in non-volatile memory.

A recovery cache stores pre-calculated data blocks from failed storage devices to serve I/O commands without redundant calculations.

Analyzing request metadata classifies inquiries and updates, reducing bandwidth costs by serving cached data directly.

A hypervisor modifies page tables to write-protect memory ranges during virtual machine migration, eliminating unnecessary Page Request Messages.

A translational memory buffer executes speculative read requests to pre-load data before demand arrives.

A flash memory controller builds a physical block recording table to track valid data pages during garbage collection operations.

Integrating MRAM cells into a single chip unifies cache and storage functions, eliminating separate memory technologies that increase device complexity.

Predefined block pointers reference pre-allocated special data in memory to eliminate redundant disk writes.

A solid-state storage subsystem maintains usage statistics reflective of its wear state to report remaining useful life.

Logically separate storage areas isolate frequently modified game code from stable core program code to enable selective execution.

Read snapshot and in-place write update instructions move data between processing units without altering cache line coherency states.

Staggered garbage collection units distribute memory across dies to maintain consistent transfer rates during concurrent multi-user access.

Hardware structures map PASID handles to values, eliminating context switch overhead and improving system efficiency.

Memory controller manages storage spaces across multiple nonvolatile memory chips by integrating and dynamically adjusting namespace configurations.

Machine learning predicts infrastructure commands to pre-fetch data, eliminating latency spikes from resource contention.

A non-volatile storage device coalesces write requests by analyzing historical input output sizes and sequential access patterns.

Fragmenting datasets across a decentralized peer-to-peer network eliminates single points of failure while maintaining high data accessibility.

A controller calculates stress values for memory blocks using erase completion and suspend counts to manage wear levels.

Aggregated directory updates process eviction requests concurrently via FIFO memories, reducing area and power consumption while maintaining cache coherence.

A prefetch filter queue updates a dynamic prefetch value based on cache hits, reducing cache pollution and processor wait states.

A hardware security processor with a remapping unit manages encrypted data access via address translation.

A prefetching system adjusts data volume and trigger distance based on cache access rates.

A way enable table stores thread IDs to selectively power cache ways.

Controller indexes used segments in an unsafe free list to prevent reuse until cleared, reducing costly unscheduled synchronization during crashes.

A storage controller duplicates data across separate volatile and non-volatile cache areas to maintain high-speed IO performance.