Memory Architecture Accessing/Allocation TRIZ Cases

Caches PCI device expansion ROM microcode in BIOS memory to reduce boot time and production costs.

A memory controller manages solid-state storage visibility through a PIN-secured security device.

Group-level statistical temperature measures compensate non-volatile memory cells, reducing storage overhead while maintaining read operation success rates.

A latch-free log-structured storage system manages page data via a data opaque interface.

Integrated monitoring circuitry tracks wear and operating parameters within memory devices to correct inaccurate lifetime predictions.

A storage controller suspends an ongoing write operation to execute a high-priority read request from non-volatile memory.

A memory controller replaces detected bad blocks with target system blocks to maintain multi-plane operations.

A storage controller writes meta information to buffer memory during unit data transfer between nonvolatile memory and host.

Dynamic cache way scaling adjusts memory capacity based on supply voltage levels to maintain operational integrity.

Segmented memory banks and weight compression reduce bandwidth requirements, enabling rapid 3D convolution operations.

Segmenting physical memory into logical regions accommodates diverse device technologies while resolving uniform management complexity.

A controller analyzes command queue patterns to dynamically adjust write processing schedules.

Flash controller encrypts physical address mappings using an intermediary mechanism, preventing unauthorized access to internal management information.

Segmenting the directory into foreground and background scopes reduces total entries needed during partial overwrites, minimizing data fragmentation.

Targeted hardware tracking eliminates broadcast overhead and accelerates virtual memory page invalidation across multicore systems.

A property unit determines volatility and executable information of nonvolatile memory objects to automate action decisions during device restart.

A memory controller registers system-max NOE values per logical area to manage spare physical block allocation and drive wear leveling decisions.

Point-to-point communication channels eliminate shared bus signal integrity degradation by connecting host devices directly to memory dies.

A multi-column decoder selects multiple target columns simultaneously to enable parallel data write and read operations.

A memory controller scrambles input data using a random seed and invalidates the seed after one read operation.

A memory controller caches translation information in a volatile buffer to accelerate address mapping lookups.

A storage controller manages cache memory by tracking dirty data ratios and triggering write-back operations when thresholds are exceeded.

Direct data transfer between host computers and FBOF devices bypasses the storage controller bottleneck to enhance read IO performance.

Storing pre-computed result sets in a shared cache reduces CPU usage and I/O operations during database query processing.

A reverse directory manager circuit accumulates footer entries in buffer memory until a complete data structure forms for insertion into the write stream.

A DRAM device copies dirty cache lines to a flush buffer using tag and flag indicators.

Segmenting the data address space into a stack cache with contiguous tags resolves non-contiguous search bottlenecks and reduces power consumption.

A storage device tracks logical-to-physical address mapping changes using indicator bits to transmit only modified entries.

Extent allocator maps logical block addresses to physical drive locations, avoiding adjacent track overwrites in shingled magnetic recording hard disk drives.

A storage control apparatus divides physical regions using multiple conditions to track error occurrences and select targeted recovery methods.

An optical switch fabric connects host nodes to a shared memory pool, extending distance limits imposed by PCIe interfaces.

Adjustable write policies resolve post-tape-out rigidity by enabling microcode-driven selection of branch prediction table allocation schemes.

A hybrid storage system combines MRAM, NOR, and NAND memory to manage data placement across tiers.

Switching units mediate access circuit voltages to prevent breakdown in variable resistance elements, stabilizing distribution and increasing read margin.

Grouping media segments into blocks reduces server storage costs while maintaining streaming speed.

A computing device encrypts a cryptographic key using a compact fuse-stored seed to store the result in external flash memory.

A memory control circuit unit selects programming modes based on erase counts to distribute data storage across physical erasing units.

A cache memory system uses mathematical hash lookup tables to identify unique data portions before storage.

A managed-NAND testing device captures memory access requests and logs events via finite state machine circuitry.

Local address remapping redistributes data segments across added storage nodes to balance capacity without moving physical data.

Modular address translation maps binary inputs to non-binary physical sectors, reducing die size and spare area penalties in constrained packages.

Segmenting erase operations across physical units allows concurrent host writes, reducing buffer memory capacity requirements.

Preloads address translation data into IOMMU cache to eliminate table walk latency and reduce DMA access delays.

A memory controller records optimal read voltages in a lookup table, reducing error bit counts during decoding.

A solid-state cache controller converts RAID 1 mirrors to RAID 5 groups to increase usable storage space.

Precomputed graph paths in a dedicated cache eliminate heavy real-time computation, enabling horizontal scaling for dense vertex processing.

Block tracking entries reduce excessive snoop traffic from high-bandwidth GPUs while maintaining strict cache coherence.