Memory Adressing/Allocation/Relocation TRIZ Cases

A cross-domain filtration system uses egress and ingress filter tasks to isolate data across security domains in multicore processors.

Dynamic bank address reassignment groups logical banks physically adjacent, halving current draw and minimizing voltage drops across the chip.

Adjusting program verify voltages increases storage capacity by enabling multi-level cell operation without modifying physical device structure.

A contention detection circuit switches atomic memory operations from local to shared storage, eliminating ping-ponging between local memories.

A bridge device detects reduced accessible capacity in external hard drives connected via non-native buses.

A redundancy resource comparator for a memory bus architecture segments address signals to limit switching activity during bit comparisons.

Caching segmentation context specifiers in an MMU resolves the trade-off between storage capacity and memory access speed.

A shared texture engine manages descriptor data across logic blocks using a prefetch buffer and arbiter for efficient pipeline handling.

Segmenting non-volatile memory preserves critical accounting data while enabling dynamic game changes without downtime or data loss.

A cache controller marks entries obsolete to prevent uncorrectable errors.

Segmenting the media cache reduces metadata analysis and computational complexity, resolving performance trade-offs in random workloads.

Configurable prefetch policies limit total volume, unit count, or time ranges to reduce access latency while managing finite cache capacity constraints.

A distributed computing system segments global graphs into layered server partitions to enable real-time user-specific data updates.

A two-instruction array access method validates index ranges before calculating memory addresses.

A PLC data log module stores log data in internal flash memory alongside external CF and USB drives.

Partial reconfiguration segments memory controller logic to maintain critical timing paths while reducing storage space for multiple variants.

Segmenting volatile and nonvolatile memory stores vertex values and graph data separately, reducing checkpoint time during iterative computations.

A demand paging window manages page faults in embedded systems without operating system support.

A buffer memory device manages data entries by tiering non-head-of-line items to lower storage while reserving higher tier space for critical requests.

Splitting pre-decoding across hierarchical caches reduces power consumption while maintaining instruction throughput.

Preselecting exclusive modified entries in a snoop filter reduces cache miss rates and back-invalidation traffic.

A video memory control section manages image data loading and deletion to optimize memory usage.

Dynamic cache partitioning prevents side channel attacks without performance degradation or extra silicon area.

A memory broker calculates aggregate unit costs to reclaim specific memory units across multiple process instances.

Configuring distinct virtual processors via core and cache bank mapping logic improves manufacturing yield by compensating for defective components.

Dynamic volume reallocation balances loads across storage controllers, eliminating inter-controller communication overhead during data copying.

Segmenting page table entries into secure and non-secure regions reduces capacity consumption while maintaining system integrity.

A DRAM device aborts self-refresh mode via a memory controller signal to reduce exit latency.

A configurable cache IP uses service registers to define address ranges for automatic line flushing via control signals.

Offloads RAID controller DRAM pin cache contents to a flash module on an SAS switch, preventing data loss during controller failure.

A flash memory logic mechanism retrieves data pages using decremented addresses without explicit specification.

A cache system selects indexing functions dynamically to optimize memory address mapping.

Designating purgeable memory reduces network bandwidth consumption during high-availability failover.

Bitwise logical operations distribute memory pages across channels to balance loads and optimize bandwidth utilization.

Pixel shaders perform vertex computations by accessing indices from cache and parameters directly from memory, eliminating data copying bottlenecks.

Generating error correction check bits for data blocks reduces storage overhead from 33.33% to 12.7% in high-capacity semiconductor memories.

Capability metadata modification markers indicate changes in cache data blocks, preventing unauthorized use of data values as capabilities.

Lien Code ECC encoding generates complement codeword pairs to simplify endurance testing of non-volatile memory cells.

Server processes attach to client storage using local addresses for direct data access.

Page table entries trigger selective mirroring of modified shared data to remote nodes, ensuring availability without complex replication schemes.

A memory controller with a tagged buffer extracts requested bytes from aligned storage to reduce latency during unaligned memory access operations.

Serial deserializers in the scanline driver chip reduce bezel size by replacing parallel lines with sequential transmission.

A cache status marker manages concurrent data access by separating read and write operations.

Segmenting the base and managed power planes via an intermediary circuit reduces heat generation by 10% to 25% while isolating device complexity.

A microprocessor reconfigures load store execution units to merge resources in single-thread mode, boosting instructions per cycle.

A hinting unit populates platform hints into unused PCIe address bits to optimize data transfers across interfaces.

A cookie structure binds kernel address spaces to enable direct memory access between device drivers, eliminating intermediate data copies and reducing latency.

Local update servers select active and passive agents based on node criteria to reduce network bandwidth costs from remote server dependencies.

Dynamic address grouping organizes sense amplifier addresses to increase write bandwidth while keeping power consumption within allowable limits.

A memory driver designates a reference location and levels allocated blocks to distribute programming cycles evenly across flash cells.