Memory Architecture Accessing/Allocation TRIZ Cases

An access control unit manages grantable rights using usage probability weights to optimize memory resource allocation.

Solid state drive controller moves pages during read requests, reducing garbage collection processing time.

Control logic adjusts write voltages and pulse shapes based on device age to mitigate physical degradation from repeated access.

A memory controller uses a global error correction cache to retrieve correction data locally.

A memory controller educates the host on array geometry to enable direct physical address allocation across multiple dies.

Buffer region closing program operation writes stored data to open pages in the main region of a nonvolatile memory device.

Page-level metadata tracks individual write counts to balance wear distribution and extend memory device lifetime.

Book and booklet aperture mappings extend processor addressable storage range beyond fixed physical limits.

Segmenting cache clusters into partitions with primary and secondary nodes resolves data inconsistency in large-scale deployments.

A memory controller uses a sensor module and watchdog timer to capture log information when vehicle movement exceeds normal ranges.

A non-volatile memory controller adjusts standby delay values based on host access patterns to optimize power consumption.

Discrete symmetric storage class memory devices cache data and metadata separately, reducing transaction latency while maintaining data integrity.

Matching operating parameters to projected life values prevents premature failure from uneven wear in flash storage systems.

A data storage device selects a mapping system from multiple options to optimize logical-to-physical address translation.

Tracking victim hit counts detects avoidable thrashing, allowing the cache to resize dynamically and maintain throughput under fluctuating workloads.

A virtual cryptographic resource pre-computes keystreams in memory to enable high-speed data encryption and decryption without processor intervention.

Dynamic buffer allocation by a data collator reorders data blocks for a master device, reducing interconnect area requirements while maintaining throughput.

Stripe swapping updates mapping tables to migrate data between redundancy tiers, minimizing write operations and extending device lifespan.

A hardware page table walker predicts physical addresses using virtual memory region tracking to prefetch entries in parallel.

A master persistent memory module manages slave units in a daisy chain configuration, reducing latency while expanding storage capacity beyond CPU slot limits.

Segmenting physical blocks into three pools reduces additional wear from balancing operations while improving search speed across large storage capacities.

Segmenting flash memory banks enables parallel additional writing while invalidating original data, reducing erasure operations and extending service life.

A semiconductor memory device uses a bloom filter circuit to generate hash codes for failed addresses, enabling efficient data selection.

A unified non-volatile memory system serves as both main memory and backing store through direct physical address mapping.

Configurable spatial accelerator memory interface circuits allocate request address files across processing elements via a circuit switched interconnect network.

Iterative address bit mapping distributes data across memory channels, eliminating resource wastage in non-power-of-two configurations.

A caching layer merges user data with zero-filled non-user areas into a single allocation unit before physical storage assignment.

Banked sequential zones in a shingled magnetic recording device resolve data integrity conflicts while expanding storage capacity.

A memory interface module assigns buffers to master devices using identifiers to prevent resource contention.

A coarse-grained garbage collection mechanism manages data storage roots in serverless environments to optimize resource utilization.

A secure element compares UICC and device identifiers against stored records to permit authorized interactions.

Consolidating garbage collection control into an external storage controller groups valid data by similarity to minimize redundant write operations.

A dual trusted platform module architecture enables seamless security operation switching upon hardware damage detection.

A storage device prefetches stream data into a buffer mapped to virtual memory for direct host access.

A memory access control circuit configures authorization using decrypted program initialization data to manage execution unit access.

A memory system identifies correct logical-to-physical pointers by evaluating candidate codewords against stored metadata.

Per-VM resource utilization counters track guest virtual machine consumption to prevent service level agreement violations from system contention.

A memory controller estimates command completion times to guide host device polling schedules.

A drug delivery electronic system stores changing parameters in continuously powered volatile memory to reduce write cycles.

Chained mapping compresses data into striped structures, reducing mapping table size and defragmentation complexity.

A storage controller unmap module generates a list information bitmap to check map segment overlaps.

Dynamic hash switching routes data to active cache slices, reducing energy consumption while maintaining access reliability.

A segmented controller coordinates memory block candidates across multiple storage devices to optimize data lifetime operations.

A host circuit divides data into groups and writes them through multiple channels to a multi-core storage unit.

A linear address remapping logic translates processor addresses to selectively enable interleaving or linear access modes across multiple memory devices.

Flash memory controller re-arranges host read commands into a command giving sequence that optimizes parallel data bus usage and reduces execution time.

Pre-transmitting write cache journal entries ensures data integrity during failover while avoiding network bandwidth spikes and extended recovery times.

A storage controller selects between high-speed and low-speed memory areas based on real-time write throughput conditions.

A memory scheduler reorders Read-Modify-Write commands by target segment address to optimize execution flow.