Memory Architecture Accessing/Allocation TRIZ Cases

Mediation unit manages memory access via identification information to detect abnormalities without dedicated hardware.

Selective journaling reduces processing load and bandwidth usage by creating entries only upon failure occurrence in storage class memory devices.

Storage control apparatus manages garbage collection timing to allow parallel data writes in a secondary memory area.

A memory address generator maps logical start addresses to distinct physical banks and rows.

A metadata management method updates raw metadata in a first region and copies only the updated data to shared high-speed memory.

Static code analysis defines index space mapping parameters to enable consumer processors to access buffer data before producer completion.

A local linked list tracks free codewords within allocated pages to enable efficient memory reuse across multiple processors.

Dual flag storage units restrict faulty erase areas while keeping healthy segments active, preserving memory capacity.

An external memory controller manages encryption keys via a dedicated key management system, preventing processor compromise from exposing sensitive data.

Programmable die offsets in column-read memory enable parallel data access, reducing latency and bus usage for high-throughput similarity searches.

A hybrid storage system manages volatile and non-volatile caches using distributed striping across rotational drives for parallel operations.

Segmenting the cache into a powered-down storage array and an active tag array enables fast data retrieval from persistent memory while minimizing energy use.

A storage controller maintains owner metadata for logical volumes to enable independent write access and data protection.

A skip circuit identifies faulty memory units and shifts read data to bypass defective columns.

Reference indicator arrays allow concurrent garbage collection and application execution, eliminating suspension delays during mark and sweep processes.

A dedicated memory initialization device with higher bandwidth than the CPU generates selection signals to initialize main memory, reducing DRAM startup time.

Partitioning host and guest caches prevents base image duplication, reducing memory waste while maintaining fast data access speeds.

A controller determines a caching order for map data to accelerate memory access.

Expanding the buffer size prevents firmware errors during updates by allowing temporary storage and execution of update data.

A cache control system manages nonvolatile memory using address translation and valid data identification to optimize block usage.

A storage controller uses a Diffie-Hellman algorithm to encrypt data encryption keys, preventing unauthorized access during user sharing.

Copying CRTM code to L2 cache resolves the conflict between locked flash security and updatability.

Control nodes send update destination requests to master nodes, bypassing intermediate hops to reduce latency and improve bandwidth utilization.

A memory controller segments logical-physical address translation information into multiple pieces with attached metadata to improve cache hit rates.

A flash memory controller creates a write time table to identify expired blocks for recycling operations.

A data dividing method partitions input and weight blocks to optimize memory access patterns during convolution operations.

Segmenting shared memory into sub-page regions minimizes contention and fault domains while maintaining coherency through enhanced page fault handling.

Storage system analyzes container image context tags to determine optimal caching algorithms for software applications.

Control circuitry calculates the CPU cache miss to DTLB load miss ratio to identify deviations indicative of Spectre or Meltdown attacks.

Mapping the logical-to-physical table to peer SSDs distributes garbage collection load, preventing unpredictable I/O performance spikes in NVMe drives.

A storage management system analyzes I/O workload across synchronous mirrored devices to optimize data placement.

A memory controller adjusts scanning intervals based on access patterns to classify pages as hot or cold.

Primary read cache stores incoming write data when the primary write cache fills up, preventing I/O response time spikes during synchronous replication.

Address allocators manage shared memory regions to streamline inter-core data exchange.

A memory controller adjusts data compression based on total write volume to balance storage density and speed.

A replacement module enables selective data output from way memory elements to accelerate cache allocation operations.

Alternate current supply block generates compensation current to improve read current margin, ensuring immunity to random telegraph noise and read disturbance.

Segregating garbage collection from write operations prevents performance degradation in multi SSD systems sharing resources across virtual machines.

Remapping the base address eliminates signature verification and loader code, reducing startup time while maintaining update reliability.

An adaptive spatial access prefetcher uses delta-based prediction tables to generate early memory requests.

A snapshot analysis system processes block device data to enable efficient storage operations.

Copying blocks enables flexible hash chain updates while preserving data integrity.

Host system selects cache-based read commands using content addressable memory history to optimize data transfer efficiency.

A memory allocation system generates virtual schedules to optimize physical resource usage for neural network layers.

Memory expander nodes with compression logic expand capacity while managing bandwidth constraints in multi-node server architectures.

A DMA engine executes non-sequential memory writes and reads using configurable address patterns.

Mask value storage unit retrieves range data to detect out-of-range references without segment table searches.

A contextual sound filter identifies audio signals and environmental contexts to adjust filtering parameters dynamically.

Higher level cache transmits backup copies of unaltered target cache lines to lower level storage during transactional store requests.

Differentiated swapping operations resolve performance bottlenecks by reducing unnecessary data transfers and improving overall memory management efficiency.

A data processing device uses an event controller and access points with write history to synchronize stages, resolving efficiency losses from core contention.

A charge pump powers a volatile cache during low power mode transitions, reducing latency and power consumption from non-volatile storage transfers.

A storage node design separates cache memory from the operating system to allow hot-swapping without powering down the system.

A storage stack architecture allocates buffer space at the device layer to enable direct application access and eliminate intermediate data copying.

An IOMMU broadcasts address probing messages to CPU cores to retrieve physical addresses from their TLBs.

A storage controller transmits asynchronous event notifications to a host device when internal telemetry data faces overwriting.

A victim cache allocator selectively stores evicted data based on usefulness metrics to reduce unnecessary memory accesses.

Intermediate network points cache updated software images from backend servers, reducing retrieval latency for diskless data processing devices.

Dynamic thread priority adjustment resolves operating system noise delays by boosting interrupted threads to restore rapid parallel execution.

A memory controller maps logical addresses to physical ones via a buffer table.

Reserving cache slots for meta-data enables home agents to track inclusive states, eliminating unnecessary read operations and reducing system traffic.

A computing device manages primary storage by dynamically loading and unloading content portions based on a changing access window.

A logical data object encryption method segments plaintext into predefined encrypted sections for atomic storage operations.

A miss ratio curve generation method for caches with variable-sized data blocks using stacked counters to determine stack distances.

Segmenting logical volumes by I/O activity directs background garbage collection, reducing fragmentation overhead.

Controller copies multi-level cell data across channels to enable interleaved read operations.

A neural network dynamically adjusts cache size and garbage collection timing to maintain consistent quality of service under varying workload patterns.

Dynamic timestamp adjustment protects frequently accessed entries from premature eviction, resolving accuracy issues in time-threshold methods.

An unblock instruction reverses a page block during secure paging to enable direct access to unified metadata within a single secure memory location.

A storage device sends map data to a host device, allowing the host to cache this data and bypass controller address translation, reducing response time.

Adaptive prefetcher limits L1 cache data storage based on measured hit rates to optimize graphics processing unit memory hierarchy.

A CNN hardware accelerator uses vector multiply-accumulate units to process neural network data efficiently.

Decouples mapping unit size from fixed restrictions to aggregate logical blocks into variable-sized pieces across multiple read units.

A flash memory controller writes control information to volatile memory and consolidated data to non-volatile memory during garbage collection operations.

A memory subsystem validates logical addresses using namespace identifiers and offsets to maintain error-checking during storage operations.

A storage device with a power source provides reserve energy to dynamic random-access memory.

Processor configures idle caches as a backing store for boot code, bypassing system memory initialization to enable larger boot images.

Flash memory management system segments storage into blocks and applies selective erasure to minimize write cycle concentration, extending device longevity.

Separate marking mechanisms in concurrent garbage collection routines reduce system pauses during memory reclamation.

A bidirectional cryptographic IO engine encrypts data streams using replay counters to ensure secure direct memory access transactions.

Address translation unit bridges partitions so host processors retrieve error logs from remote hardware, reducing downtime.

A storage system provides physical address tokens to the host during write operations to enable direct data access.

A node associates a version value with shared cache lines to detect memory corruption by comparing pointer versions against stored data.

A media read cache stores volatile data copies on disc media to accelerate retrieval operations.

Demote threads process tracks from cache segments to free storage space, preventing I/O request queuing when free segments drop below thresholds.

Trained models predict write lifetimes to optimize wear leveling and extend storage device lifespan.

Virtual boundary codes segment data images into fixed-size blocks, enabling universal firmware to skip bad blocks across different manufacturers.

A controller manages shared cache partitions by tracking entity usage and updating partition descriptors based on memory request hit or miss results.

Dynamic stride refinement adapts prefetching to unpredictable memory access patterns, reducing processing delays caused by complex address differences.

A data management module maintains separate lists for cache and storage array data to rank access patterns.

A memory configuration system adjusts cell modes based on program-erase counts to balance storage density and reliability.

Pre-stored security software decrypts identity data to load the operating system, eliminating customized BIOS requirements and manual unlocking steps.

A dedicated job manager circuit manages simple storage operations without processor intervention, reducing power consumption and buffer memory bandwidth usage.

Dynamic block size determination matches host data access patterns with flash memory mapping units, reducing processing overhead and improving performance.