Memory Systems TRIZ Cases

A hypervisor allocates CPU-specific virtual memory slots to isolate I/O operations and prevent global Translation Lookaside Buffer flushes.

A bit vector unit identifies populated elements to calculate memory addresses directly.

A storage adapter controller uses hardware engines to allocate resources from segmented pools for efficient I/O processing.

Dynamic pool segmentation promotes and demotes pages between size tiers, reducing page faults during memory shortages.

Compiler generates intermediate C++ code and linking stubs to bridge Java and .NET managed runtime environments, eliminating bulky web service overhead.

A Linux memory allocation method segments physical blocks from the buddy system to meet specific address range requirements.

A memory controller translates access requests between distinct interface formats to enable high-speed data transfers.

A memory bus transmits data to multiple processor units simultaneously using existing infrastructure.

A pre-reserve allocation process converts unallocated memory space before executing write operations to ensure sufficient storage availability.

A storage system suspends write requests to manage resource availability.

A processor instruction loads code into a destination location while verifying source access permissions.

A host apparatus aligns file system operations with erasure block size to optimize data management in nonvolatile semiconductor memory.

Stream detection engine manages disk drive cache resources using frequency counters to track host access patterns.

An automatic program conversion method analyzes source code instruction patterns to identify frequent elements for automated migration.

Separating tag comparison from data paths reduces bandwidth consumption during multi-processor cache coherence checks.

A modified buddy system memory allocator allocates contiguous differently-sized blocks to satisfy requests.

Arbitration circuitry segments requests into sub-requests and buffers them to enable simultaneous access across independent memory banks.

Common indexing aligns set indices across cache levels, reducing migration updates and latency in multi-level hierarchies.

Dynamic code replication optimizes parallel execution of single-threaded applications by identifying and removing redundant instructions across processing elements.

Partitioned L3 cache subcaches isolate high QoS applications from interference.

A data de-duplication system derives unique identifiers from write commands to eliminate redundant storage blocks.

Segmenting code into isolated plugins reduces memory footprint and errors by loading only required versions for each hardware revision.

A cache hierarchy hint mechanism assigns address bits to specify storage levels.

A storage system transfers differential journals between nodes to maintain data consistency.

An additional-write file system prevents copy-involving write overhead, preserving random write speed as capacity increases.

A serialization driver maps application properties to generic containers, enabling structured comparison of in-memory objects across software versions.

A control signal selects between multiple physical addresses stored in the same logical entry, resolving processor interruption during memory remapping.

An instrumentation framework queries and transforms processor-level instructions in a running execution image using high-level programming language statements.

A cache broadcasts requests and evaluates recipient occupancy to direct evicted lines.

A flash memory management system uses hierarchical segmentation to organize physical erase units, segments, frames, and virtual erase units for efficient data access.

A configurable program system uses a source code interpreter to link binary components with event handlers via logical connections.