Machine Execution Arrangements TRIZ Cases

A vector splice instruction extracts data elements using control registers to combine vectors without length dependency.

A load and store unit aligns unaligned memory references using an alignment register to conjoin data portions.

Segmenting full table lookups into partial operations reduces crossbar complexity and hardware costs for scalable SIMD processing.

A unified load and duplicate instruction processes scalar data into destination registers with configurable duplication patterns.

A permute instruction accesses source registers using all eight bits of a destination register index without external mask operations.

A processor hazard check instruction detects memory dependencies using base addresses and index vectors to control execution.

A vector interleaving instruction retrieves data from multiple source registers and stores results in alternating destination positions.

A processor architecture performs packed data down-conversion using truncation or saturation modes.

Conflict detection instructions perform SIMD range checks on multiple pointer sets to enable safe loop vectorization.

A translation program generation system creates code mappings from table data sets to automate assembly language conversion.

Memory controller segments access requests into length-specific buffers and uses an arbitrator to select requests based on remaining resources.

A crossbar switch routes element data values from address vectors to update output data, reducing processing time for arbitrary size lookups.

Dynamic credit modulation prevents queue saturation and reduces memory access latency.

Serial parallel conversion circuit distributes primary check data to multiple circuits via a single microcomputer port.

An access triggered architecture uses pipelining to overlap functional block operations across clock cycles.

A global address map dynamically matches logical memory pools to physical capacities, resolving oversubscription mismatches between host SoCs and SCM cards.

A SIMD shift instruction uses a shift count register to specify unique shift operations for each output element.

A processor thread scheduler manages runnable and suspended threads using specific instructions to quickly respond to events.

Direct memory access engines execute bitmap operations in memory, eliminating cache miss latency and network traversal overhead for sparse data analytics.

A ping-pong DMA architecture switches between two modules to maintain continuous data transmission.

An operation management circuit selectively operates paired arithmetic circuits and cache memories in a 3D stacked die structure to prevent heat-induced failures.

Autonomous memory sweeps eliminate host command overhead during I/O training, reducing system boot time while maintaining signal margins.

A remapping device within an auxiliary processor manages position information between direct memory access buffers and registers.

A masked-vector-comparison instruction processes source vector operands against a target operand using a mask value to identify active data elements.

A parallel instruction demarcator uses sequential logic blocks to determine instruction boundaries within a buffered syllable stream.

Clustering binary code chunks enables instruction-set aware arithmetic coding that reduces digital signal processor memory footprint.

Mask processing units enable faster calculation of output values with a smaller area, improving processing speed and efficiency.

A multiprotocol interface circuit shares SPI and I2C pins using tri-state buffers.

This mechanism resolves inefficiencies in SIMD masking control by reducing computational overhead without increasing device complexity.

Machine instruction counts contiguous register elements with specific values to locate conditions efficiently.

Hardware-implemented mode switching restricts vector operations to narrower registers, reducing power consumption and manufacturing costs.

A Ternlog packed instruction executes three-operand Boolean functions by forming an index to an immediate value from source register bits.

Merging branch instructions with architectural delay slots increases dispatch bandwidth without expanding hardware complexity or power consumption.

A fused complex multiply-add instruction executes vector operations in a single cycle to reduce register pressure.