Instruction Analysis TRIZ Cases
- Matrix Operations Circuitry Tile-Based Stencil Configuration
Matrix operations circuitry switches modes to broadcast coefficients across tiled grids, reducing instruction intensity and energy use.
- Data Processing Circuitry for Efficient Substring Search
Segmenting input vectors into manageable units reduces hardware complexity while maintaining high search accuracy for consecutive values.
- VLIW Processor Compact Instruction Format
Merging register specifying areas into a unified structure reduces bit count and circuit size while maintaining parallel execution speed.
- Vector Suffix Comparisons for Boyer-Moore String Search
SIMD-based vector suffix comparisons reduce sliding window shifts and processing cycles, lowering power consumption during text string searches.
- Floating-Point Multiplication Circuit with About Zero Detection
Exponent comparison logic skips multiplication when operands are about zero, reducing power consumption and computational overhead.
- Instruction Conversion Program for Legacy Processor Compatibility
A conversion program translates new processor instructions into legacy equivalents to enable execution on older hardware architectures.
- Processor Stop Bit Instruction Encoding for Power Efficiency
A processor uses a stop bit in instructions to allocate execution slots and selectively supply power.
- Processor Opcode Compare Logic for Out-of-Order Flaw Workarounds
Opcode compare logic marks instructions with flaw patterns during decode, enabling dynamic workarounds for out-of-order processing flaws.
- Instruction Execution Operand Field Reinterpretation
Processor architecture reinterprets instruction operand fields to combine bits from integral instructions, reducing code size in RISC systems.
- Virtual Sub-Element Mapping for Processor Power Management
Dynamic virtual sub-element mapping adapts storage allocation to instruction usage, reducing power consumption while maintaining prediction accuracy.
- Processor Security via Dynamic Instruction Encoding and Secure Zones
Dynamic instruction encoding in secure zones defends against side-channel attacks while minimizing processing speed overhead.
- Configurable Spatial Accelerator Dataflow Execution
Spatial array of processing elements executes dataflow graphs directly using input queues and output controllers.
- DNNFusion Operator Abstraction for Mobile Deep Neural Network Execution
DNNFusion framework classifies operators into abstract mapping types to generate optimized fusion code for deep neural networks.
- Intermediate Register Mapper for Out-of-Order Processor Pipeline Efficiency
An intermediate register mapper holds logical-to-physical renaming data after instruction execution to enable early release of unified main mapper entries.
- Emulating FP64 Matrix Multiplication via Low-Mantissa Segmentation
Segmenting double-precision values into lower-precision components enables efficient matrix multiplication using reduced hardware resources.
- Unified Instruction Decoder for Multi-Set Data Processing
Shared decoding logic handles multiple instruction sets, reducing hardware overhead while maintaining accurate instruction interpretation.
- Thread Context Restoration in Multithreading Cores
A multithreading core switches between single and multithreading modes to manage thread context availability.
- CCISC Processor Architecture Single-Cycle Complex Instruction Execution
A CCISC processor executes complex instructions in a single clock cycle using multichannel memory access.
- Super Multiply Add Instruction Fusing Vector Operations
A super multiply add instruction fuses multiplication and addition operations into a single fused multiplier circuit.
- Program Code Monitoring via Co-located Memory and Separate Processing Units
Co-locating monitoring instructions with program code in shared memory enables synchronous extraction by separate processing units.
- Microarchitectural Sensitive Tag Flow for Side-Channel Attack Mitigation
Dynamic tag updates selectively protect instructions against side-channel attacks while maintaining processor performance.
- Reordering Buffer for Memory Access Locality in Multi-Core Processors
A scheduling unit reorders thread execution to maintain memory access locality for batched instructions.