Instruction Analysis TRIZ Cases
- Neural Network Instruction Reuse via Hash Table Lookup
A neural network instruction reuse device calculates layer hash values to retrieve stored instructions.
- VLIW Processor Special Header Expands Instruction Set Space
A special header in VLIW processors decodes variable instruction lengths to expand the available opcode space without increasing word size.
- Processor Pipeline Splitting Multi-destination Instructions
A processor pipeline splits multi-destination instructions into single-destination operations for standard execution.
- RISC Processor Prefix Instruction Operator Reinterpretation
Prefix instructions reinterpret operator fields in RISC processors, resolving the contradiction between limited code size and restricted operator availability.
- Programmed Branch Predictor Loop Iteration Tracking
A programmed branch predictor tracks loop iterations via an iteration counter to identify loop termination points.
- Hardware Instruction Translator for x86 ARM Microprocessor
A hardware instruction translator converts x86 and ARM instructions into microinstructions for an out-of-order execution pipeline.
- CPU Instruction Flow Optimization via Performance-Efficiency Classification
A CPU instruction flow optimization method classifies instructions by performance and efficiency metrics to route them to specialized execution units.
- Swizzle Sequence Instruction for Vector Data Element Shuffling
Embedding shuffle orders in vector instructions reduces register file usage and eliminates pipeline stalls caused by read-after-write dependencies.
- Processor Performance Monitoring Unit Prefetch Instruction Retirement Counting
Separate counter fields track retired prefetch instruction counts to improve measurement precision without increasing device complexity.
- Instruction Conversion Module for Legacy Processor Compatibility
A conversion module translates new processor instructions into legacy formats for execution.
- Parallel Address Generation Units for Superscalar Throughput
Segmented address generation units handle diverse addressing modes to improve processing throughput while controlling hardware complexity and area requirements.
- Out-of-Order Processor Load Store Reordering via Instruction Splitting
Splitting load and store instructions into address and data components enables earlier dispatch, reducing context switch overhead in fine-grained parallelism.
- Vector Data Processing for Discrete Address Overhead Reduction
A data processing method converts discrete source addresses into continuous vector destinations to simplify computation.
- Bitstream Interruption Handling via Context Switching
Context switching allows a decoder to process partial bitstreams immediately, preventing stalls while waiting for complete data availability.
- Vector Packed Dual Complex Multiply Accumulate Instruction
A vector-friendly instruction format executes packed dual complex multiply and accumulate operations using a VEX prefix for 128-bit data registers.
- Instruction Attribute Encoding for Opcode Map Storage
Segmenting opcode maps into attribute tables expands instruction versatility while conserving storage area.
- Branch-Future Instruction Decoding Circuitry for Zero-Overhead Branching
Branch-future instruction decoding circuitry extracts target addresses early to eliminate pipeline delays and improve processing efficiency.
- Pre-silicon Chip Model Validation Using Extracted Instruction Traces
Extracts instruction traces from legacy core dumps to validate pre-silicon chip models, eliminating extensive system modeling and operating system dependencies.
- Dual Mode Floating Point Multiply-Accumulate Unit for GPU Throughput
A dual mode floating point multiply accumulate unit processes varied operand formats using a shared mantissa datapath.
- Non-Looping String Processing via Terminator Detection
Vector units execute a non-looping sequence based on terminator detection, resolving processing inefficiencies in variable length string operations.
- Processor Load Balancing via Diverse-Redundant Instruction Block Assignment
Assigning instruction blocks to processors using execution time indicators ensures redundant computation across diverse sequences.