Next Instruction Address Formation TRIZ Cases
- Context-Based Loop Branch Prediction Mechanism
A branch predictor identifies loop instructions and generates predictions using the target pointer context to improve coverage.
- Distributed Crossbar Network for Multiprocessor Interconnect
Segmented crossbars provide single-hop connectivity between all processors, reducing silicon area and latency compared to conventional designs.
- Branch Program Counter Array for Control Transfer Instructions
A Branch Program Counter Array stores program counter values to verify control transfer outcomes.
- Loop Exit Predictor for Branch Prediction Accuracy
A loop exit predictor identifies loop boundaries to override general-purpose conditional branch predictions.
- Block Call Return Mechanism for Reducing Program Code Size
A control register stores return addresses and execution levels to redirect program flow, eliminating redundant code overhead in nested calls.
- Concurrent Branch Address Prediction and Register Update
Predicts branch addresses and stores them in hardware registers concurrently with instruction processing to enable faster speculative execution.
- Table Call Instruction for Function Address Indexing
Segmenting function calls into compact indexed instructions and generic full-address formats reduces code size and memory usage in embedded systems.
- ARP Record Synchronization in RSMLT Clusters via IST Link Tagging
Synchronization manager tags ARP packets with originating port identifiers to enable real-time record updates across peer nodes.
- SIMD Core Divergent Branch Handling via Hardware Pointers
Hardware pointers assign divergent paths to parallel lanes, eliminating idle cycles and boosting throughput in data-dependent processing loops.
- Jump Double Indirect Instruction Pipeline Optimization
A jump double indirect instruction precomputes target addresses in a memory table, reducing pipeline flush penalties during deep pipelining.
- Runtime Application Self-Protection via Targeted Input-Output Instrumentation
Segmenting program flow into critical sections reduces instrumentation overhead and false alarm rates while maintaining detection accuracy.