Detecting Faulty Computer Hardware TRIZ Cases

An unstructured N-dimensional grid table model generates circuit simulations using recursive accuracy and continuity partitioning.

Pre-calculated circuit designs stored in a database allow designers to compare multiple alternatives rapidly, reducing iteration time and improving accuracy.

A temperature-compensated process corner estimation circuit detects silicon die variations using a clock generator and level shifter.

Segmenting pin map memory across bridges eliminates centralized bottlenecks, enabling high-speed parallel NAND flash testing.

Assignment matrix directs inter-processor interrupts to specific cores, reducing stop latency from milliseconds to nanoseconds.

A Fault Management Unit builds a state representation to select the prime processing string.

A microcomputer uses a monitor memory control unit to copy internal data concurrently, enabling debug access without halting the CPU.

Unified interface merges layout editing and verification tools to display electrical parasitics in situ, eliminating iterative tool switching.

Monitoring signal lines store inputs during scans to identify ground faults, short circuits, or disconnections on common signal lines.

Assigns unique identifiers derived from configuration parameters to resolve naming conflicts during hierarchical circuit design integration.

Adaptive cost schedule resolves routing congestion by dynamically adjusting resource costs based on initial circuit characterization.

A masking pattern isolates selected logic elements within semiconductor chips to compare test vector results against reference values.

A debug tool accentuates specific simulated output values in a circuit design window to streamline verification workflows.

A stall circuit controls core operations within a data processing engine array to manage direct memory access and hardware synchronization.

One-dimensional arrays locate Karnaugh map indices to extract simplified minterms, reducing circuit complexity and power consumption.

Recursive labeling assigns swappability numbers to integrated circuit nodes, resolving complexity trade-offs in pattern matching analysis.

Segmented test masks enable complex AND-OR logic in real-time operating systems without external decoder circuits.

Bidirectional access ports connect to internal core interfaces within a system on chip.

Dynamic re-budgeting removes artificial constraints by recalculating delays via slack deltas, enabling flexible exploration of implementation options.

Hierarchical error injection selectively targets marked channels and chips, reducing verification time while maintaining reliability.

Dynamic routing updates exclude failed links from processor paths, eliminating manual intervention for fault tolerance.

A memory fault diagnostic method divides the diagnosis area into non-overlapping row and cell areas to perform hierarchical testing.

Processor diagnoses hardware components and displays results with service links to resolve user difficulty in accessing repair services.

Dynamic port priority arbitration resolves access ambiguity while offset interconnects bypass blocked regions for efficient data transfer.

A system acquires hardware descriptions from computing devices and validates them against reference nodes to install consistent operating system images.