A hook-driven seating assembly secures burn-in boards to testing connectors while controlled chamber heating prevents chip overheating.
Short spring pins, a heat-sink arm, and precise X-Y-Z alignment enable non-destructive optical DUT testing with up to 90 GHz bandwidth.
A reconfigurable FPGA test board uses a detachable chip socket to test different ASICs on one PCB, reducing dedicated board needs.
Block-specific DVS voltages are set from measured and predicted temperatures to cut DPPM and improve wafer reliability.
Correlating wafer and package test data reveals variation-driving factors early, cutting unnecessary semiconductor testing time and cost.
An operating server switches wafer test hardware between ready and waiting modes to cut idle power while preserving rapid test resumption.
An auxiliary control circuit equalizes deactivated switch terminals to suppress leakage current during semiconductor testing.
This case assigns defective integrated circuits to software-defined variants whose segmented deactivated regions preserve signal routing and improve yield.
Through-silicon-via I/O multiplexing supports independent stacked-chip testing, reducing area and preventing X-propagation.
Temperature correlations set block-specific DVS voltages, improving wafer test accuracy and reducing high DPPM rates.
Fixed voltage overlooks block differences; temperature-correlated DVS targets tailor wafer stress and improve testing accuracy and yield.
This case uses progressive frame alignment and flexible thermal seals to prevent board damage and leakage during chamber docking.
A kill die subroutine transforms parametric failures into continuity failures during probe testing.
Automated burn-in board management system generates status maps to suspend boards with malfunctioned slots, reducing manual errors and costs.
A handling apparatus corrects three-dimensional shape data of DUT containers using reference points to determine accommodation states.
Laser-induced thermal gradients propagate through stacked die structures, enabling precise three-dimensional fault isolation without destructive testing.