Semiconductor/Solid-State Device Testing/Measurement TRIZ Cases

Physically separated signal, test, and power circuits improve semiconductor measurement accuracy while supporting varied packages and drive voltages.

Test pads and on-chip feedback detect bonding pad misalignment in stacked memory and adjust sensing time or voltage to limit performance loss.

A merged optical path synthesizes head-side and stage-side light to preserve coaxial imaging and maintain bonding accuracy under thermal expansion.

Wider corner leads with tip inspection features improve solder wetting and thermal-cycle reliability without increasing package size.

A resist pattern shifts optical inspection away from grain boundaries, improving semiconductor surface defect detection and throughput.

Scattered-light monitoring tracks interface weakening during annealing from a distance, avoiding close optics and high-power IR sources.

Zone-based testing circuits connect LED groups from the substrate edge, enabling accurate photoelectric imaging without probing tiny electrodes.

Outer-limit outlier removal and scene-based CD reconstruction improve lithography error decomposition accuracy while reducing human interference.

Conductive lines linked to target patterns enable automated capacitance checks for homogeneity in dual-patterned semiconductor structures.

An integrated test pad in the RDL via hole enables WAT probing without damaging the DRAM top metal layer and fits tight chip space.

Separating semiconductor structures, screening substrate defects, and reusing qualified wafers cuts electronic device manufacturing cost.

A digital twin and pyrometer estimate inner chamber temperatures to prevent window coating, particle contamination, and quartz transparency loss.

A dummy die with metrology patterns measures hybrid bonding overlay error, enabling position compensation before known good die placement.

Ink-jet printed conductive pads create probe access on stacked semiconductor assemblies, enabling post-stacking circuit testing without harming interconnects.

Selective locking of center and side stoppers stabilizes probe card contact with wafers, improving semiconductor test reliability.

A staged oxide-nitride polish flow improves capacitor array CMP uniformity and enables endpoint detection for thick oxide layers.

Optical inspection maps bonded wafer failure spots, then laser-heated adhesive sublimation removes only defective micro-LED areas before transfer.

An interconnect die replaces a separate interposer to link IC dice, cutting package area, wire length, capacitance, and power.

Grouped TSVs and redundant vias reroute signals around voids, cracks, and contact failures to raise repair rate with lower hardware overhead.

Wafer-level die testing and sorting keeps probe-marked pads usable for interconnects, improving known good die yield and package cost.

By measuring recipe-relevant substrate areas from positional data, the controller can identify needed recipe changes and reduce defects.

Secure marks and PUFs preserve semiconductor traceability through wafer dicing and packaging by storing mark data before destructive steps.

Auxiliary patterns create measurable gap spaces so ultrasonic or optical inspection can estimate chip bonding strength without destructive testing.

Backside thermal radiation sensing measures substrate support temperature without contact, reducing thermal loss and improving repeatability across wide ranges.

Spider test pads in metallization layers enable in situ probing of electrical connectivity and known good dies in complex 3DIC fabrication.

Real-time reflected-light sensing feeds back spin speed control to keep resist thickness uniform during high-throughput semiconductor coating.

Segmented thin-film windows and etched trenches enable large-area TEM substrates that stay electron transparent and mechanically robust.

Automatic purge-station inspection detects wafer carrier air filter deterioration early, enabling timely replacement and fewer contamination defects.

Real-time IR spectroscopy tracks process chemical and by-product concentration shifts to improve semiconductor process control and endpoint detection.

Polishing the back surface and grinding beveled edges lowers sloped-portion roughness, suppressing epitaxial defects on reclaimed substrates.

Mirror-symmetric probe pads on both memory tile surfaces let one probe card handle front and back testing, cutting test cost and complexity.

Intermediate probe testing through an upper bonding member finds semiconductor defects before final power module assembly, cutting waste and process loss.

Conductive pads and measurement pads detect substrate misalignment electrically, avoiding slow laser microscopy and helping protect flip-chip yield.

Centrally symmetric overlay marks align three photolithography layers in one compact structure, improving accuracy while saving dicing groove space.

Small high-yield IC tiles and an interposer create a large-format focal plane array with minimal optical gaps and sustained frame rate.

By separating via and layer resistance with stimulus-based signal analysis, this case improves semiconductor resistance accuracy despite process variation.

A tungsten plug under the pad connection cuts weak titanium barrier interface area, improving adhesion and suppressing dielectric peeling.

A laterally extended test structure applies force at semiconductor die edges to characterize mold compound adhesion and improve package qualification.

Built-in light sensing tracks liquid stream or mist shape inside the nozzle in real time, enabling immediate shutdown when abnormalities appear.

Optical sensing of a target element enables real-time film thickness control in a processing chamber, improving uniformity and yield.

A conductive layer linking DRAM landing pads enables wafer acceptance testing to catch necking and poor pad contact before capacitor integration.

Physically derived ML and secondary analysis parse SHG wafer signals to separate thickness effects from contamination and defects.

By tuning illumination and collection conditions, Raman metrology isolates composition, stress, and doping signals in patterned structures.

Spatially resolved sensitivity metrics pinpoint reconstruction error sources in substrate metrology, improving accuracy without heavy computation.

A nearby test device converts TSV-induced stress into electrical changes, enabling wafer-stage detection of abnormal vias without extra processing.

Measured wafer bow is corrected by backside film deposition that counteracts front-side stress, improving overlay accuracy and feature uniformity.