Lapping Machines TRIZ Cases

Cyclic olefin addition polymer window blocks resist degradation below 400 nm, maintaining optical transmission for reliable semiconductor polishing.

Nozzle-applied rinsing fluid prevents aquaplaning and overheating while ensuring uniform material removal across the wafer center.

An in-situ monitoring system uses real-time angle calculations to modify measured signals from elongated regions during chemical mechanical polishing.

Swing arm torque sensors detect frictional force changes between the polishing pad and semiconductor wafer, resolving noise issues during motion.

A wear monitoring device analyzes acoustic emission signals from a polishing pad dresser to determine precise pad wear status.

Segmented fluid delivery arms manage polishing fluid accumulation at the substrate edge to resolve non-uniform material removal rates.

Recesses at the periphery of a CMP pad channel slurry outward, relieving concentrated stress that causes uneven material removal and substrate damage.

Pre-formed pattern substrate eliminates complex conditioning processes, ensuring uniform polishing performance across the wafer surface.

Independent retaining rings with a spherical bearing control edge polishing profiles while preventing wear particle defects.

Hard surface layers on elastic cores prevent scratches while maintaining high polishing rates for semiconductor device manufacturing.

Liquid sensor array detects fluid distribution on wafer surface during roll brushing to resolve non-uniform cleaning caused by dust and byproduct particles.

Polish substrate surfaces to remove protrusions, then deposit a planarization film to fill recesses, resolving defects that compromise circuit integrity.

Zone-specific optical detection determines layer clearance timing, enabling independent polishing pressure adjustments that reduce within-wafer non-uniformity.