Placing dummy blocks with intermediate thermal expansion coefficients controls wafer curvature, improving yield and patterning efficiency.
Opaque encapsulation blocks light exposure while full coverage prevents chipping.
In-plane magnetization overcomes diamagnetic interference that limits perpendicular anisotropy, boosting permeability and shielding effectiveness.
Segmented fin groups connected to parallel heat pipes resolve the trade-off between adaptability to varying heat outputs and uniform cooling performance.
An auxiliary integrated silicon photodetector stimulates a transimpedance amplifier for functional verification on the wafer before packaging.
A convex under-bump metal layer configuration stabilizes the terminal structure interface.
A silicon or germanium bonding method uses a eutectic layer and buffer layers to manage thermal expansion differences between parts.
A self-aligned GaN FinFET process uses a sacrificial gate to define precise source-drain spacing.
A semiconductor package uses inclined side walls to enable uniform conductive shield layer deposition on complex surfaces.
Removing coating segments exposes underlying metal to increase the anode area, slowing corrosion rates at unintentional bond sites.
An interconnect substrate mounts discrete components directly on a die to increase connectivity density within a multi-component package.
Backside laser application forms shield tunnels through adhesive tape to divide wafers without front-side interference.