Static excitation and model-based evaluation derive MEMS resonance and damping accurately without high-frequency testing or long measurements.
Applying perpendicular mechanical force measures structural deflection to determine under-etched distance without destructive sample preparation.
Separate trap locations on the backplane hold micro-objects without continuous electrode activation, reducing energy consumption and system complexity.
Interconnected sensor units generate an overall signal that amplifies the first vibration mode of a micromirror.
An infrared illumination module redirects light out of plane to reduce the z-dimensional profile.
A conductive shielding layer embedded in the interlayer isolation of a transfer head array blocks external electric fields.
Segmented base cavities isolate the MEMS sensor from thermal expansion strain, preventing structural deformation and enhancing device reliability.