
Complex Impedance Plane Drift Compensation in Resonant Inductive Front Ends
Orthogonal vector decomposition of complex impedance separates resistive copper thermal drift from reactive target motion in high-Q resonant inductive sensors.

Orthogonal vector decomposition of complex impedance separates resistive copper thermal drift from reactive target motion in high-Q resonant inductive sensors.

Matching element strain coefficients to substrate thermal expansion eliminates thermal hysteresis and holds sub-ppm resistance stability across operational temperature bands.

Incoming transducer lot qualification demands static thermal dwell saturation mapped against spatial chamber gradients to prevent false acceptance of drifting lots.
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