Selective series winding paths widen LC resonator frequency coverage while saving chip area and limiting insertion loss in transceivers.
Level-shifted switching across capacitor tuning banks lets an integrated VCO adjust frequency while preserving high Q-factor and lower noise.
Discrete capacitor switching linearizes oscillator frequency control for manual radio tuning while cutting receiver cost and power use.
Time-division switching between capacitance settings improves oscillator temperature compensation without smaller capacitor elements.
Gate-controlled series resistance lets a short-antenna RF transmitter widen bandwidth temporarily while protecting switches from high voltage.
Adjustable coupling on both sides of the antenna feed lets a compact housing antenna retune for left-hand, right-hand, or free-space use.
Process corner detection lets fast-corner ICs scale down analog current, cutting overall power dissipation, heat, and battery drain.
Separate oscillation and tuning capacitor control lets AM radios change frequency without muting output or adding switching noise.
A capacitor-coupled switching circuit changes short-antenna Q and bandwidth while shielding RF switches from damaging high voltage.
A programmable gain buffer and tunable line impedance improve wireless power transfer across multiple frequency bands.
A universal low noise block receiver switches between linear and circular polarity formats via integrated switching means.
Software-configurable parameters replace dedicated hardware to resolve complexity and deployment time bottlenecks.
Trimmable wires adjust LC tank frequency without parasitic resistance, preserving the Q factor and minimizing layout area.