Separating broadband signals into low and high bands enables efficient amplification with lower intermodulation and better linearity.
A unified current-mode line driver supports 100Base-T and 10Base-Te while cutting area and power through termination-free impedance matching.
A mixed-mode repeater uses tri-state isolation and switch logic to cut standby power while enabling fast low-frequency signal transmission.
A current-mirror output stage decouples transconductance from differential nodes, enabling 1.8 V line driving with lower power.
Digital calibration feedback adjusts receiver termination resistance to match transmitter impedance and prevent signal reception errors.
By resetting impedance-adjusting transistors before each code change, this circuit suppresses switching noise and keeps comparator-based matching stable.
A single digital feedback loop with mixed recursive and non-recursive filters cuts impedance-matching circuit complexity and cost.
Independent slice-level Zcal and tap assignment let a segmented SST transmitter tune impedance and FFE separately without losing matching range.
Double-conversion receiver circuits use phase-shifted mixers to enable concurrent dual-carrier reception without intermediate-frequency filtering.
A transmission mode configurator selects SISO or MIMO modes based on detected line characteristics to optimize internet service delivery.
A bus circuit measures connection resistance to dynamically set termination values.
A bimodal impedance terminator couples resistors and a capacitor to the differential signal lines of a data bus.
A suppression circuit lowers bus impedance during dominant to recessive transitions to mitigate signal reflections.