By converting wind power electricity to high frequency before voltage transformation, this case cuts transformer core size, weight, and cost.
Sequential grounding of conductive loops cuts isolation-transformer EMI, avoids infield calibration, and preserves standards compliance.
Dynamic phase-difference control and ripple compensation remove the DC link capacitor, shrinking single-phase EV chargers.
Closed-loop IoT tap control uses voltage sensors and a bidirectional motor to keep three-phase autotransformer output stable under load.
A single converter merges USB-C power delivery with MoCA data conversion, cutting adapter count and simplifying coax networking setup.
Inductive coupling between equipotential-node inductors and a multi-phase TLVR manages current slope to improve converter transient response.
Inductive coupling between equipotential-node inductors and a multi-phase TLVR controls current slope during surges to improve regulator transient response.