Air ducts channel airflow through a vehicle-mounted wind turbine to charge the battery in motion and reduce EV charging stops.
Voltage sensing estimates wind and rotor speed to release the electric brake at the right time, preserving generation efficiency without extra sensors.
Threshold-based air cooling keeps the wind turbine power conversion system within temperature limits, reducing curtailment at high ambient heat.
Virtual impedance and frequency-based control stabilize DC bus and injection voltage while reducing active-reactive power coupling.
A torque-surplus feedback scheme lowers wind turbine generator torque peaks and gradients during grid disturbances while preserving VSM grid-forming control.
A mast-integrated generator and selective gearbox engagement boost wind turbine output while limiting low-speed drag and high-wind damage.
When blade deicing demand rises, internal turbine power is shifted from lower-demand subsystems to maintain ice protection without overloading supply.
Staggered startup of cooling and intermittent devices through one frequency converter cuts starting shock, power use, and generator temperature swings.
A thermodynamic model uses ambient, component, and power data to set safer wind turbine limits without overly conservative derating.
Filtered and phase-shifted generator speed signals help cut 3P torque disturbances, reducing wind turbine drivetrain fatigue.
A centralized support structure combines locking bolts and brakes to cut wind turbine installation steps and alignment effort.
Mixed feedforward and feedback control lets energy storage handle grid frequency swings first, reducing rotor load impact and stabilizing power.
Excess Region 3 wind power is stored mechanically before generation, boosting output without a larger generator and smoothing variability.
Predetermined grid signals let wind turbines detect islanding without controller communication, preventing over-generation and unstable operation.
Predetermined power characteristics let turbines detect utility-grid disconnection and avoid unstable injection after controller communication loss.
A memorized power cap keeps wind plant output from rising with wind gusts during over-frequency events, helping stabilize the grid.