Wind Motor Combinations TRIZ Cases

A six-phase stator winding layout cuts voltage differences between coils in shared slots, enabling thinner or no phase separators.

Vertical stacking on one tower raises wind power output while cutting floor space, tower count, and construction cost with stable connector bracing.

Vortex-driven cable oscillation replaces rotating blades to generate electricity with lower noise, less bird harm, and reduced mechanical stress.

A bluff body and compliant shuttle convert low-speed wind galloping into electricity with lower friction and simpler hardware.

Cup-shaped rotor blades and air ducts improve airflow energy capture, raising electric generation efficiency for battery charging and power supply.

High-temperature superconducting coils and magnets cut resistive heat loss in wind turbine generators while improving electrical power conversion.

Rigid interference splines and generator-side rolling bearings absorb shaft float without spline lubrication, cutting complexity and easing maintenance.

Air-guiding sections create a nozzle-like flow path that cools direct-drive generator winding heads more effectively and reduces hot spots.

Front-surface recesses split airflow before it wraps to the rear blade surface, reducing resistance and stabilizing torque in wind rotors.

Angled vanes and ducts built into a vehicle grille channel airflow to turbines, generating supplemental electricity without adding separate turbine space.

Gradually merging flow paths and a pre-rotor recirculation passage reduce inlet turbulence, improve flow coherence, and boost wind energy capture.

Deployable wheel blades create compressor drag for braking, cutting mechanical brake wear while limiting drag during normal driving.

Adjustable wheel blades create braking drag only when needed, cutting brake wear while limiting drag and energy loss during normal driving.

Airflow from industrial fan motors powers onboard sensors, enabling battery-free predictive maintenance without wiring or battery replacement.

Activated carbon filters built into wind turbine blade cavities capture pollution particles while supporting compact local power generation.

A grille-mounted rotor captures frontal airflow to generate onboard electricity while reducing wasted drag that cuts electric vehicle range.

An external roof rotor with tapered wind funnels generates power in motion, extending vehicle range while avoiding cabin condensation and major redesign.

Magnetic levitation and propulsion keep turbine tubes moving on a circular track, enabling continuous low-vibration power generation without wind.

Directed hot or cold airflow dries and cools iron core ends to limit insulation damage, temperature rise, and coating erosion in wind generators.

Partially overlapping 5 inclined blades raise wind power output in limited space while reducing vortex noise and structural load.

Distributed HV-side filters inside wind turbines use cable capacitance to damp offshore wind farm harmonics and resonance.

Airfoils mounted on a building edge keep wind attached and concentrate it toward a turbine, boosting capture without tall towers.

Embedded dome blades let a rotating tower generate penthouse power while preserving 360-degree views and avoiding a separate turbine structure.

A wind collector, booster arm, and rotating exit conduit raise wind flowrate and use thrust-driven torque to improve power capture.