Wind Motor Supports/Mounts TRIZ Cases

Mounting the suspension device to the nacelle lifts the elevator car directly to the service level, eliminating additional ladder climbing.

A tower foundation assembly uses a receptacle and fasteners to create frictional load for secure attachment.

External pre-stressed tendons anchor to ground pilings, reducing footer size while enhancing lateral stability against wind forces.

A single column tension leg platform supports offshore wind turbines with a buoyant base and station keeping system.

A composite nacelle cover serves as the primary load-carrying structure for wind turbine machinery.

External stiffeners and load-bearing brackets secure wind turbine ladders to tower walls, providing tie-off locations for rescue operations.

Adjustable support extensions on a core grid vary the effective diameter of extension panels, accommodating multiple tower sizes without custom redesign.

Segmented stator mounting modules allow in-situ adjustment to control structure-borne vibrations without full disassembly.

A vertical axis wind turbine uses counter-rotating rotor assemblies and a ring gear mechanism to generate electricity.

A rotatable cable ducting arrangement uses a flexible electromagnetic shielding element to connect the cover and ring during yaw movements.

A monolithic concrete transition element with a curved generatrix distributes structural loads between the tower and float.

A vertical axis wind turbine uses curved blades to capture air flow tangentially and generate rotational torque.

Radially extending the concrete head portion anchors tendons outward, distributing tensile stresses at the steel-concrete interface.

Stabilizing high hub towers using stay cables anchored to a shared foundation structure reduces material consumption in wind energy farms.

Adjustable flexible reinforcing members align with existing tower flanges to restore structural integrity while minimizing repair time and cost.

A telescopic semi-submersible platform uses seawater ballasting to stabilize vertical motion in deep water.

Segmented buoyant structure with hollow columns reduces water plane area and steel usage while supporting higher wind turbine capacities.

Electrically conducting rails merge structural support and power transmission in a modular wind turbine system, reducing heavy steel tower requirements.

Towed platform turbines generate electricity from airflow to solve solar obstruction and theft risks.

Segmented anchoring sections standardize foundation construction by enabling rapid on-site assembly of pre-manufactured modules, reducing design complexity.

A wind turbine foundation base uses inclined tensile and compressive structural elements to support a central column at multiple discrete heights.

Pretension support stabilizes tower platforms under normal loads while absorbing extreme forces to reduce structural stress.

Tangential beams connect radial support elements to eliminate bridging plates and reduce assembly complexity.

Nesting inclined support plates inside tower sections resolves transportability versus load distribution trade-offs by eliminating external protrusions.

Rolling supports maintain axial air gaps in direct drive generators, eliminating gearbox complexity.

Vertically and horizontally installed wind power units capture vehicle-generated airflow to generate electricity.

Nesting pneumatic membranes inside rigid frames applies vertical tension to reduce steel consumption while maintaining compressive strength.

A power supply controller coordinates multiple kite-shaped flying objects to deliver stable electricity.

Radial moment beams anchor a wind turbine platform to piles, reducing construction time and environmental disruption.

Segmented pre-cast piles reduce concrete volume and thermal cracking risks while maintaining structural stability.

A load guiding arrangement applies controlled torque to suspended crane loads using winches and taglines.

Dynamic blade adjustment resolves the contradiction between high power output and structural stress by optimizing moment arms under varying wind velocities.

An elevated foundation base positions cable terminals above ground level, eliminating deep excavation and reducing construction time.

Rotating cable rings prevent twisting during nacelle tracking while maintaining clear internal space for safe load transport.

Tension cords brace precast concrete segments to resolve climatic quality issues in wind turbine foundations.

Inward pocket design enables automatic rod placement, reducing manual labor and assembly time.

Segmented housing with variable pitch blades manages airflow velocity while preventing generator overloading during high wind conditions.

Pre-tensioned active cables compress the joint immediately while passive bars handle extreme loads, reducing erection time.

A sliding ladder bracket system maintains constant length within wind turbine tower sections.

Segmented aquatic substructures with adjustable ballast reduce structural loads and lower installation costs for floating wind energy systems.

Hydraulic telescopic mechanism lowers tower height to resolve maintenance accessibility challenges in high wind turbines.

A rectangular doorway frame eliminates stress concentrations from oval cuts, reducing material costs and enabling thinner tower segment designs.

Segmented precast concrete foundation elements connect via bridging plates and reinforcement to distribute loads.

A vertical axis turbine uses an upward wind guiding device to capture airflow for electricity generation.

A hyperboloid tower uses pressure differentials to rotate a rotor assembly and drive generators for electrical current production.

A conductive offshore wind turbine base uses a power supply to generate an electric field that deters aquatic organism attachment.

A hybrid wind power tower uses edge-stiffened combined shells to reduce material consumption.

Hexagonal UHPC wind turbine towers use post-tensioned connections to reduce transportation costs and extend design life.

A radial foundation uses precast concrete beams and in-situ footings to support wind turbine towers.

A semi-submersible platform assembles wind turbines in shallow water before towing them to the installation site.