Wind Motor Supports/Mounts TRIZ Cases

Stacking multiple vertical-axis wind generators on one tower raises output while cutting floor space, tower count, and structural cost.

A hub-centered mooring layout stabilizes grouped offshore turbines, protects power cables from fatigue, and reduces seabed congestion.

Mechanical sealing elements replace resin in a wind turbine cable hang-off, avoiding curing delays, fumes, and blocked maintenance access.

Movable sheaves and tubular isolation keep floating wind power cables tensioned while reducing mechanical damage and biofouling.

Inward and outward mooring lines around a floating hub reduce deep-water motion, ease line congestion, and protect offshore power cables.

Solid sealing elements replace resin in a wind turbine cable hang-off, enabling fast sealing, easier maintenance, and no curing fumes.

A static moisture buffer zone with a metallic water-blocking sheath lets wet submarine cables use flexible joints while limiting water ingress and easing repair.

Tensioned tethers with buoyancy springs keep drifting energy converters in formation offshore while reducing anchors, seafloor impact, and deployment effort.

Buoyancy blocks, mooring chains, and elastic cables shape the dynamic cable to limit drift, absorb impact, and avoid collisions in shallow-water wind systems.

A circular track-supported VAWT reduces bearing friction and captures wind from any direction while integrating into residential roofs.

A removable shaft and dual bearing layout stabilize the generator air gap in wind turbine drive trains while cutting weight and easing maintenance.

Partial shielding blocks wind from rear-facing blades, cutting drag and boosting vertical-axis turbine charging on moving EVs.

A double-cylindrical breakwater and tuned wave energy converters attenuate waves, generate power, and reduce floating wind turbine vibration.

Buoyancy sections suspend inter-array cables off the seabed, cutting static tension and cable length while accommodating floating platform motion.

A hub-centered radial mooring layout stabilizes deep-water floating wind units, cuts cable fatigue, and reduces seabed congestion.

A controlled cable release creates clean reconnectable ends after mooring failure, avoiding uncontrolled rupture and simplifying offshore repair.

Angled carrier elements and cooling pockets raise stator radial stiffness and stability while reducing material and welding complexity.

A downwind generator module with removable shaft and dual bearings improves air gap stability while reducing wind turbine drive train weight.

Kinetic energy from airflow and wheel rotation powers trailer tracking when solar and auxiliary sources are unreliable.

A removable heat-exchanger and fan module cools wind turbine generators in tight nacelle space while simplifying maintenance access.

Profiled-strip mounting replaces threaded rods and welding to speed stator stack assembly, avoid short-circuit defects, and prevent sagging.

A thin porous coating triggers a turbulent boundary layer on cylindrical elements to cut drag, narrow wakes, and reduce vibration.

Adjustable beam-frame platform supports wind turbine electrical equipment while adapting size and load capacity to different tower layouts.

Small distributed turbines feed pneumatic motors and air storage to generate power at low wind speeds with less noise and visual impact.

A wedge-driven gripper connector secures concentric tubulars without grout, cutting offshore installation time and simplifying removal.

Adjustable beam members and a reconfigurable platform let wind turbine electrical equipment supports fit changing size and load needs.

Real-time edge alignment monitoring and feed-rate adjustment keep spiral-formed cones and cylinders within tolerance while avoiding deformation.

Corrupted sensor and actuator signals are detected, filtered, and replaced with mitigation responses to keep industrial assets operating safely.

Sensors and actuators correct edge misalignment during spiral joining, improving geometric tolerances in conical and cylindrical forming.

Multiple U-tube dampers arranged in a polygon reduce wave-driven motion from varying directions and improve floating support stability.

A cyber-attack model predicts operational impacts and mitigation responses so industrial assets can filter bad signals and stay running.

Sensors and an edge pusher correct spiral joint misalignment in real time by adjusting feed rates to hold geometric tolerances.

A shaped connector plate bridges the tower gap to join adjacent segments without spacers or filler, cutting wind turbine tower assembly time and cost.

Non-parallel U-shaped liquid dampers resist wave motion from multiple directions, improving floating support stability across varying wave angles.

Real-time edge monitoring and in-line correction keep spiral joints aligned, improving geometric tolerances in conical and cylindrical forming.

Rotatable duct turbines around a vertiport deck align with aircraft rotor wash to generate distributed rooftop power where large wind units are impractical.

An asymmetric mooring layout varies line lengths and bridle connections to limit roll-yaw instability in floating wind turbines.

A weight-float mooring line keeps tension nearly constant, preventing surge from heave and preserving turbine orbital motion in storms.

Concentric tubular webs and tendon passages create a faster, stronger wind tower-to-concrete foundation joint with easier alignment and inspection.

Downward stabbing guides, ballasting, and tensioning stabilize a floating platform for precise offshore wind turbine mounting with less tipping.

An integrated tower, buoyancy, and ballast structure cuts offshore installation cost while improving stability, mobility, and wave-motion control.

Ballast-controlled buoyancy and locking legs stabilize an offshore wind turbine foundation while easing transport, installation, and disassembly.

In-situ adjustable mooring line tension compensates for tolerance stack-up and anchor settlement to keep floating platforms stable.

A Y-shaped floating wind platform cuts substructure cost while improving motion performance and keeping vessel access open.

A catamaran hull and gantry layout enables full wind turbine assembly on land, cutting offshore installation complexity, risk, and cost.

Diagonal and coaxial mooring lines stabilize a buoyant offshore spar, reducing wave-driven movement while simplifying deployment and maintenance.

An adjustable mooring line with a jackscrew tension device corrects tolerance stack-up and anchor settlement to keep floating platforms stable.

A tripod concrete-steel tower raises wind turbine height without heavier foundations and enables crane-free staged construction.

Localized ballast control in each floating wind turbine column counters mean inclination faster than inter-column transfer, improving stability and uptime.

An underwater weight unit and closed-loop cables keep mooring tension stable through tides while easing cable replacement and reducing shock.

Bolts and aligning pins level the tower plate directly on concrete sections, cutting grout work, assembly time, and crack risk.

Vertical prestressing elements compress prefabricated concrete foundation sections together to transfer wind turbine loads without horizontal fasteners.