Wind Motor With Solar Radiation TRIZ Cases

See how a stationary non-imaging solar concentrator doubles as a wave-energy buoy and wind turb

See how a raised reticular structure merges solar panels and vertical wind turbines in one foot

See how a solar-heated vertical cylinder uses convection and the Venturi effect to rotate prope

See how a channel-integrated wind turbine and solar receiver use thermal acceleration to harves

See how a solar mounting system stored inside a shipping container enables fast assembly in rem

See how a solar thermal system uses refrigerant evaporation and turbine conversion to achieve 2

See how a three-dimensional solar body heats air to create ascending currents, then accelerates

See how integrated solar panels and wind turbines in barrier walls generate revenue to offset c

See how a vertical solar tower with dual-faced panels and surrounding reflectors increases ener

See how a regenerative heat exchanger and exhaust-based temperature control enable stable turbi

Exhaust heat preheats compressed air while flow control holds turbine inlet temperature steady, cutting fossil fuel use and cost.

Modular solar panels and a wind turbine create portable local power generation that eases grid strain and supports EV charging near demand.

Modular solar power units with ISO corner castings speed container attachment, stacking, and off-grid power supply.

A reversible CO2 heat accumulator cycle stores surplus solar and wind power locally, then returns electrical or thermal energy on demand.

Solar-heated air creates a super-adiabatic lapse rate that drives tube flow for lower-cost power generation without complex solar hardware.

Stored heat transfer fluid and parallel collectors keep a solar chimney producing updraft power after sunset as well as in daylight.

Movable protective doors shield PV panels from wind, hail, and debris, then reopen for sunlight to restore power generation quickly.

Future-condition modeling adjusts renewable operating modes to balance residual lifetime, energy output, and grid demand in a multi-system power plant.

Flexible PV blades, magnetic gears, and maglev bearing help a vertical windmill raise output while easing installation and reducing friction.

A raised rooftop solar canopy creates an air duct for wind power while keeping edge-mounted gondola access and reducing turbine turbulence.

Solar-powered ducted fans apply downward force to lever arms, compounding torque so turbines can generate power in low-wind regions.

Rotatable ledges deflect wind toward turbines and turn to cut tower drag, improving combined wind and solar energy capture.

Using wind and solar output as nuclear in-plant power frees more synchronous generation for the grid, improving stability and reducing losses.

A sealed dimpled spherical shell protects the generator from dust, soot, and ash while capturing wind and adding solar power.

A reconfigurable floating base combines renewable power, storage, and charging modules to supply remote offshore operations with less logistics.

Flexible photovoltaic elements bonded directly to columns cut frame-related weather exposure and airflow disruption while increasing usable solar area.

Integrated PV, wind, storage, and AI control remove long wiring and grid dependence for more reliable, efficient lighting.

Angled solar panels accelerate airflow at the trailing edge to drive a nearby turbine and smooth power output under changing wind and sun.

Reused wind turbine blades support vertical bifacial photovoltaic panels, cutting land use and blade waste while adding foldable weather adaptation.

A unified MIMO, MPPT, and sliding-mode controller coordinates solar, wind, and battery power to keep voltage and power quality stable.

Combining solar heat and LED waste heat with thermoelectric elements and shared cooling helps lighting keep generating electricity day and night.

A front air inlet and onboard turbine generate electricity while driving, helping EVs extend range without relying on charging stations.

An onboard air inlet and turbine generate electricity during driving, extending EV range where charging stations are limited.

Solar panels mounted on rotating wind blades use a hollow slip ring to combine wind and PV generation for steadier power output.

An angled solar array accelerates airflow toward a nearby turbine, combining photovoltaic and wind capture for steadier energy output.

A tapered structure accelerates airflow across spaced vertical axis turbines, raising local power output while reducing transmission losses.

Rotating solar panels and wind blades share one drive shaft to generate power while letting sunlight reach the ground and avoiding complex control circuits.

A shared rotating shaft lets wind blades and spaced solar panels generate power while reducing ground shading and avoiding complex power control circuits.

Rotating PV modules on wind turbine blades use airflow for self-cooling and dust reduction while boosting hybrid energy output without sun trackers.

A shared nearshore frame vertically couples wave, wind, and bifacial solar conversion to cut installation complexity and raise surface energy yield.

Solar modules wrap or bypass the wind turbine tower to add photovoltaic output without extra ground area and with lower power fluctuation.

Molten salt thermal storage, wind-driven turbines, and dual batteries work together to deliver continuous off-grid electricity with fewer outages.

Forecast-based control balances energy output, residual lifetime, and demand satisfaction across renewable and storage systems.

A speed increaser and planetary torque amplifier extend solar generation time while reducing panel count and inverter-related power loss.

Blade shadow prediction lets PV control adjust before turbine shading disrupts MPPT, improving hybrid plant power output.

A sealed phase-change buoyancy module uses the tropospheric temperature gradient to generate continuous power without solar timing limits.

Combining concentrated PV, infrared heat recovery, and sun-wind tracking reduces wasted solar energy and broadens power generation across climates.

Predicted wind and irradiance guide panel tilt and micro-turbine pitch to raise hybrid solar-wind output, including nighttime generation.

Radial PV regions with separate converters limit wind turbine shading to one section at a time, improving land use and power output.

A portable solar- and wind-powered inductive charger uses onboard battery storage to deliver off-grid EV charging without grid access.

Combined thermoelectric generation uses solar heat, LED waste heat, and cooling to keep lighting powered day and night.

A vertical airfoil tower lets solar panels rotate and fold with the wind, boosting energy capture while reducing structural load and land use.

Magnetic levitation lifts the wind-driven shaft to cut frictional load, helping the rotor generate energy with lower rotational loss.

Water compresses air in a pressure vessel, then a reducing valve delivers constant turbine pressure for efficient, low-impact energy storage.

A cylindrical collar in the blade joint carries bolt axial force to prevent resin blade deformation, loosening, and water ingress.

A liquid-supported rotating chassis lets solar panels and transverse wind turbines track sun and wind direction for higher output and easier maintenance.

Periodic auxiliary lubrication protects wind turbine gearbox meshes and bearings during off-grid idle periods while limiting energy use.

Intermittent auxiliary lubrication keeps wind turbine gearbox meshes and bearings protected during off-grid idle periods while limiting energy use.

A Venturi conical shell accelerates airflow for low-wind blade rotation, while passive wind alignment and bird protection improve practical use.

Continuous wind guides spanning multiple turbines cut flow escape and divergence losses, raising rotor wind speed and farm energy output.

Narrow-gap continuous wind guides limit flow escape around aligned turbines, raising rotor wind speed and reducing aerodynamic losses.