Assertion: turbine | /r/CapableOf | generate electricity
Facets:
value: in water depths
type: LOCATION
value: into the utility grid
type: TRANSITIVE-OBJECT
value: not less
type: OTHER
value: under part-flow conditions
type: TEMPORAL
value: over one year
type: TEMPORAL
value: at speeds below the rating
type: MANNER
Source sentences:
text: While the turbine will still generate electricity at speeds below the rating, it won’t be able to meet its listed wattage unless it’s receiving the wind speed rating or higher.
text: As a result, the wind speed is higher and a turbine will produce more power than expected from the 1/7 power law: doubling the altitude may increase wind speed by 20% to 60%.
text: Generally defined as the time in a period when a turbine is able to make power, expressed as a percentage.
text: Other considerations such as whether the turbine is expected to produce power under part-flow conditions, also play an important role in the selection.
text: For example, if a 1.5-MW turbine generates power over one year at an average rate of 0.5 MW, its capacity factor is 33% for that year.
text: — groups of turbines that feed electricity into the utility grid — in the United States and Europe.
text: And the result is that turbines produce more electricity, not less.
text: Taller turbines with longer blades generate more electricity.
text: That’s a good thing, because it could take a very long time for the turbine to generate enough electricity to offset the cost of the turbine itself.
text: A floating wind turbine is an offshore wind turbine mounted on a floating structure that allows the turbine to generate electricity in water depths where fixed-foundation turbines are not feasible.
text: Wind turbines are essentially devices that are capable of harnessing the energy of the wind in order to turn a turbine, which is then able to generate electricity.
text: You can't really say that one turbine will last longer or produce more power just because it's an upwind or downwind turbine.