Übersetzung für "Volllaststunden" in Englisch

The goals are higher yields from wind turbines, more full-load hours and lower environmental impacts.

This adds up to 5000 full power hours at the planned 200 MW peak.

Such a configuration increases the number of full load hours.

Industry forecasts suggest an average value of 3,700 full-load hours per annum at sea.

This is equivalent to 4,450 full load hours of the twelve 5-megawatt turbines.

Hydropower shows high capacity factors, is simple to store and highly predictable.

A power plant of this kind could produce up to 3,600 full load hours, which would qualify it as a medium-load power plant.

Oversizing, the type of panels, and the expected full-load hours all play a role here.

By contrast, fossil and nuclear power stations can achieve much higher levels (80-90%) of annual average use (i.e. over 7 000 hours at full capacity), enabling this potential to be used for baseload capacity.

By contrast, hydro, fossil and nuclear power stations can achieve much higher levels (80-90%) of annual average use (i.e. over 7 000 hours at full capacity), enabling this potential to be used for baseload capacity.

By contrast, hydro, fossil and nuclear power stations can achieve much higher levels (80-90%) of annual average use (i.e. over 7 000 hours at full capacity), enabling this potential to be used for baseload capacity.

In typical low-wind regions, it will achieve a capacity of over 3,500 full-load hours, thus exceeding other turbines in this category by 20 percent.

The limit for the reasonable use of renewable energy in district heating networks is, because of the necessary high full load hours, the summer distribution.

The electricity generated by alpha ventus was thus around 15 per cent above the forecast annual rate of 3,900 full load hours.

The four cogeneration modules can be operated with a high number of full load hours: cooling is required throughout the year for equipment and sensitive spaces while surplus heating and cooling energy can be fed into the utility company's network at any time.

Offshore wind energy can be utilised at high full load hours and is therefore an important part for the future energy system and the growth of renewable energy.

Example: Comparing the measured and grid-optimal power consumption profiles of 38 heat pumps in residential buildings shows that at least five full-load hours of storage capacity are needed to achieve grid-optimal operation throughout the year while meeting the building's thermal load requirements.

About two ull-load hours of storage capacity (about 170 l/kWth with a temperature spread of 10 Kelvin) are sufficient to run the heating and cooling generation on about half of the operating days in a "grid-optimal" manner and to realise most of the possible increase in the grid-supportiveness.

In the planning of wind farms, however, the past experiences have shown that current offshore sites now generate around 4,000 full-load hours per year for the turbines – mathematically, this means that they run "full throttle" nearly 50% of the time.

In typical IEC-3 locations, the N117 turbine achieves a capacity of over 3,500 full-load hours, thus exceeding other turbines in this category by 20 percent.

Nevertheless, a growing demand for comfort air conditioning can also be expected in Germany, even if the number of full load hours per year will be low in many applications.

Not only did the mild winter in 2013/14 reduce the hours of full load and the energy turnover of all heating boilers but statistically it also extended their lifespan.

At a wind speed of 7.5 m/s the turbine delivers a net wind farm capacity factor of up to 42%, equivalent to 3,600 full-load hours each year.

When the full productivity (6,000 full load hours, 18,600 MWh/a power generation) is reached, about 12,000 t carbon dioxide, more than 7 t sulfur dioxide, and nearly 11 t nitrogen oxides are avoided annually and thus a contribution is made to the climatic protection and the improvement of the air quality.

As a result of these problems, many of these plants are unable to achieve the projected annual number of full-load hours, which has a substantial impact on their cost efficiency.

Wind farms already operational or under construction are situated in extremely favorable locations in the US states of Texas and New York and boast superb load factors.

Buffer storage systems typically have a capacity of 1?2 to 1 full-load hour, whereas large storage systems with 8 to 12 full-load hours enable power plant operation around the clock.

When viewed against total system costs (including storage, for instance) and the maximum number of full-load hours possible, many renewables are still unable to compete head to head with existing conventional fossil fuels.