Depending on where you put your turbine, it has an impact on power produced. the middle of the USA gets an average of 14-18 mph which gets you 60-70 kWh a month at the best. the east and west coasts produce 5-10 mph which gets you 5-28 kWh a month at the best.
A typical wind system is rated at 1.5 Mwh systems (such as the G.E. and Vestas systems widely used today) These are rated for 28 mph winds. Averages are closer to a 14 to 15 mph average wind. That gives us an actual output of 150 Khw of power. 150Kwh of hourly power still gives us 3.6 Mwh of daily power or 1314 Mwh of power annually (assuming 100% uptime)
The average home consumes 3 kwh of power hourly or 72 Khw of power daily. This means, in real terms that an average wind generator can power roughly 50 average American homes. The past two years have seen major reductions in home power consumption. Hopefully that trend will continue.
That depends on how big the fan is (they come in different sizes) and how strong the wind is usually where it is sited. That depends on how big the fan is (they come in different sizes) and how strong the wind is usually where it is sited.
Watts measure power, which is how fast energy is produced or consumed. There are many wind turbines around that are rated at 3 Megawatts, or 3 million watts. Obviously when there is no wind they don't produce power and an alternative energy source is needed as a backup.
3 Megawatts is enough to feed 1000 houses in Europe.
First you must consider the power rating of the wind turbine. If we assume a nominal rating of 1MW then we must calculate the energy it would produce in a year. The capacity factor for wind power is 30%, this is a factor which takes into account that wind doesn't blow all the time (obtained as the ratio of actual energy produced by a wind turbine to the hypothetical energy it should produce if it produced constantly at its rated power throughout the year).
Therefore the energy would be = 1000 kW * 24 (hours a day) * 365 (days a year) * 0.3 (Capacity factor) = 2628000 kWh (per annum)
If we assume that an average household uses 7000 kWh of energy a year then this particular turbine will power = 2628000/7000 = 375.4 homes.
(Turbine rating, capacity factor and average household energy consumption may all vary and have been selected for the purpose of this example)
10
Most all houses use some. Nuclear is about 19 percent of total supply.
Hydro-electric energy can be created in many ways, but all forms of energy require the spinning of a turbine to generate electricity.
Of course new generation wind turbine has to face wind.The concept of wind turbine is this that wind has kinetic energy, and this energy is converted by WTG by rotary blade into mechanical energy through gear box then again into electrical energy through generator. Here mainly wind is the main criteria, which rotates blade in variable speed depends upon wind density. More density and wind speeed more power will be generated. Besides this there are many versions of wind turbine, Upwind means new generation wind turbine normally we observed, In Down wind turbines turbines has no relation with wind perpendicular to wind. I think you must have got the answer.
They are not very effecient. a wind turbine that is 50 % effecient is very effecient compared to other wind turbines. this is because most of the kinetic energy is changed into heat instead of electrical energy.
The Perry plant is a single reactor of approx 1200 MWe output, see link below. What is the average consumption per house? If we said 2Kw, then 1200 MW which is 1,200,000 Kw will supply 600,000 houses, but it's a case of how much you assume for each house on average.
one wind turbine can produce enough energy to power 10000 houses with the right amount of wind.
Most all houses use some. Nuclear is about 19 percent of total supply.
1,000 houses, according to Wind Farm Resources. http://www.windfarmresources.com/750kw2mwwindturbine.html
Charles F. Brush invented the wind turbine in 1888. The wind turbine is an excellent form of alternative energy that many say that Charles F. Bush is a huge contributor in.
The supply charartertics in most domestic properties in UK provides aroung 60 to 80 amps therefore allowing 14 to 18 KW of energy to be used . In most domestic homes this is rarely used to its maximum . If the property is heated using gas , oil or an other energy source the demand will be greatly reduced . Any turbine supplier will assess your needs for free .
Hydro-electric energy can be created in many ways, but all forms of energy require the spinning of a turbine to generate electricity.
3
Joule and Watt actually measure quite different things. Joule is a unit of energy; Watt is a unit of power (joules / second). So, a 10 kW turbine will transform 10 kJ of energy every second.
The payback time is about three to five months, depending on how much wind blows. This means that over the life of the turbine (20 to 25 years) it should produce many times more energy that was used to make it.
Steam generates electricity by spinning turbines located within electromagnetic fields. The steam can be generated by heating water using many types of fuels, such as coal, gas, and oil, or through the heat generated from controlled nuclear reactions.
there are many kinds of issues about energy one of this is the lock of supply we have to save energy for the use of the other generations
4