more than wave also more preditable than saolar AND wind!
Coal power plants typically produce around 2-3 kilowatt-hours (kWh) of electricity for every pound of coal burned. The energy produced can vary depending on the efficiency of the plant.
The power needed can be calculated using the formula: Power = Energy / Time. Plugging in the given values, the power required to produce 1700 Joules in 5 seconds is 340 Watts.
Energy produced by using water can vary depending on the method. Hydroelectric power plants generate electricity by harnessing the energy of flowing water, producing a significant amount of energy. Other methods such as tidal and wave energy also use water to generate power, but in smaller quantities compared to hydroelectric power. Overall, water is a valuable resource for producing renewable energy.
The amount of energy wave power can produce per hour varies depending on factors such as the intensity of the waves, the size of the wave energy converter, and the efficiency of the system. On average, a single wave energy converter can produce around 25-50 kilowatt-hours per hour in optimal conditions.
The amount of energy produced by a nuclear power plant in an hour can vary depending on its size and capacity. On average, a nuclear power plant can produce around 1,000 to 1,500 megawatt-hours of electricity per hour.
The amount of energy a tidal power plant can produce in a day depends on factors such as the size of the plant, the strength of the tidal currents, and the efficiency of the technology. On average, a tidal power plant can generate enough electricity to power thousands of homes for a day.
Every turbine gives 300-400 homes power.
The amount of energy produced by tidal energy in one day can vary greatly depending on factors such as location, tidal patterns, and the specific technology being used. However, on average, a tidal energy system can generate enough electricity to power an estimated 750-1,500 homes for a day.
Tidal power has the potential to generate significant amounts of electricity, but the exact amount produced varies depending on factors such as the location of the tidal power system and the size of the installation. On average, a tidal power plant can produce enough electricity to power thousands of homes.
Sihwa Lake Tidal Power in South Korea generates 250 MW of electricity, and has been in operation since last year. Korea has plans to begin construction of a 1 GW tidal power plant in 2017. Since a watt is equal to one joule per second, a gigawatt is 3.16x10^16 joules per year. Theoretically, much larger tidal generation facilities could be built, but there are practical economic and environmental considerations to factor in that.
Tidal power accounts for a very small percentage of global energy production, less than 0.1%. It is not currently a major source of energy due to high costs and limited locations where it can be effectively harnessed.
Tidal power needs a suitable bay or river mouth that fills up with massive amounts of water at high tide, but that only has a small exit to the sea, otherwise it is not economical. There are not many suitable locations in the US for tidal power.
it is caused by the shocks of an earthquake and the earthquake is caused by the movements of the plates at the bottom of the earth
Tidal power is useful because it generates electricity that is renewable, free and non-polluting. So it is an excellent replacement for energy from fossil fuels (coal, oil and natural gas) which is non-renewable, expensive and polluting (that is, causing global warming).
power rating is the rate of moving energy their relationship in the amount of heat it produce it divided by time to move that much energy
It's difficult to say. A tidal wave, or a tsunami, has an amazing amount of power, but it is all over in a hour or two. Tidal mills can capture the tidal water twice a day and use it to generate clean electricity. This will continue for ever (or until the turbines need to be replaced).
Because they have the largest tides in the world with a difference of as much as 48 feet between low tide and high tide. The greater the difference, the more energy can be derived from the change.