You must provide details of the :-
1) Inlet air temperature
2) Fuel characteristic (LHV, sulphur contents, etc.)
3) Site elevation
4) Inlet / Exhaust loss
5) Open cycle type of GT ? Heat Recovery ?
Then the supplier will calculate for you.
Approximately one acre.
Green energy is the idea. But to be honest, not much power is produced from each wind turbine, so they don't really help very much, that's why you need SO many of them. For instance a typical power station would be 2000 MW, a typical wind turbine is 2 MW. A typical power station could operate at 100% output for 90% of the time. A typical wind turbine operates at 50% output but is only operating for 50% of the time (when the wind is acceptable). So on average the power station can produce 1800MW whereas the wind turbine is about 0.5 MW.
by calculating the inlet steam enthalpy-outlet steam enthalpy we will know the total kcal consumed for output mw required kcal for 1 kwh=860 now campare this with your turbine kcal for 1kwh now you came to know how much is your turbine efficiency................................................................................
Depends on which kind of waste is used for the production.
Less than 5 volts
How much steam is required to produce 5 MW power in steam turbine?In fully condensing turbine we will need 20 TPH steam required to generate for 5MW
The amount of power produced by wind power varies depending on factors such as wind speed, turbine size, and location. On average, a typical onshore wind turbine can produce between 2 to 3 megawatts (MW) of power, while offshore wind turbines can produce even more.
Every turbine gives 300-400 homes power.
The power output of a steam turbine depends on various factors such as turbine size, steam pressure and temperature, and efficiency. Large steam turbines in power plants can generate hundreds of megawatts of electricity, while smaller turbines in industrial settings may produce tens to hundreds of kilowatts.
A large wind turbine can produce anywhere from 2 to 8 megawatts of electricity, depending on the specific model and wind conditions. This is enough to power hundreds to thousands of homes, depending on the energy consumption in the area.
The power output of a gas turbine can vary significantly based on its design and size, typically ranging from a few megawatts (MW) for small industrial units to over 400 MW for large combined-cycle power plants. On average, industrial gas turbines produce between 10 to 50 MW. In combined-cycle configurations, where a gas turbine is paired with a steam turbine, the total output can exceed 600 MW. The efficiency and output depend on factors such as the turbine's design, operating conditions, and the type of fuel used.
Approximately one acre.
The amount of energy produced by wind power has several different factors, such as the amount and strength of the wind. However, some studies show that a 1.8 MW wind turbine can produce over 4,700,000 kWh of energy per year if located at a reasonable site.
It produced enough electricity to power his holiday home and a surplus which he offered to the locals to power their street lights but they refused saying "Electricity was the work of the devil".
The amount of power consumed to rotate one turbine can vary depending on factors such as the size of the turbine, wind speed, and efficiency of the turbine system. On average, a small residential wind turbine may consume around 1-10 kW of power to rotate. Commercial-scale turbines can consume much more power, typically in the range of 1-2 MW.
This is a question of how much electrical energy you want to produce, against the cost of the equipment to produce it.
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.