Write a program to assist in the design of a hydroelectric dam. Prompt the user for the height of the dam and for the number of cubic meters of water that are projected to flow from the top to the bottom of the dam each second. Predict how many megawatts (1 MW= 106 W) of power will be produced if 90% of the work done on the water by gravity is converted to electrical energy. Note that the mass of one cubic meter of water is 1000 kg. Use 9.80 meters/second2 as the gravitational constant g. Be sure to use meaningful names for both the gravitational constant and the 90% efficiency constant. For one run, use a height of 170m and flow of 1.30 x 103 m3/s. The relevant formula (w=work, m=mass, g=gravity, h=height) is: w = mgh Show your result when the dam has a height of 170 meters, and a water flow of 1300 cubic meters per second. The dam can produce an electrical power of 1949.2 Mega-watts.
Write a program to assist in the design of a hydroelectric dam. Prompt the user for the height of the dam and for the number of cubic meters of water that are projected to flow from the top to the bottom of the dam each second. Predict how many megawatts (1 MW= 106 W) of power will be produced if 90% of the work done on the water by gravity is converted to electrical energy. Note that the mass of one cubic meter of water is 1000 kg. Use 9.80 meters/second2 as the gravitational constant g. Be sure to use meaningful names for both the gravitational constant and the 90% efficiency constant. For one run, use a height of 170m and flow of 1.30 x 103 m3/s. The relevant formula (w=work, m=mass, g=gravity, h=height) is: w = mgh
Show your result when the dam has a height of 170 meters, and a water flow of 1300 cubic meters per second. The dam can produce an electrical power of 1949.2 Mega-watts.
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