The earth's equator is approximately 40,075 kilometres. There is no exact value because, amongst other things, the equator is not static: it moves with shifts in the axis of the earth's rotation.
However, using calculus, it is possible to show that the length of the string would need to be 2*pi inches = 6.3 inches greater than the length of the equator measured in inches. Given the variability in measuring the earth's equator, that difference will not be identifiable.
The earth's equator is approximately 40,075 kilometres. There is no exact value because, amongst other things, the equator is not static: it moves with shifts in the axis of the earth's rotation.
However, using calculus, it is possible to show that the length of the string would need to be 2*pi inches = 6.3 inches greater than the length of the equator measured in inches. Given the variability in measuring the earth's equator, that difference will not be identifiable.
The earth's equator is approximately 40,075 kilometres. There is no exact value because, amongst other things, the equator is not static: it moves with shifts in the axis of the earth's rotation.
However, using calculus, it is possible to show that the length of the string would need to be 2*pi inches = 6.3 inches greater than the length of the equator measured in inches. Given the variability in measuring the earth's equator, that difference will not be identifiable.
The earth's equator is approximately 40,075 kilometres. There is no exact value because, amongst other things, the equator is not static: it moves with shifts in the axis of the earth's rotation.
However, using calculus, it is possible to show that the length of the string would need to be 2*pi inches = 6.3 inches greater than the length of the equator measured in inches. Given the variability in measuring the earth's equator, that difference will not be identifiable.
The earth's equator is approximately 40,075 kilometres. There is no exact value because, amongst other things, the equator is not static: it moves with shifts in the axis of the earth's rotation.
However, using calculus, it is possible to show that the length of the string would need to be 2*pi inches = 6.3 inches greater than the length of the equator measured in inches. Given the variability in measuring the earth's equator, that difference will not be identifiable.
they form above earths surface (THIS ANSWER IS NOT CORRECT) They Form BELOW earths surface(:
north
Use the sine ratio to find the height of the kite: sine = opposite (height of kite with the horizontal) divided by the hypotenuse (the string) Rearrange the formula: sine*hypotenuse = opposite sine 25 degrees*150 = 63.39273926 feet Height of kite above the ground: 63.39273926+4.5 = 67.89273926 feet Therefore the kite is 68 feet above the ground to the nearest foot
Any, depending on the volume of water spilt and the area of the flat surface. The specific height is also constrained by the surface tension of the water, the atmospheric pressure above it, and the gravity below it.
The "Surface Area" of the solid figure. Note, the word "total" in the answer above is not correct/needed - there can not be anything less than a surface area of a solid figure.
That's a "geostationary" satellite. It's roughly 22,000 miles above the equator, in a circular orbit.
Height above earths surface is called elevation
they form above earths surface (THIS ANSWER IS NOT CORRECT) They Form BELOW earths surface(:
The epicenter
they form above earths surface (THIS ANSWER IS NOT CORRECT) They Form BELOW earths surface(:
They form far above the earths surface.
Infinity
30 feet above sea level and 50 feet above earths surface... science homework these days
The atmosphere
There is no such country. The equator, and all of the Earth's countries, all cling steadfastly to the surface.
Yes they are about 100 kilometers above Earth's surface. Thanks, Jessica
troposphere