The height of a geostationary satellite from the surface is approximately 35,786 kilometers (22,236 miles).
The satellite is pulled towards the Earth by the force of gravity, but it also has it own high velocity in its orbit. As it accelerates downwards towards the centre of the Earth, its velocity keeps track of the Earth's curvature, so it actually stays at the same height constantly.
It depends upon where you are in relation to the satellites. If you are east of the 110 satellite, then yes the 110 appears higher than the 119. If you are west of 119 then it would appear higher than the 110. If you are in between them, the closer one will appear higher.
The first Sputnik satellite launched by the Soviet Union in 1957 had a height of about 58 centimeters (23 inches) and a diameter of approximately 58 centimeters (23 inches) as well.
Communication or geostationary satellites orbit the Earth around the equator at a height of approx 23000 miles. To fit a satellite dish to your home you need to know the latitude on the globe of your town. The dish angle approaches the horizontal the further north you live. Note: It's the same for setting the angle of the gnomon on a sundial.
Gravity keeps satellites in orbit. The closer you are to the Earth, the faster you have to go to maintain your orbit. At low Earth orbit, the altitude of the Space Station, you make an orbit every 90 minutes. At the Moon's distance you need over 27 days to go around the Earth. In-between there is an altitude which matches the rate of the Earth's rotation. Many satellites orbit at this altitude.
NO. The gravity of Earth, in conjunction with the inertia of the satellite, keeps the satellite revolving around Earth. However, the satellite doesn't get any nearer to the Earth. So, according to the laws of physics, no work is done. (I'm ignoring the fact that satellites sometimes lose height and need to be "boosted" a bit to maintain their orbits. Also, I'm assuming that the satellite's orbit is circular. If the orbit is elliptical the answer is more or less the same, but a bit more complicated.)
The height of a geostationary satellite from the surface is approximately 35,786 kilometers (22,236 miles).
The volume ( V ) of a right circular cylinder can be approximated using the formula ( V = \pi r^2 h ), where ( r ) is the radius of the base and ( h ) is the height of the cylinder. In this formula, ( \pi ) is a constant approximately equal to 3.14. This equation calculates the volume by determining the area of the circular base (( \pi r^2 )) and then multiplying it by the height (( h )). Thus, the volume represents the space contained within the cylindrical shape.
If you hold the W key and the '8' on the numeric keypad, the helicopter will fly straight forward. Holding A or D also will give it a circular flight path at a constant height.
YES As height increases, speed of satellite decreases.
The volume of a right circular cone with a radius of 4mm and a height of 6mm equals 140.88mm3
A right circular cone with 8 height and 6 radius has a slant height of 10.
yeah about 450 miles
Today the height of Mount Everest is calculated using GPS and Satellite.
The volume of a circular cylinder varies directly with the height of the cylinder and with the square of the cylinder's radius If the height is halved and the radius is doubled then the volume will be increased.
A circular prism, also known as a cylindrical prism, is a three-dimensional geometric shape with two parallel circular bases connected by a curved surface. The sides of the prism are perpendicular to the bases, and its cross-section is constant along its height. Common examples include cylinders, which can be used in various applications such as pipes or storage tanks. The volume and surface area of a circular prism can be calculated using specific mathematical formulas.