The answer to the question: What is the circular velocity of a satellite in meters whose orbit is 2700 km from the Earth surface?
Use Kepler's third Law
The answer is: 6623 m/s.
Formula used: (GM/d)^.5
G=6.67x10^-11m³/kg/s²
M=Mass of Earth=5.57x10^24kg
d=Distance of satellite from the Earth sea level plus radius of Earth=6378km
Bozidar kornic
To calculate the PSI of water in a river based on the velocity of the river, you can use the formula PSI = 0.433 * (velocity in feet per second)^2. This formula accounts for the pressure increase due to the velocity of the flowing water. Just plug in the velocity of the river in feet per second into the formula to calculate the PSI.
The area between the graph and the x-axis is the distance moved. If the velocity is constant the v vs t graph is a straight horizontal line. The shape of the area under the graph is a rectangle. For constant velocity, distance = V * time. Time is the x-axis and velocity is the y-axis. If the object is accelerating, the velocity is increasing at a constant rate. The graph is a line whose slope equals the acceleration. The shape of the graph is a triangle. The area under the graph is ½ * base * height. The base is time, and the height is the velocity. If the initial velocity is 0, the average velocity is final velocity ÷ 2. Distance = average velocity * time. Distance = (final velocity ÷ 2) * time, time is on the x-axis, and velocity is on the y-axis. (final velocity ÷ 2) * time = ½ time * final velocity ...½ base * height = ½ time * final velocity Area under graph = distance moved Most velocity graphs are horizontal lines or sloping lines.
In order to calculate that, we'd also need to knowthe substance in the tankthe size and shape of the outletthe height of the outlet above the floor of the tank.
The satellite is being pulled by the earths gravity all of the time, but the satellite also has an orbital velocity, meaning that is is travelling at high speed. These two opposing forces balance out, the 'sideways' speed of the satellite wants to take it away into space, but the gravity of the earth is always pulling it in. The satellite maintains its speed as there there are no frictional forces to slow it down in space, so it maintains an orbit.
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.
It isn't clear what you mean by the "height of a velocity".
Today the height of Mount Everest is calculated using GPS and Satellite.
I assume you refer to the formula distance = velocity x time. If an object moves upward, the distance would become the height.
height=acceletation(t^2) + velocity(t) + initial height take (T final - T initial) /2 and place it in for time and there you go
You calculate 1/3 times the base area s the height. The height should be perpendicular to the base.
To measure the velocity of a falling object when the height is 2m, you can use the equation v=sqrt(2gh), where g is the acceleration due to gravity (approximately 9.81 m/s^2) and h is the height (2m). Plug in these values to calculate the velocity of the falling object when it reaches a height of 2m.
To calculate the velocity of fluid flow in a pipe based on the pressure within the pipe, you can use the Bernoulli's equation, which relates pressure, velocity, and height of the fluid. By rearranging the equation and solving for velocity, you can determine the fluid flow velocity in the pipe.
To calculate height when given velocity, you can use the equation ( h = (v^2 \sin^2 \theta) / (2g) ), where ( v ) is the initial velocity, ( \theta ) is the launch angle, and ( g ) is the acceleration due to gravity. This equation applies when the object is launched horizontally.
The maximum height attained by the body can be calculated using the formula: height = (initial velocity)^2 / (2 * acceleration due to gravity). Since the velocity is reduced to half in one second, we can calculate the initial velocity using the fact that the acceleration due to gravity is -9.81 m/s^2. Then, we can plug this initial velocity into the formula to find the maximum height reached.
Yes, mass and velocity can affect potential energy. For an object at height, potential energy is directly related to the object's mass and height above the reference point. Additionally, potential energy can also be affected by an object's velocity, such as in the case of an object in circular motion where kinetic energy can be converted to gravitational potential energy.
The volume is pi*r^2*h where r is the radius of the circular] cross section and h is the height (or length).
A round swimming pool is a right circular cylinder, so you can use the formula pi times the radius squared times the height to calculate the volume.