The Moons tangential velocity is constantly changing in direction as it falls around the Earth.
Orbital Velocity is calculated in m/s where as angular velocity is calculated in rad/s.. Answer is very clear.. angular velocity is calculated when body is rotating around a axis and a reference point is needed to calculate it.. where as orbital velocity is calculated when body is moving around a bado in circular path, nt around itself... e.g. Earth rotates around so it have angular velocity .. it also rotates around sun in orbit so it has Orbital velocity also :)
The terminal velocity of a 15lb watermelon falling from 40m up will depend on factors such as air density, shape of the watermelon, and air resistance. On Earth, a typical terminal velocity for a watermelon would be around 30-50 m/s, but this can vary based on the specific conditions of the fall.
Dizzy- possibly nauseated and bruised from falling over.
Assuming atmospheric conditions density of air being 0.0765 pounds/cu. ft. and assuming the car weighs 4000 lbs with dimensions of 6'x15'x5', with a drag coefficient of approximately 0.2...The terminal velocity of a car under these conditions would be about 52 mph. This is assuming it's falling flat. If the car was falling pointing down, the terminal velocity would be something more like 90mph. Obviously this answer will vary by changing the assumptions.
The Galilean moons—Europa, Ganymede, and Callisto—remain in orbit around Jupiter due to the planet's strong gravitational pull. This gravitational force keeps the moons in stable orbits as they revolve around Jupiter. The balance between their orbital velocity and Jupiter's gravitational pull keeps them from escaping or falling into the planet.
The terminal velocity of a cat is around 60 miles per hour, which is the speed at which they reach maximum falling velocity due to air resistance balancing out the force of gravity.
The speed of terminal velocity for a falling object depends on its size, shape, and weight. In general, terminal velocity for a human falling in the spread-eagle position is around 120 mph (195 km/h).
The terminal velocity for iron depends on its shape, size, and the medium it is falling through. For a small iron object falling through air, the terminal velocity is typically around 20-40 meters per second. However, in a vacuum, the terminal velocity would be much higher and dependent on the specific conditions.
The maximum speed a cat can reach when falling from a great height, also known as its terminal velocity, is around 60 miles per hour.
The terminal velocity of a bolt depends on its size, weight, and shape. However, for a typical bolt falling through air, the terminal velocity is usually around 200-300 miles per hour.
An object that has reached its terminal velocity is going at a constant velocity. Acceleration is the rate of change of the velocity. The rate of change is zero. Therefore, the acceleration is zero.
The greatest speed reached by a falling object is known as terminal velocity. This is when the gravitational force pulling the object down is equal to the air resistance acting against it, resulting in a constant speed. Terminal velocity for a human falling through the atmosphere is around 120 mph (200 km/h).
Yes, since the moon is in a circular orbit around the Earth, its velocity is constant but its direction is changing continuously as it moves around the Earth. This constant velocity is necessary to maintain the circular motion without drifting away or falling into the Earth.
If you drop a penny off the Empire State Building, it falls at its own terminal velocity after falling about 200+ metres (that's a guess but it's around 200). A penny's terminal velocity is roughly half of a falling person's terminal velocity. A falling skydiver will reach a maximum of around 130mph, so a penny will fall at approximately 65mph.
Gravity and velocity vectors in the proper ratio combine to make a state of perpetual falling towards the Earth that always misses
The maximum terminal velocity for a free falling object on Earth is typically around 120 mph (193 km/h) for a skydiver in a belly-to-earth position. This velocity occurs when the force of gravity pulling the object downward is balanced by air resistance pushing upward. Objects with different shapes and densities will have different terminal velocities.
Because it is falling toward Earth at the same rate as everything around it. See Related Links, below.