At the equator the earth spins at 0.0005 Meters per second. Here's a bit more data -- you can do the math. ;-)
•How fast is the Earth spinning? 0.5 km/sec•How fast is the Earth revolving around the Sun? 30 km/sec •How fast is the Solar System moving around the Milky Way Galaxy? 250 km/sec •How fast is our Milky Way Galaxy moving in the Local Group of galaxies? 300 km/sec
The answer is incorrect. If you do the math, then the velocity would be 500m/sec.
.0005m/s equates to .0000005km/s.
Acceleration of the arrow is -3m/s2A = (velocity minus initial velocity) / time
Use the formula a = v2 / r, with v = velocity (speed, actually) in meters/second, r = radius in meters. The answer will be in meters per square second.
it is 10 meters per second straight down
Earth's velocity through space is 297,800 m/s
It's 60 divided by 5, Which is 12m/s east. Velocity is a vector for speed, since velocity has a direction and speed does not. Velocity has the SI units of meters per second. So you take the meters and divide by how many seconds to get your velocity.
The circumferential distance for the Earth's one degree rotation is approximately 111 kilometers (69 miles) at the equator. This value decreases as you move towards the poles due to the Earth's shape, which is an oblate spheroid.
The velocity of a rotating member can be calculated using the formula v = rω, where v is the linear velocity, r is the radius of rotation, and ω is the angular velocity in radians per second. Multiply the radius of rotation by the angular velocity to find the linear velocity of the rotating member.
No, the SI unit for radius is meters (m) and the SI unit for linear velocity is meters per second (m/s). Radius and linear velocity are related in rotational motion, where linear velocity is the tangential velocity at a certain radius from an axis of rotation.
There are two reasons, both related to the Earth's rotation. At the equator, the Earth and the objects on it are at their maximum rotational velocity (about 465 meters per second). This causes the surface of the Earth at the equator to bulge farther from the center of mass, by an average of about 3.5 kilometers.So the effect of gravity is higher at the North Pole than the equator because of:1) the rotational velocity acting to reduce the downward acceleration2) the greater average distance from the Earth's center at the equator, since gravity decreases with distance from the center of mass.The difference, however, is only 0.05%, or 1/200 of the weight.
The Earth rotates at a rate of slightly over 15 arc-seconds per second.The actual speed of rotation depends on latitude. It's greatest at the equator. At the equator, the Earth's rotation speed is about 465 meters per second.
Ther velocity when falling 1000 meters is v=sqroot(2x1000x9.8) = 140 meters/second.
Acceleration is the rate of change of velocity - how fast a velocity changes. Therefore, its units are naturally (meters/second) / second, usually written as meters/second2.Acceleration is the rate of change of velocity - how fast a velocity changes. Therefore, its units are naturally (meters/second) / second, usually written as meters/second2.Acceleration is the rate of change of velocity - how fast a velocity changes. Therefore, its units are naturally (meters/second) / second, usually written as meters/second2.Acceleration is the rate of change of velocity - how fast a velocity changes. Therefore, its units are naturally (meters/second) / second, usually written as meters/second2.
The length of the Earth's equator is approximately 40,075 kilometers, which is equivalent to 40,075,000 meters.
the velocity of light is 300000000 m/s
The SI unit for wave velocity is meters per second (m/s).
That is analogous to linear speed and velocity, but for rotation. Whereas a linear speed (or velocity) is expressed in meters per second (or some other units of distance / time), the angular speed or velocity is expressed in radians / second (or some other units of angle / time). Of course, when something rotates, there is also a linear speed, but different parts of an object rotate at different linear speeds, whereas the angular speed is the same for all parts of a rotating object - at least, in the case of a solid object. For example: the Earth rotates at an angular speed of 1 full rotation / day. The linear speed at the equator is approximately 1667 km/hour; close to the poles, the linear speed is much less.
The velocity parallel to Earth's surface can vary depending on the location and purpose. For a person walking or running on Earth's surface, the velocity can range from 0 m/s to a few meters per second. However, for objects in Earth's orbit, the velocity parallel to the surface can be much higher, reaching several kilometers per second.