The total initial energy = the asteroid kienetic energy = 1/2 m v2 -----------> (1)
The total energy after disintegration = (first mass energy=0) + 1/2 (1/3 m) v2 + K.E. of the third piece + disintegration energy ------------> (2)
K.E. of the third piece = 1/2 (1/3 m)v'2
From conservation of energy, the two equations (1) and (2) are equal, then
1/2 m v2 =1/2 (1/3 m) v2 + 1/2 (1/3 m)v'2+ disintegration energy
Then, the disintegration energy = 1/2 m [v2 -1/3v2-1/3v'2] --------> (3)
* still need to find v'
using the conservation of momentum
mv= 0+1/3mv+1/3mv'
then v'= 3v- v= 2v
substitute in equation (3)
Then, the disintegration energy = 1/2 m [v2 -1/3v2-1/3 (2v)2 ] ?
When traveling at a constant velocity, the acceleration is zero. This is because acceleration measures the rate of change of velocity, and if velocity is not changing, there is no acceleration.
No, if an object is traveling at a constant velocity, it means that its speed and direction are not changing. Acceleration is the rate at which velocity changes over time, so an object with constant velocity by definition cannot have acceleration.
No, there is no acceleration when an object is traveling at a constant velocity. Acceleration is the rate of change of velocity, so if the velocity is constant, there is no change and therefore no acceleration.
If the ball is traveling at a constant velocity of 50 m/s, then its acceleration is 0 m/s^2. Acceleration is the rate of change of velocity, so if the velocity is constant, there is no change in velocity, and therefore no acceleration.
The velocity of an object traveling at 42,448,409 m/s is 42.45 km/s.
Each asteroid has its own escape velocity.
Speed and velocity have both changed.
Both the speed and velocity have increased as a result of acceleration.
The escape velocity from an asteroid can be calculated using the formula: escape velocity = sqrt(2 * gravitational constant * mass of asteroid / radius of asteroid). Substituting the given values, the escape velocity from the asteroid would be approximately 200 m/s.
When traveling at a constant velocity, the acceleration is zero. This is because acceleration measures the rate of change of velocity, and if velocity is not changing, there is no acceleration.
Are you asking if there is a minimum velocity to escape the gravitational pull of an asteroid? The answer is yes. The second part is more difficult as it is variable, based upon the mass, size, and shape of the asteroid and where you start from. Assuming that the asteroid has no atmosphere, the necessary velocity would be roughly the square root of... double the universal gravitational constant, times the mass of the asteroid..., divided by the distance from the center of gravity.
No, if an object is traveling at a constant velocity, it means that its speed and direction are not changing. Acceleration is the rate at which velocity changes over time, so an object with constant velocity by definition cannot have acceleration.
No, there is no acceleration when an object is traveling at a constant velocity. Acceleration is the rate of change of velocity, so if the velocity is constant, there is no change and therefore no acceleration.
If the ball is traveling at a constant velocity of 50 m/s, then its acceleration is 0 m/s^2. Acceleration is the rate of change of velocity, so if the velocity is constant, there is no change in velocity, and therefore no acceleration.
Depends on the nature of the explosion, the height of the explosion.
Velocity is a constant traveling speed. Acceleration is increasing traveling speed (variation of speed over time)
The velocity of an object traveling at 42,448,409 m/s is 42.45 km/s.