Assertion: momentum | /r/HasProperty | equal
Facets:
value: opposite in direction
type: OTHER
value: in size
type: OTHER
value: exactly
type: DEGREE
value: to the mass of an object
type: OTHER
value: to the change in momentum
type: OTHER
value: times
type: TEMPORAL
value: to mass times velocity
type: OTHER
value: always
type: DEGREE
value: to the momentum change
type: OTHER
value: in terms of an equation
type: OTHER
value: to the final minus
type: OTHER
value: to the momentum of the projectile
type: OTHER
value: in other words
type: DEGREE
value: in a collision
type: TEMPORAL
value: on the second
type: TEMPORAL
value: to m v
type: TRANSITIVE-OBJECT
value: in terms of formula
type: OTHER
value: in those phenomena
type: OTHER
value: as in classical mechanics
type: OTHER
value: to p = m
type: OTHER
value: in this situation
type: OTHER
value: after the push
type: TEMPORAL
Source sentences:
text: In terms of an equation, the momentum of an object is equal to the mass of the object times the velocity of the object.
text: In a collision, objects experience an impulse; the impulse causes and is equal to the change in momentum.
text: The momentum of any collection of particles is equal to the vector sum of the individual momenta.
text: Momentum is equal to the mass of an object multiplied by its velocity and is equivalent to the force required to bring the object to a stop in a unit length of time.
text: The momentum of the bullet and the momentum of the gun are exactly equal in size but opposite in direction.
text: The momentum of the bullet and the momentum of the gun are exactly equal in size but opposite in direction.
text: In those phenomena when the particle properties of particles are manifested, their momentum, as in classical mechanics, is equal to p = m v {\displaystyle p=mv} , and when the wave properties of particles are manifested, their momentum is
text: The momentum of the bullet and the momentum of the gun are exactly equal in size but opposite in direction.
text: The momentum of the bullet and the momentum of the gun are exactly equal in size but opposite in direction.
text: The momentum of the bullet and the momentum of the gun are exactly equal in size but opposite in direction.
text: The momentum of the bullet and the momentum of the gun are exactly equal in size but opposite in direction.
text: In terms of formula, momentum is equal to the product of mass and velocity, and the greater the value of that product, the greater the momentum.
text: Kinetic energy and momentum both involve components of velocity and mass: p (momentum) is equal to m v , and KE (kinetic energy) equals ½ m v 2.
text: Momentum—actually linear momentum, as opposed to the angular momentum of an object in rotational motion—is equal to mass multiplied by velocity.
text: Its momentum is equal to that of the truck in the previous question.
text: Basic definition: Momentum is equal to mass times velocity.
text: Momentum is equal to the mass times the velocity of an object ( ).
text: Line six shows that the velocity that after the push apart the first object ends up with a momentum that is equal and opposite to that of the second object.
text: Notice again that in this situation after the push apart the momentum of the first object is equal and opposite to that of the second.
text: In terms of an equation, the momentum of an object is equal to the mass of the object times the velocity of the object.
text: In other words, immediately after firing, the momentum of the firearm is equal and opposite to the momentum of the projectile.
text: Momentum, or p, is equal to the mass of an object multiplied by its velocity
text: In a collision, the impulse experienced by an object is always equal to the momentum change.
text: First, observe that the answers in the table above reveal that the third and fourth columns are always equal; that is, the impulse is always equal to the momentum change.
text: So, the last line above which states that the change in momentum is equal to the final minus the original momentum could be understood to state that the impulse on an object is equal to the final minus the original momentum.
text: The impulse is defined here for a single object, during a 2 body collision the impulse on the first object will be equal and opposite to that on the second.
text: The impulse experienced by the object is equal to the change in momentum of the object.
text: Therefore, in a collision, objects experience an impulse; the impulse causes (and is equal to) the change in momentum.
text: The impulse-momentum theorem states that the impulse is equal to this change in momentum.
text: This means that the impulse (force times time) that A exerts on B is equal and opposite to the impulse that B exerts on A.
text: Finally, since the impulses are equal and opposite, B's change in momentum is equal and opposite to A's change in momentum:
text: Impulse is equal to the change in the momentum of the object t…
text: Impulse is equal to the CHANGE in momentum, not momentum itself.
text: Because the forces are always equal and opposite, the impulses are equal and opposite.
text: An important relationship between impulse and momentum derived from Newton's second law, which shows that the impulse of force is equal to the change in momentum that it produces.