Ch.6 Momentum
... • momentum is conserved in collisions when all other forces are small compared to the collision forces • momentum is a vector and can be conserved in one, two, or three dimensions. • bouncing causes greater force than a stop ...
... • momentum is conserved in collisions when all other forces are small compared to the collision forces • momentum is a vector and can be conserved in one, two, or three dimensions. • bouncing causes greater force than a stop ...
1 EXPERIMENT 5 CONSERVATION OF LINEAR MOMENTUM
... Linear momentum is a vector quantity because it equals the product of a scalar quantity m and a vector quantity v. Its direction is along v, it has dimensions ML/T, and its SI unit is kg · m/s. Using Newton’s second law of motion, we can relate the linear momentum of a particle to the resultant forc ...
... Linear momentum is a vector quantity because it equals the product of a scalar quantity m and a vector quantity v. Its direction is along v, it has dimensions ML/T, and its SI unit is kg · m/s. Using Newton’s second law of motion, we can relate the linear momentum of a particle to the resultant forc ...
Principle of Impulse and momentum
... 2. To study the conservation of linear momentum for a particle 3. To analyze the mechanics of impact ...
... 2. To study the conservation of linear momentum for a particle 3. To analyze the mechanics of impact ...
Ch 9 - Momentum and Collisions (No 2D)
... A 5.00-kg ball, moving to the right at a velocity of +2.00 m/s on a frictionless table, collides head-on with a stationary 7.50kg ball. Find the final velocities of the balls if the collision is elastic. ...
... A 5.00-kg ball, moving to the right at a velocity of +2.00 m/s on a frictionless table, collides head-on with a stationary 7.50kg ball. Find the final velocities of the balls if the collision is elastic. ...
KEY - Hollocker
... changing, its velocity is, since the velocity vector is changing direction. The point has a centripetal acceleration, which is directed radially inward. (b) If the disk’s angular velocity increases uniformly, the point on the rim will have both radial and tangential acceleration, since it is both mo ...
... changing, its velocity is, since the velocity vector is changing direction. The point has a centripetal acceleration, which is directed radially inward. (b) If the disk’s angular velocity increases uniformly, the point on the rim will have both radial and tangential acceleration, since it is both mo ...
Chapt9Class1
... compresses the spring 18 cm. If the spring is released from this position, how far beyond its equilibrium position will it stretch on its first cycle? ...
... compresses the spring 18 cm. If the spring is released from this position, how far beyond its equilibrium position will it stretch on its first cycle? ...
Conservation of Momentum
... light is struck from the rear by a compact car with a mass of 975 kg. The two cars become entangled as a result of the collision. If the compact car was moving at a velocity of 22.0 m/s to the north before the collision, what is the velocity of the entangled mass after the collision? ...
... light is struck from the rear by a compact car with a mass of 975 kg. The two cars become entangled as a result of the collision. If the compact car was moving at a velocity of 22.0 m/s to the north before the collision, what is the velocity of the entangled mass after the collision? ...
Rigid Body Rotation
... Example (b) Find angular velocity w of a disk given its total kinetic energy E. Total energy: E = ½mv2 + ½Iw2 E 12 mv 2 12 I w 2 ; I 12 mR 2 ; v w R ...
... Example (b) Find angular velocity w of a disk given its total kinetic energy E. Total energy: E = ½mv2 + ½Iw2 E 12 mv 2 12 I w 2 ; I 12 mR 2 ; v w R ...
Chap06_lecture
... Newton’s laws: Relations between motions of bodies and the forces acting on them. Newton’s first law: A body at rest remains at rest, and a body in motion remains in motion at the same velocity in a straight path when the net force acting on it is zero. Therefore, a body tends to preserve its state ...
... Newton’s laws: Relations between motions of bodies and the forces acting on them. Newton’s first law: A body at rest remains at rest, and a body in motion remains in motion at the same velocity in a straight path when the net force acting on it is zero. Therefore, a body tends to preserve its state ...
Chapter 7 Notes - Valdosta State University
... If Jtot = 0, then we say that we are working with an isolated system. We only must consider interactions between particles within the system. The equation becomes: ...
... If Jtot = 0, then we say that we are working with an isolated system. We only must consider interactions between particles within the system. The equation becomes: ...
