A block of mass m1 = 16 kg slides along a horizontal surface (with friction, μk = 0.21) a distance d = 2.25 m before striking a second block of mass m2 = 9.75 kg. The first block has an initial velocity of v = 7.25 m/s.A: Assuming that block one stops after it collides with block two, what is block two's velocity after impact in m/s? B: How far does block two travel, d2 in meters, before coming to rest after the collision? The image depicts a horizontal setup with two blocks on a surface. - Block \( m_1 \) is positioned at the origin (0) and is moving to the right with velocity \( V \). - Block \( m_2 \) is positioned at a distance \( d \) from the origin.- An arrow labeled \( V \) indicates the direction of motion for \( m_1 \).- The illustration includes a coordinate axis with the positive \( x \)-direction pointing to the right and the positive \( y \)-direction pointing upwards. This setup demonstrates concepts of motion and kinematics, often examined in physics to understand forces and interactions between objects in motion on a plane.

Given: Mass of block 1, m1=16 kg Mass of block 2, m2=9.75 kg Frictional coefficient, μk=0.21…

A block of mass m1 = 16 kg slides along a horizontal surface (with friction, μk = 0.21) a distance d = 2.25 m before striking a second block of mass m2 = 9.75 kg. The first block has an initial velocity of v = 7.25 m/s. A: Assuming that block one stops after it collides with block two, what is block two's velocity after impact in m/s? B: How far does block two travel, d2 in meters, before coming to rest after the collision?

A block of mass m1 = 16 kg slides along a horizontal surface (with friction, μk = 0.21) a distance d = 2.25 m before striking a second block of mass m2 = 9.75 kg. The first block has an initial velocity of v = 7.25 m/s. A: Assuming that block one stops after it collides with block two, what is block two's velocity after impact in m/s? B: How far does block two travel, d2 in meters, before coming to rest after the collision?

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