A low-friction cart of mass m rests on a horizontal table. The cart is attached to a relaxed light spring constant k. At distance d from the first cart rests a second identical cart. Both cars are covered with Velcro so they stick together if they collide or touch. The first cart is pushed to the left with initial speed v0. b) determine the amplitude of a vibrating system. Consider the case when the right cart does not reach the left cart.
b) Determine the amplitude of a vibrating system
When the right cart does not reach the left cart, it is a single
mass spring system
The angular frequency of such system is, w = sqrt(k/m)
frequency, f = w/2pi
f = (1/2pi)*sqrt(k/m) = (1/2pi) √(k/m)
Initial energy of the spring mass system = 1/2 mv0^2
Final energy = 1/2kA^2 (kinetic energy becomes zero and only
potential energy stored in the spring remains)
Amplitude = A
1/2 mv0^2 = 1/2kA^2
A = vo √(m/k)
A low-friction cart of mass m rests on a horizontal table. The cart is attached to...
10.71 A low-friction cart of mass m rests on a horizontal table. The cart is attached to a relaxed light spring constant k. At distance d from the first cart rests a second identical cart. Both cars are covered with Velcro so they stick together if they collide or touch. The first cart is pushed to the left with initial speed v0. a) Determine the final frequency of a vibrating system. Consider the case when the right care does not...
A cart of mass m rolls without friction on a level
surface, and is attached to a light spring of constant k,
the other end of which is attached to a wall. Take the initial
position of the cart, where the spring is neither extended nor
compressed, to be the origin x = 0 of a coordinate system
where positive x values are to the right and positive
vectors point to the right. The cart is pushed to the left...
A cart of mass m rolls without friction on a level
surface, and is attached to a light spring of constant k,
the other end of which is attached to a wall. Take the initial
position of the cart, where the spring is neither extended nor
compressed, to be the origin x = 0 of a coordinate system
where positive x values are to the right and positive
vectors point to the right. The cart is pushed to the left...
A block with mass M = 6.0 kg rests on a frictionless table and is attached by a horizontal spring (k = 130 N/m) to a all. A second block, of mass m = 1.25 kg, rests on top of M. The coefficient of static friction between the two blocks is 0.30. What is the maximum possible amplitude of oscillation such that m will not slip off M?
3. A horizontal spring of spring constant 100 N/m is attached to a wall, and a block (A) of mass 5 kg. The block rests on a frictionless table. It oscillates with an amplitude of 10 cm. On top of the block rests a second block (B), held in place only by friction. (A) If block B slips, where is it most likely to do so: near the center of the spring's travel, or near the extremes? Why? (B) How...
Incline, Spring, and Friction: A block of mass 500 g is attached to a spring of spring constant 80 N m−1. The other end of the spring is attached to a support while the mass rests on a rough surface with a coefficient of friction of 0.20 that is inclined at angle of 30◦ . The block is pushed along the surface till the spring compresses by 10 cm and is then released from rest. (a) Compute how much potential...
A block with mass M rests on a
frictionless surface and is connected to a horizontal spring of
force constant k. The other end of the spring is attached to a wall
(Fig. P14.68). A second block with mass m rests on top of the first
block. The coefficient of static friction between the blocks is ms.
Find the maximum amplitude of oscillation such that the top block
will not slip on the bottom block.
Suppose the two blocks are...
A block with mass M rests on a frictionless surface and is connected to a horizontal spring of force constant k. The other end of the spring is attached to a wall. A second block with mass m rests on top of the first block. The coefficient of static friction between the a blocks is μs. a) Find the maximum amplitude of oscillation such that the top block will not slip on the bottom block. b) Suppose the coefficient of...
A block of mass 300 g rests on a smooth horizontal table and can slide freely without any friction. The block is attached to a spring of spring constant 100 N/m, whose other end is fixed to a wall. The block is pushed horizontally till the spring compresses by 12 cm, and then the block is released from rest. (a) Determine the speed of the block as it crosses the equilibrium point of the spring (i.e, where the spring is...
6. Consider a horizontal spring with spring constant k. A block with mass m is pushed far to the left against the spring until the spring is compressed a distance r relative to its relaxed length. A second block, which is stationary and also has a mass m, is located to the right of the spring im rrm a) We release the first block from rest. Due to the force from the spring, it slides to the right and eventually...