A glider with mass m=0.200kg sits on a frictionless horizontal air track, connected to a spring...
A glider with mass m=0.200kg sits on a frictionless horizontal air track, connected to a spring of negligible mass with force constant k=5.00N/m. Suppose the glider is initially at rest at x=0, with the spring unstretched. Then you apply a constant force F⃗ with magnitude 0.583 N to the glider. What is the glider’s speed when it has moved to x=0.100m? If the 0.583 N force is removed when the glider reaches the 0.100 m point, at what distance from the starting point does the glider come to rest?
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A glider with mass m=0.200kg sits on a frictionless horizontal
air track, connected to a spring...
A glider with mass m = 0.5 kg sits on a frictionless air track. It is...
A glider with mass m = 0.5 kg sits on a frictionless air track. It is connected to a massless spring with force constant k = 40 N/m. The glider is initially at x=0, and the spring is relaxed. You then hit the glider with a hammer, which gives it an initial velocity of υ0 = 5 m/s in the positive x direction. At what x positions will the speed of the glider be zero?
Now let’s use the concept of elastic potential energy to solve a problem involving a spring....
Now let’s use the concept of elastic potential energy to solve a problem involving a spring. A glider with mass m=0.200kg sits on a frictionless horizontal air track, connected to a spring of negligible mass with force constant k=5.00N/m. You pull on the glider, stretching the spring 0.100 m, and then release it with no initial velocity. The glider begins to move back toward its equilibrium position (x=0). What is its speed when x=0.0800m? Part a: What is the value...
An air-track glider of mass 0.100 kg is attached to the end of a horizontal air track by a spring with force constant 20.0 N/m. Initially the spring is unstreched and the glider is moving at 1.50 m/s...
An air-track glider of mass 0.100 kg is attached to the end of a horizontal air track by a spring with force constant 20.0 N/m. Initially the spring is unstreched and the glider is moving at 1.50 m/s to the right. With the air track turned off, the coefficient of kinetic friction is μk=0.47. It can be shown that with the air track turned off, the glider travels 8.6 cm before it stops instantaneously. How large would the coefficient of...
An air-track glider of mass 0.100 kg is attached to the end of a horizontal air...
An air-track glider of mass 0.100 kg is attached to the end of a horizontal air track by a spring with force constant 20.0 N/m. Initially the spring is unstreched and the glider is moving at 1.50 m/s to the right. With the air track turned off, the coefficient of kinetic friction is μk=0.47. It can be shown that with the air track turned off, the glider travels 8.6 cm before it stops instantaneously. If the coefficient of static friction...
Page 205 Practice Problem 7.12: If the 0.610 N force is removed when the glider reaches...
Page 205 Practice Problem 7.12: If the 0.610 N force is removed when the glider reaches the O. is removed when the glider reaches the 0.10 m point, at what distance from the starting point does the glider come to rest? Answer: EXAMPLE 7.12 Work and energy on an air track DH Video Tutor Solution Now let's revisit Example 7.8, adding a nonconservative force to the system. Suppose the glider is initially at rest at x = 0, with the...
A 700 g air-track glider attached to a spring with spring constant 12 N/m is sitting...
A 700 g air-track glider attached to a spring with spring constant 12 N/m is sitting at rest on a frictionless air track. A 250 g glider is pushed toward it from the far end of the track at a speed of 170 cm/s . It collides with and sticks to the 700 g glider.
Problem 2 A 0.175-kg glider on a horizontal, frictionless air track is attached to a fixed...
Problem 2 A 0.175-kg glider on a horizontal, frictionless air track is attached to a fixed ideal spring with spring constant 155 N/m. When the glider is 3.00 cm from its equilibrium point, it is moving at 0.815 m/s. (a) Find the frequency of the oscillations. (b) Find the amplitude of the motion. (c) Find the maximum speed of the glider. Hint: For (b) and (c), use the energy conservation.
A 330 g air-track glider attached to a spring with spring constant 11 N/m is sitting...
A 330 g air-track glider attached to a spring with spring constant 11 N/m is sitting at rest on a frictionless air track. A 330 g glider is pushed toward it from the far end of the track at a speed of 120 cm/s . It collides with and sticks to the 330g glider. What is the amplitude of the subsequent oscillations? What is their period?
A 750 g air-track glider attached to a spring with spring constant 8.00 N/m is sitting...
A 750 g air-track glider attached to a spring with spring constant 8.00 N/m is sitting at rest on a frictionless air track. A 225 g glider is pushed toward it from the far end of the track at a speed of 154 cm/s . It collides with and sticks to the 750 g glider. What is the amplitude of the subsequent oscillations? What is their period?
An air-track glider of mass 0.109 kg is attached to the end of a horizontal air...
An air-track glider of mass 0.109 kg is attached to the end of a horizontal air track by a spring with force constant 24.5 N/m (a) With the air track turned off, the glider travels 8.0 cm before it stops instantaneously. How large would the coefficient of static friction μs have to be to keep the glider from springing back to the left? (b) If the coefficient of static friction between the glider and the track is μs= 0.65, what...
Page 205 Practice Problem 7.12: If the 0.610 N force is removed when the glider reaches the O. is removed when the glider reaches the 0.10 m point, at what distance from the starting point does the glider come to rest? Answer: EXAMPLE 7.12 Work and energy on an air track DH Video Tutor Solution Now let's revisit Example 7.8, adding a nonconservative force to the system. Suppose the glider is initially at rest at x = 0, with the...
Problem 2 A 0.175-kg glider on a horizontal, frictionless air track is attached to a fixed ideal spring with spring constant 155 N/m. When the glider is 3.00 cm from its equilibrium point, it is moving at 0.815 m/s. (a) Find the frequency of the oscillations. (b) Find the amplitude of the motion. (c) Find the maximum speed of the glider. Hint: For (b) and (c), use the energy conservation.
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