WorksheetsAP Physics C - Oscillations - Chapter 11 Drill - Princeton
Total questions: 10
Worksheet time: 28mins
Which of the following is/ are characteristics of simple harmonic motion?
I. The acceleration is constant .
II. The restoring force is proportional to the displacement.
III. The frequency is independent of the amplitude.
II only
I and II only
I and III only
II and III only
I, II, and III
What combination of values will result in a spring - block system with the greatest frequency?
A = 50 cm; k = 80 N/m; m = 2 kg
A = 50 cm; k = 100 N/m; m = 2 kg
A = 50 cm; k = 100 N/m; m = 4 kg
A = 75 cm; k = 80 N/m; m = 2kg
A = 75 cm; k = 100 N/m; m = 4 kg
A block attached to an ideal spring undergoes simple harmonic motion about its equilibrium position (x = 0) with amplitude A. What fraction of the total energy is in the form of kinetic energy when the block is at position
(x =1/2 A)?
1/3
3/8
1/2
2/3
3/4
A student measures the maximum speed of a block undergoing simple harmonic oscillations of amplitude A on the end of an ideal spring. If the block is replaced by one with twice the mass but the amplitude of its oscillations remains the same, then the maximum speed of the block will
decrease by a factor of 4
decrease by a factor of 2
decrease by a factor of √2
remain the same
increase by a factor of 2
A spring with a natural length 40 cm and a spring constant of 400 N/m is hung vertically with a 10 kg mass attached to the end. Assuming the spring's mass is negligible, what will be the final length of the spring when it reaches equilibrium?
25 cm
35 cm
40 cm
50 cm
65 cm
A linear spring of force constant k is used in physics lab experiment. A block of mass m is attached to the spring and the resulting frequency, f, of the simple harmonic oscillation is measured. Blocks of various masses are used in different trials, and in each case, the corresponding frequency is measured and recorded. If f2 is plotted versus 1/m, the graph will be a straight line with slope
4π2/k2
4π2/k
(4π)(2k)
k/4π2
k2/4π2
A block of mass m = 4 kg on a frictionless, horizontal table is attached to one end of a spring of force constant k = 400 N/m and undergoes simple harmonic oscillations about its equilibrium position (x = 0) with amplitude A = 6 cm. If the block is at x = 6 cm at time t = 0, then which of the following equations (with x in centimeters and t in seconds) gives the block's position as a function of time?
x = 6 sin(10t + 0.5π)
x = 6 sin(10πt + 0.5π)
x = 6 sin(10πt - 0.5π)
x = 6 sin(10t)
x = 6 sin(10t - 0.5π)
A block attached to an ideal spring undergoes simple harmonic motion about its equilibrium position with amplitude A and angular frequency ω. What is the maximum magnitude of the block's velocity?
Aω
A2ω
Aω2
A/ω
A/ω2
A simple pendulum swings about the vertical equilibrium position with a maximum angular displacement of 5o and period T. If the same pendulum is given a maximum angular displacement of 10o, then which of the following best gives the period of the oscillations?
T/2
T/√2
T
T√2
2T
Which of the following best describes the relationship between the tension force, FT, in the string of a pendulum and the component of gravity that pulls antiparallel to the tension, FG? Assume that the pendulum is only displaced by a small amount.
FT > FG
FT ≥ FG
FT = FG
FT ≤ FG
FT < FG
