Exam 13: Periodic Motion
Exam 1: Units, Physical Quantities, and Vectors107 Questions
Exam 2: Motion Along a Straight Line59 Questions
Exam 3: Motion in Two or Three Dimensions50 Questions
Exam 4: Newtons Laws of Motion44 Questions
Exam 5: Applying Newtons Laws95 Questions
Exam 6: Work and Kinetic Energy54 Questions
Exam 7: Potential Energy and Energy Conservation55 Questions
Exam 8: Momentum, Impulse, and Collisions50 Questions
Exam 9: Rotation of Rigid Bodies26 Questions
Exam 10: Equilibrium and Elasticity50 Questions
Exam 11: Fluid Mechanics50 Questions
Exam 12: Gravitation50 Questions
Exam 13: Periodic Motion50 Questions
Exam 14: Mechanical Waves44 Questions
Exam 15: Sound and Hearing66 Questions
Exam 16: Temperature and Heat63 Questions
Exam 17: Thermal Properties of Matter58 Questions
Exam 18: The First Law of Thermodynamics52 Questions
Exam 19: The Second Law of Thermodynamics50 Questions
Exam 20: Electric Charge and Electric Field58 Questions
Exam 21: Gausss Law41 Questions
Exam 22: Electric Potential55 Questions
Exam 23: Capacitance and Dielectrics52 Questions
Exam 24: Current, Resistance, and Electromotive Force50 Questions
Exam 25: Direct-Current Circuits53 Questions
Exam 26: Magnetic Field and Magnetic Forces36 Questions
Exam 27: Sources of Magnetic Field51 Questions
Exam 28: Electromagnetic Induction39 Questions
Exam 29: Inductance26 Questions
Exam 30: Alternating Current49 Questions
Exam 31: Electromagnetic Waves47 Questions
Exam 32: The Nature and Propagation of Light28 Questions
Exam 33: Geometric Optics81 Questions
Exam 34: Interference33 Questions
Exam 35: Diffraction49 Questions
Exam 36: Relativity51 Questions
Exam 37: Photons: Light Waves Behaving As Particles38 Questions
Exam 38: Particles Behaving As Waves52 Questions
Exam 39: Quantum Mechanics40 Questions
Exam 40: Atomic Structure41 Questions
Exam 41: Molecules and Condensed Matter31 Questions
Exam 42: Nuclear Physics89 Questions
Exam 43: Particle Physics and Cosmology44 Questions
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In designing buildings to be erected in an area prone to earthquakes, what relationship should the designer try to achieve between the natural frequency of the building and the typical earthquake frequencies?
(Multiple Choice)
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A 0.025-kg block on a horizontal frictionless surface is attached to an ideal massless spring whose spring constant is 150 N/m. The block is pulled from its equilibrium position at x = 0.00 m to a displacement x = +0.080 m and is released from rest. The block then executes simple harmonic motion along the horizontal x-axis. When the displacement is x = 0.024 m, what is the kinetic energy of the block?
(Multiple Choice)
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A 2.15 kg lightly damped harmonic oscillator has an angular oscillation frequency of 0.261 rad/s. If the maximum displacement of 2.0 m occurs when t = 0.00 s, and the damping constant b is 0.74 kg/s what is the object's displacement when t = 4.01 s?
(Multiple Choice)
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The amplitude of a lightly damped harmonic oscillator decreases from 60.0 cm to 40.0 cm in 10.0 s. What will be the amplitude of the harmonic oscillator after another 10.0 s passes?
(Multiple Choice)
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An object weighing 44.1 N hangs from a vertical massless ideal spring. When set in vertical motion, the object obeys the equation y(t) = (6.20 cm) cos[(2.74 rad/s)t - 1.40].
(a) Find the time for this object to vibrate one complete cycle.
(b) What are the maximum speed and maximum acceleration of the object?
(c) What is the TOTAL distance the object moves through in one cycle?
(d) Find the maximum kinetic energy of the object.
(e) What is the spring constant of the spring?
(Short Answer)
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A uniform meter stick is freely pivoted about the 0.20-m mark. If it is allowed to swing in a vertical plane with a small amplitude and friction, what is the frequency of its oscillations?
(Multiple Choice)
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A 0.50-kg object is attached to an ideal massless spring of spring constant 20 N/m along a horizontal, frictionless surface. The object oscillates in simple harmonic motion and has a speed of 1.5 m/s at the equilibrium position.
(a) What is the amplitude of vibration?
(b) At what location are the kinetic energy and the potential energy of the system the same?
(Short Answer)
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An ideal massless spring with a spring constant of 2.00 N/m is attached to an object of 75.0 g. The system has a small amount of damping. If the amplitude of the oscillations decreases from 10.0 mm to 5.00 mm in 15.0 s, what is the magnitude of the damping constant b?
(Multiple Choice)
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An object of mass of 2.0 kg hangs from an ideal massless spring with a spring constant of 50 N/m. An oscillating force F = (4.8 N) cos[(3.0 rad/s)t] is applied to the object. What is the amplitude of the resulting oscillations? You can neglect damping.
(Multiple Choice)
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An object of mass 8.0 kg is attached to an ideal massless spring and allowed to hang in the Earth's gravitational field. The spring stretches 3.6 cm before it reaches its equilibrium position. If this system is allowed to oscillate, what will be its frequency?
(Multiple Choice)
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If we double only the amplitude of a vibrating ideal mass-and-spring system, the mechanical energy of the system
(Multiple Choice)
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A sewing machine needle moves up and down in simple harmonic motion with an amplitude of 1.27 cm and a frequency of 2.55 Hz.
(a) What is the maximum speed of the needle?
(b) What is the maximum acceleration of the needle?
(Short Answer)
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A simple harmonic oscillator has an amplitude of 3.50 cm and a maximum speed of 26.0 cm/s. What is its speed when the displacement is 1.75 cm?
(Multiple Choice)
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An object of mass 6.8 kg is attached to an ideal massless spring of spring constant 1690 N/m. The object is Calculate the maximum speed the object reaches during its motion.
(Short Answer)
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An object that weighs 2.450 N is attached to an ideal massless spring and undergoes simple harmonic oscillations with a period of 0.640 s. What is the spring constant of the spring?
(Multiple Choice)
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A frictionless pendulum released from 65 degrees with the vertical will vibrate with the same frequency as if it were released from 5 degrees with the vertical because the period is independent of the amplitude and mass.
(True/False)
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A 2.0 kg block on a frictionless table is connected to two ideal massless springs with spring constants k1 and k2 whose opposite ends are fixed to walls, as shown in the figure. What is angular frequency of the oscillation if k1 = 7.6 N/m and k2 = 5.0 N/m? 
(Multiple Choice)
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An object is attached to a vertical ideal massless spring and bobs up and down between the two extreme points A and B. When the kinetic energy of the object is a minimum, the object is located
(Multiple Choice)
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A large stick is pivoted about one end and allowed to swing back and forth with no friction as a physical pendulum. The mass of the stick is 5.40 kg and its center of gravity (found by finding its balance point) is 1.80 m from the pivot. If the period of the swinging stick is 6.90 seconds, what is the moment of inertia of the stick about an axis through the pivot?
(Short Answer)
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A 1.6-kg block on a horizontal frictionless surface is attached to an ideal massless spring whose spring constant is 190 N/m. The block is pulled from its equilibrium position at x = 0.00 m to a displacement x = +0.080 m and is released from rest. The block then executes simple harmonic motion along the horizontal x-axis. What is the velocity of the block at time t = 0.40 s?
(Multiple Choice)
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