 15.1: An object undergoing simple harmonic motion takes 0.25 s to travel ...
 15.2: A 0.12 kg body undergoes simple harmonic motion of amplitude 8.5 cm...
 15.3: What is the maximum acceleration of a platform that oscillates at a...
 15.4: An automobile can be considered to be mounted on four identical spr...
 15.5: In an electric shaver, the blade moves back and forth over a distan...
 15.6: A particle with a mass of 1.00 kg is oscillating with simple harmon...
 15.7: A loudspeaker produces a musical sound by means of the oscillation ...
 15.8: What is the phase constant for the harmonic oscillator with the pos...
 15.9: The position function x $ (6.0 m) cos[(3p rad/s)t % p/3 rad] gives ...
 15.10: An oscillating blockspring system takes 0.75 s to begin repeating i...
 15.11: In Fig. 1531, two identical springs of spring constant 7580 N/m ar...
 15.12: What is the phase constant for the harmonic oscillator with the vel...
 15.13: An oscillator consists of a block of mass 0.500 kg connected to a s...
 15.14: A simple harmonic oscillator consists of a block of mass 2.00 kg at...
 15.15: Two particles oscillate in simple harmonic motion along a common st...
 15.16: Two particles execute simple harmonic motion of the same amplitude ...
 15.17: An oscillator consists of a block attached to a spring (k $ 400 N/m...
 15.18: At a certain harbor, the tides cause the ocean surface to rise and ...
 15.19: A block rides on a piston (a squat cylindrical piece) that is movin...
 15.20: Figure 1533a is a partial graph of the position function x(t) for ...
 15.21: In Fig. 1531, two springs are attached to a block that can oscilla...
 15.22: Figure 1534 shows block 1 of mass 0.200 kg sliding to the right ov...
 15.23: A block is on a horizontal surface (a shake table) that is moving b...
 15.24: In Fig. 1535, two springs are joined and connected to a block of m...
 15.25: In Fig. 1536, a block weighing 14.0 N, which can slide without fri...
 15.26: In Fig. 1537, two blocks (m $ 1.8 kg and M $ 10 kg) and a spring (...
 15.27: When the displacement in SHM is onehalf the amplitude xm, what fra...
 15.28: Figure 1538 gives the onedimensional potential energy well for a 2...
 15.29: Find the mechanical energy of a blockspring system with a spring co...
 15.30: An oscillating blockspring system has a mechanical energy of 1.00 J...
 15.31: A 5.00 kg object on a horizontal frictionless surface is attached t...
 15.32: Figure 1539 shows the kinetic energy K of a simple harmonic oscill...
 15.33: A block of mass M $ 5.4 kg, at rest on a horizontal frictionless ta...
 15.34: In Fig. 1541, block 2 of mass 2.0 kg oscillates on the end of a sp...
 15.35: A 10 g particle undergoes SHM with an amplitude of 2.0 mm, a maximu...
 15.36: If the phase angle for a blockspring system in SHM is p/6 rad and t...
 15.37: A massless spring hangs from the ceiling with a small object attach...
 15.38: A 95 kg solid sphere with a 15 cm radius is suspended by a vertical...
 15.39: The balance wheel of an oldfashioned watch oscillates with angular...
 15.40: A physical pendulum consists of a meter stick that is pivoted at a ...
 15.41: In Fig. 1542, the pendulum consists of a uniform disk with radius ...
 15.42: Suppose that a simple pendulum consists of a small 60.0 g bob at th...
 15.43: (a) If the physical pendulum of Fig. 1513 and the associated sampl...
 15.44: A physical pendulum consists of two meterlong sticks joined togeth...
 15.45: A performer seated on a trapeze is swinging back and forth with a p...
 15.46: A physical pendulum has a center of oscillation at distance 2L/3 fr...
 15.47: In Fig. 1544, a physical pendulum consists of a uniform solid disk...
 15.48: A rectangular block, with face 1 2 k Figure 1541 34. L r Figure 15...
 15.49: The angle of the pendulum of Fig. 1511b is given by u $ um cos[(4....
 15.50: A thin uniform rod (mass $ 0.50 kg) swings about an axis that passe...
 15.51: In Fig. 1546, a stick of length L $ 1.85 m oscillates as a physica...
 15.52: The 3.00 kg cube in Fig. 1547 has edge lengths d $ 6.00 cm and is ...
 15.53: In the overhead view of Fig. 15 48, a long uniform rod of mass 0.6...
 15.54: In Fig. 1549a, a metal plate is mounted on an axle through its cen...
 15.55: A pendulum is formed by pivoting a long thin rod about a point on t...
 15.56: In Fig. 1550, a 2.50 kg disk of diameter D $ 42.0 cm is supported ...
 15.57: The amplitude of a lightly damped oscillator decreases by 3.0% duri...
 15.58: For the damped oscillator system shown in Fig. 1516, with m $ 250 ...
 15.59: For the damped oscillator system shown in Fig. 1516, the block has...
 15.60: The suspension system of a 2000 kg automobile sags 10 cm when the c...
 15.61: For Eq. 1545, suppose the amplitude xm is given by where Fm is the...
 15.62: Hanging from a horizontal beam are nine simple pendulums of the fol...
 15.63: A 1000 kg car carrying four 82 kg people travels over a washboard d...
 15.64: Although California is known for earthquakes, it has large regions ...
 15.65: A loudspeaker diaphragm is oscillating in simple harmonic motion wi...
 15.66: A uniform spring with k $ 8600 N/m is cut into pieces 1 and 2 of un...
 15.67: In Fig. 1551, three 10 000 kg ore cars are held at rest on a mine ...
 15.68: A 2.00 kg block hangs from a spring.A 300 g body hung below the blo...
 15.69: In the engine of a locomotive, a cylindrical piece known as a pisto...
 15.70: A wheel is free to rotate about its fixed axle. A spring is attache...
 15.71: A 50.0 g stone is attached to the bottom of a vertical spring and s...
 15.72: A uniform circular disk whose radius R is 12.6 cm is suspended as a...
 15.73: A vertical spring stretches 9.6 cm when a 1.3 kg block SSM is hung ...
 15.74: A massless spring with spring constant 19 N/m hangs vertically. A b...
 15.75: A 4.00 kg block is suspended from a spring with k $ 500 N/m.A 50.0 ...
 15.76: A 55.0 g block oscillates in SHM on the end of a spring with k $ 15...
 15.77: Figure 1553 gives the position of a 20 g block oscillating in SHM ...
 15.78: Figure 1553 gives the position x(t) of a block oscillating in SHM ...
 15.79: Figure 1554 shows the kinetic energy K of a simple pendulum versus...
 15.80: A block is in SHM on the end of a spring, with position given by x ...
 15.81: A simple harmonic oscillator consists of a 0.50 kg block attached t...
 15.82: A simple pendulum of length 20 cm and mass 5.0 g is suspended in a ...
 15.83: The scale of a spring balance that reads from 0 to 15.0 kg is 12.0 ...
 15.84: A 0.10 kg block oscillates back and forth along a straight line on ...
 15.85: The end point of a spring oscillates with a period of 2.0 s when a ...
 15.86: The tip of one prong of a tuning fork undergoes SHM of frequency 10...
 15.87: A flat uniform circular disk has a mass of 3.00 kg and a radius of ...
 15.88: A block weighing 20 N oscillates at one end of a vertical spring fo...
 15.89: A 3.0 kg particle is in simple harmonic motion in one dimension and...
 15.90: A particle executes linear SHM with frequency 0.25 Hz about the poi...
 15.91: What is the frequency of a simple pendulum 2.0 m long (a) in a room...
 15.92: A grandfather clock has a pendulum that consists of a thin brass di...
 15.93: A 4.00 kg block hangs from a spring, extending it 16.0 cm from its ...
 15.94: What is the phase constant for SMH with a(t) given in Fig. 1557 if...
 15.95: An engineer has an oddshaped 10 kg object and needs to find its ro...
 15.96: A spider can tell when its web has captured, say, a fly because the...
 15.97: A torsion pendulum consists of a metal disk with a wire running thr...
 15.98: When a 20 N can is hung from the bottom of a vertical spring, it ca...
 15.99: For a simple pendulum, find the angular amplitude um at which the r...
 15.100: In Fig. 1559, a solid cylinder attached to a horizontal spring (k ...
 15.101: A 1.2 kg block sliding on a horizontal frictionless surface is atta...
 15.102: A simple harmonic oscillator consists of an 0.80 kg block attached ...
 15.103: A block sliding on a horizontal frictionless surface is attached to...
 15.104: A damped harmonic oscillator consists of a block (m $ 2.00 kg), a s...
 15.105: A block weighing 10.0 N is attached to the lower end of a vertical ...
 15.106: A simple harmonic oscillator consists of a block attached to a spri...
 15.107: The vibration frequencies of atoms in solids at normal temperatures...
 15.108: Figure 1561 shows that if we hang a block on the end of a spring w...
 15.109: The physical pendulum in Fig. 1562 has two possible pivot points A...
 15.110: A common device for entertaining a toddler is a jump seat that hang...
 15.111: A 2.0 kg block executes SHM while attached to a horizontal spring o...
 15.112: In Fig. 1564, a 2500 kg demolition ball swings from the end of a c...
 15.113: The center of oscillation of a physical pendulum has this interesti...
 15.114: A (hypothetical) large slingshot is stretched 2.30 m to launch a 17...
 15.115: A 2.0 kg block is attached to the end of a spring with a spring con...
Solutions for Chapter 15: Fundamentals of Physics 10th Edition
Full solutions for Fundamentals of Physics  10th Edition
ISBN: 9781118230718
Solutions for Chapter 15
Get Full SolutionsSince 115 problems in chapter 15 have been answered, more than 57278 students have viewed full stepbystep solutions from this chapter. Fundamentals of Physics was written by Sieva Kozinsky and is associated to the ISBN: 9781118230718. This expansive textbook survival guide covers the following chapters and their solutions. This textbook survival guide was created for the textbook: Fundamentals of Physics, edition: 10. Chapter 15 includes 115 full stepbystep solutions.

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°C
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°F
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