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Solutions Manual for Engineering Vibration 4th by Inman 0132871696

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Product Details:

  • ISBN-10 ‏ : ‎ 0132871696
  • ISBN-13 ‏ : ‎ 978-0132871693
  • Author:   Daniel Inman

Intended for use in one/two-semester introductory courses in vibration for undergraduates in Mechanical Engineering, Civil Engineering, Aerospace Engineering and Mechanics. This text is also suitable for readers with an interest in Mechanical Engineering, Civil Engineering, Aerospace Engineering and Mechanics.

Serving as both a text and reference manual, Engineering Vibration, 4e, connects traditional design-oriented topics, the introduction of modal analysis, and the use of MATLAB, Mathcad, or Mathematica. The author provides an unequaled combination of the study of conventional vibration with the use of vibration design, computation, analysis and testing in various engineering applications.

 

Table of Content:

  1. 1 Introduction to Vibration and the Free Response
  2. 1.1 Introduction to Free Vibration
  3. Example 1.1.1
  4. Solution
  5. 1.1.1 The Spring–Mass Model
  6. Example 1.1.2
  7. Solution
  8. Example 1.1.3
  9. Solution
  10. Example 1.1.4
  11. Solution
  12. 1.2 Harmonic Motion
  13. Example 1.2.1
  14. Solution
  15. Example 1.2.2
  16. Solution
  17. Example 1.2.3
  18. Solution
  19. 1.3 Viscous Damping
  20. 1.3.1 Underdamped Motion
  21. 1.3.2 Overdamped Motion
  22. 1.3.3 Critically Damped Motion
  23. Example 1.3.1
  24. Solution
  25. Example 1.3.2
  26. Solution
  27. Example 1.3.3
  28. Solution
  29. 1.4 Modeling and Energy Methods
  30. Example 1.4.1
  31. Solution
  32. Example 1.4.2
  33. Solution
  34. Example 1.4.3
  35. Solution
  36. Example 1.4.4
  37. Solution
  38. Example 1.4.5
  39. Solution
  40. Example 1.4.6
  41. Solution
  42. Example 1.4.7
  43. Solution
  44. Example 1.4.8
  45. Solution
  46. 1.5 Stiffness
  47. Example 1.5.1
  48. Solution
  49. Example 1.5.2
  50. Solution
  51. Example 1.5.3
  52. Solution
  53. Example 1.5.4
  54. Solution
  55. Example 1.5.5
  56. Solution
  57. Example 1.5.6
  58. Solution
  59. 1.6 Measurement
  60. Example 1.6.1
  61. Solution
  62. Example 1.6.2
  63. Solution
  64. Example 1.6.3
  65. Solution
  66. 1.7 Design Considerations
  67. Example 1.7.1
  68. Solution
  69. Example 1.7.2
  70. Solution
  71. Example 1.7.3
  72. Solution
  73. 1.8 Stability
  74. Example 1.8.1
  75. Solution
  76. Example 1.8.2
  77. Solution
  78. 1.9 Numerical Simulation of the Time Response
  79. Example 1.9.1
  80. Solution
  81. Example 1.9.2
  82. Solution
  83. Example 1.9.3
  84. Solution
  85. Example 1.9.4
  86. Solution
  87. 1.10 Coulomb Friction and the Pendulum
  88. Example 1.10.1
  89. Solution
  90. Example 1.10.2
  91. Solution
  92. Example 1.10.3
  93. Solution
  94. Example 1.10.4
  95. Solution
  96. Problems
  97. Section 1.1 (Problems 1.1 through 1.26)
  98. Section 1.2 (Problems 1.27 through 1.40)
  99. Section 1.3 (Problems 1.41 through 1.64)
  100. Section 1.4 (Problems 1.65 through 1.81)
  101. Section 1.5 (Problems 1.82 through 1.93)
  102. Section 1.6 (Problems 1.94 through 1.101)
  103. Section 1.7 (Problems 1.102 through 1.110, also see Problem Section 1.5 )
  104. Section 1.8 (Problems 1.111 through 1.115)
  105. Section 1.9 (Problems 1.116 through 1.123)
  106. Section 1.10 (Problems 1.124 through 1.136)
  107. MATLAB® Engineering Vibration Toolbox
  108. Toolbox Problems
  109. 2 Response to Harmonic Excitation
  110. 2.1 Harmonic Excitation of Undamped Systems
  111. Example 2.1.1
  112. Solution
  113. Example 2.1.2
  114. Solution
  115. Example 2.1.3
  116. Solution
  117. Example 2.1.4
  118. Solution
  119. 2.2 Harmonic Excitation of Damped Systems
  120. Example 2.2.1
  121. Solution
  122. Example 2.2.2
  123. Solution
  124. Example 2.2.3
  125. Solution
  126. Example 2.2.4
  127. Solution
  128. Example 2.2.5
  129. Solution
  130. 2.3 Alternative Representations
  131. 2.3.1 Geometric Method
  132. 2.3.2 Complex Response Method
  133. Example 2.3.1
  134. Solution
  135. 2.3.3 Transfer Function Method
  136. Example 2.3.2
  137. Solution
  138. Example 2.3.3
  139. Solution
  140. 2.4 Base Excitation
  141. Example 2.4.1
  142. Solution
  143. Example 2.4.2
  144. Solution
  145. Example 2.4.3
  146. Solution
  147. 2.5 Rotating Unbalance
  148. Example 2.5.1
  149. Solution
  150. Example 2.5.2
  151. Solution
  152. 2.6 Measurement Devices
  153. Example 2.6.1
  154. Solution
  155. 2.7 Other Forms of Damping
  156. Example 2.7.1
  157. Solution
  158. Example 2.7.2
  159. Solution
  160. Example 2.7.3
  161. Solution
  162. 2.8 Numerical Simulation and Design
  163. Example 2.8.1
  164. Solution
  165. Example 2.8.2
  166. Solution
  167. 2.9 Nonlinear Response Properties
  168. Example 2.9.1
  169. Solution
  170. Example 2.9.2
  171. Solution
  172. Problems
  173. Section 2.1 (Problems 2.1 through 2.19)
  174. Section 2.2 (Problems 2.20 through 2.38)
  175. Section 2.3 (Problems 2.39 through 2.44)
  176. Section 2.4 (Problems 2.45 through 2.60)
  177. Section 2.5 (Problems 2.61 through 2.68)
  178. Section 2.6 (Problems 2.69 through 2.72)
  179. Section 2.7 (Problems 2.73 through 2.89)
  180. Section 2.8 (Problems 2.90 through 2.96)
  181. Section 2.9 (Problems 2.97 through 2.102)
  182. MATLAB® Engineering Vibration Toolbox
  183. Toolbox Problems
  184. Chapter 3 General Forced Response
  185. 3.1 Impulse Response Function
  186. Example 3.1.1
  187. Solution
  188. Example 3.1.2
  189. Solution
  190. Example 3.1.3
  191. Solution
  192. Example 3.1.4
  193. Solution
  194. 3.2 Response to an Arbitrary Input
  195. Example 3.2.1
  196. Solution
  197. Example 3.2.2
  198. Solution
  199. Example 3.2.3
  200. Solution
  201. Example 3.2.4
  202. Solution
  203. 3.3 Response to an Arbitrary Periodic Input
  204. Example 3.3.1
  205. Solution
  206. Example 3.3.2
  207. Solution
  208. 3.4 Transform Methods
  209. Example 3.4.1
  210. Solution
  211. Example 3.4.2
  212. Solution
  213. Example 3.4.3
  214. Solution
  215. Example 3.4.4
  216. Solution
  217. Example 3.4.5
  218. Solution
  219. 3.5 Response to Random Inputs
  220. Example 3.5.1
  221. Solution
  222. Example 3.5.2
  223. Solution
  224. 3.6 Shock Spectrum
  225. Example 3.6.1
  226. Solution
  227. 3.7 Measurement via Transfer Functions
  228. 3.8 Stability
  229. Example 3.8.1
  230. Solution
  231. Example 3.8.2
  232. Solution
  233. 3.9 Numerical Simulation of the Response
  234. Example 3.9.1
  235. Solution
  236. Example 3.9.2
  237. Solution
  238. Example 3.9.3
  239. Solution
  240. Example 3.9.4
  241. Solution
  242. 3.10 Nonlinear Response Properties
  243. Example 3.10.1
  244. Solution
  245. Example 3.10.2
  246. Solution
  247. Problems
  248. Section 3.1 (Problems 3.1 through 3.17)
  249. Section 3.2 (Problems 3.18 through 3.29)
  250. Section 3.3 (Problems 3.30 through 3.38)
  251. Section 3.4 (Problems 3.39 through 3.43)
  252. Section 3.5 (Problems 3.44 through 3.48)
  253. Section 3.6 (Problems 3.49 through 3.50)
  254. Section 3.7 (Problems 3.51 through 3.58)
  255. Section 3.8 (Problems 3.59 through 3.64)
  256. Section 3.9 (Problems 3.65 through 3.72)
  257. Section 3.10 (Problems 3.73 through 3.79)
  258. MATLAB Engineering Vibration Toolbox
  259. Toolbox Problems
  260. 4 Multiple-Degree-of-Freedom Systems
  261. 4.1 Two-Degree-of-Freedom Model (Undamped)
  262. Example 4.1.1
  263. Example 4.1.2
  264. Solution
  265. Example 4.1.3
  266. Solution
  267. Example 4.1.4
  268. Solution
  269. Example 4.1.5
  270. Solution
  271. Example 4.1.6
  272. Solution
  273. Example 4.1.7
  274. Solution
  275. 4.2 Eigenvalues and Natural Frequencies
  276. Example 4.2.1
  277. Solution
  278. Example 4.2.2
  279. Solution
  280. Example 4.2.3
  281. Solution
  282. Example 4.2.4
  283. Solution
  284. Example 4.2.5
  285. Example 4.2.6
  286. Solution
  287. 4.3 Modal Analysis
  288. Example 4.3.1
  289. Solution
  290. Example 4.3.2
  291. Solution
  292. 4.4 More than Two Degrees of Freedom
  293. Example 4.4.1
  294. Example 4.4.2
  295. Solution
  296. Mode Summation Method
  297. Example 4.4.3
  298. Solution
  299. Nodes of a Mode
  300. Rigid-Body Modes
  301. Example 4.4.4
  302. Solution
  303. 4.5 Systems With Viscous Damping
  304. Example 4.5.1
  305. Solution
  306. Example 4.5.2
  307. Solution
  308. 4.6 Modal Analysis of the Forced Response
  309. Example 4.6.1
  310. Solution
  311. Resonance
  312. Example 4.6.2
  313. Solution
  314. Forced Response via Mode Summation
  315. 4.7 Lagrange’s Equations
  316. Example 4.7.1
  317. Solution
  318. Example 4.7.2
  319. Solution
  320. Example 4.7.3
  321. Solution
  322. Damping
  323. Example 4.7.4
  324. Solution
  325. 4.8 Examples
  326. Example 4.8.1
  327. Solution
  328. Example 4.8.2
  329. Solution
  330. Example 4.8.3
  331. Solution
  332. 4.9 Computational Eigenvalue Problems for Vibration
  333. Dynamically Coupled Systems
  334. Example 4.9.1
  335. Solution
  336. Using Codes
  337. Example 4.9.2
  338. Solution
  339. Example 4.9.3
  340. Solution
  341. Various Eigenvalue Problems
  342. Damped Systems
  343. Example 4.9.4
  344. Solution
  345. 4.10 Numerical Simulation of the Time Response
  346. Example 4.10.1
  347. Solution
  348. Example 4.10.2
  349. Solution
  350. Example 4.10.3
  351. Solution
  352. Problems
  353. Section 4.1 (Problems 4.1 through 4.19)
  354. Section 4.2 (Problems 4.20 through 4.35)
  355. Section 4.3 (Problems 4.36 through 4.46)
  356. Section 4.4 (Problems 4.47 through 4.59)
  357. Section 4.5 (Problems 4.60 through 4.72)
  358. Section 4.6 (Problems 4.73 through 4.83)
  359. Section 4.7 (Problems 4.84 through 4.87)
  360. Section 4.9 (Problems 4.88 through 4.98)
  361. Section 4.10 (Problems 4.99 through 4.106)
  362. MATLAB Engineering Vibration Toolbox
  363. Toolbox Problems
  364. Chapter 5 Design for Vibration Suppression
  365. 5.1 Acceptable Levels of Vibration
  366. Example 5.1.1
  367. Solution
  368. Example 5.1.2
  369. Solution
  370. 5.2 Vibration Isolation
  371. Example 5.2.1
  372. Solution
  373. Example 5.2.2
  374. Solution
  375. Example 5.2.3
  376. 5.3 Vibration Absorbers
  377. Example 5.3.1
  378. Solution
  379. Example 5.3.2
  380. Solution
  381. 5.4 Damping in Vibration Absorption
  382. 5.5 Optimization
  383. Example 5.5.1
  384. Solution
  385. Example 5.5.2
  386. Solution
  387. 5.6 Viscoelastic Damping Treatments
  388. Example 5.6.1
  389. Solution
  390. Example 5.6.2
  391. Solution
  392. 5.7 Critical Speeds of Rotating Disks
  393. Example 5.7.1
  394. Solution
  395. Example 5.7.2
  396. Solution
  397. Problems
  398. Section 5.1 (Problems 5.1 through 5.5)
  399. Section 5.2 (Problems 5.6 through 5.26)
  400. Section 5.3 (Problems 5.27 through 5.36)
  401. Section 5.4 (Problems 5.37 through 5.52)
  402. Section 5.5 (Problems 5.53 through 5.66)
  403. Section 5.6 (Problems 5.67 through 5.73)
  404. Section 5.7 (Problems 5.74 through 5.80)
  405. MATLAB Engineering Vibration Toolbox
  406. Toolbox Problems
  407. 6 Distributed-Parameter Systems
  408. 6.1 Vibration of a String or Cable
  409. Example 6.1.1
  410. Solution
  411. 6.2 Modes and Natural Frequencies
  412. Example 6.2.1
  413. Example 6.2.2
  414. Example 6.2.3
  415. Solution
  416. 6.3 Vibration of Rods and Bars
  417. Example 6.3.1
  418. Solution
  419. Example 6.3.2
  420. Solution
  421. 6.4 Torsional Vibration
  422. Example 6.4.1
  423. Solution
  424. 6.5 Bending Vibration of a Beam
  425. Euler–Bournoulli Beam Theory
  426. Example 6.5.1
  427. Solution
  428. Timoshenko Beam Theory
  429. Example 6.5.2
  430. Solution
  431. 6.6 Vibration of Membranes and Plates
  432. Example 6.6.1
  433. Solution
  434. 6.7 Models of Damping
  435. Example 6.7.1
  436. Solution
  437. Example 6.7.2
  438. 6.8 Modal Analysis of the Forced Response
  439. Example 6.8.1
  440. Solution
  441. Example 6.8.2
  442. Solution
  443. Example 6.8.3
  444. Solution
  445. Problems
  446. Section 6.2 (Problems 6.1 through 6.8)
  447. Section 6.3 (Problems 6.9 through 6.31)
  448. Section 6.4 (Problems 6.32 through 6.41)
  449. Section 6.5 (Problems 6.42 through 6.49)
  450. Section 6.6 (Problems 6.50 through 6.54)
  451. Section 6.7 (Problems 6.55 through 6.65)
  452. Section 6.8 (Problems 6.66 through 6.70)
  453. MATLAB Engineering Vibration Toolbox
  454. Toolbox Problems
  455. Chapter 7 Vibration Testing and Experimental Modal Analysis
  456. 7.1 Measurement Hardware
  457. 7.2 Digital Signal Processing
  458. Example 7.2.1
  459. 7.3 Random Signal Analysis in Testing
  460. 7.4 Modal Data Extraction
  461. Example 7.4.1
  462. Solution
  463. 7.5 Modal Parameters by Circle Fitting
  464. 7.6 Mode Shape Measurement
  465. Example 7.6.1
  466. Example 7.6.2
  467. Solution
  468. 7.7 Vibration Testing for Endurance and Diagnostics
  469. Example 7.7.1
  470. Solution
  471. 7.8 Operational Deflection Shape Measurement
  472. Problems
  473. Section 7.2 Problems (7.1 through 7.5)
  474. Section 7.3 (Problems 7.6 through 7.9)
  475. Section 7.4 (Problems 7.10 through 7.19)
  476. Section 7.5 (Problems 7.20 through 7.24)
  477. Section 7.6 (Problems 7.25 through 7.31)
  478. MATLAB Engineering Vibration Toolbox
  479. Toolbox Problems
  480. 8 Finite Element Method
  481. 8.1 Example: The Bar
  482. Example 8.1.1
  483. Solution
  484. 8.2 Three-Element Bar
  485. Example 8.2.1
  486. Solution
  487. Example 8.2.2
  488. Solution
  489. 8.3 Beam Elements
  490. Example 8.3.1
  491. Solution
  492. Example 8.3.2
  493. Example 8.3.3
  494. Solution
  495. 8.4 Lumped-Mass Matrices
  496. Example 8.4.1
  497. Solution
  498. 8.5 Trusses
  499. 8.6 Model Reduction
  500. Example 8.6.1
  501. Problems
  502. Section 8.1 (Problems 8.1 Through 8.7)
  503. Section 8.2 (Problems 8.8 Through 8.20)
  504. Section 8.3 (Problems 8.21 Through 8.33)
  505. Section 8.4 (Problems 8.34 Through 8.43)
  506. Section 8.5 (Problems 8.44 Through 8.49)
  507. Section 8.6 (Problems 8.50 Through 8.54)
  508. MATLAB Engineering Vibration Toolbox
  509. Toolbox Problems
  510. A Complex Numbers and Functions
  511. B Laplace Transforms
  512. C Matrix Basics
  513. D The Vibration Literature
  514. Introductory Texts
  515. Advanced Texts
  516. Periodicals
  517. Journals
  518. E List of Symbols
  519. CHAPTER 1
  520. CHAPTER 2
  521. CHAPTER 3
  522. CHAPTER 4
  523. Chapter 5
  524. CHAPTER 6
  525. CHAPTER 7
  526. CHAPTER 8
  527. F Codes and Websites
  528. G Engineering Vibration Toolbox and Web Support
  529. Web Support
  530. MATLAB Engineering Vibration Toolbox
  531. References
  532. Answers to Selected Problems
  533. Index
  534. A
  535. B
  536. C
  537. D
  538. E
  539. F
  540. G
  541. H
  542. I
  543. K
  544. L
  545. M
  546. N
  547. O
  548. P
  549. Q
  550. R
  551. S
  552. T
  553. U
  554. V
  555. W
  556. Y
  557. Z

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