Section | You should be able to… | Example | Review Exercises |
3.1 | 1 Differentiate a composite function (p. 198) | 1-5 | 1, 13, 24 |
| 2 Differentiate \(y = a^{x},\) \(a > 0,\) \(a≠ 1\) (p. 202) | 6 | 19, 22 |
| 3 Use the Power Rule for functions to find a derivative (p. 202) | 7, 8 | 1, 11, 12, 14, 17 |
| 4 Use the Chain Rule for multiple composite functions (p. 204) | 9 | 15, 18, 61 |
3.2 | 1 Find a derivative using implicit differentiation (p. 209) | 1-4 | 43-52, 73, 81 |
| 2 Find higher-order derivatives using implicit differentiation (p. 212) | 5 | 49-52 |
| 3 Differentiate functions with rational exponents (p. 213) | 6, 7 | 2-8, 15, 16, 61-64 |
| 4 Find the derivative of an inverse function (p. 214) | 8 | 53, 54 |
| 5 Differentiate inverse trigonometric functions (p. 216) | 9, 10 | 32-38 |
3.3 | 1 Differentiate logarithmic functions (p. 222) | 1-3 | 20, 21, 23, 25-30, 52, 72 |
| 2 Use logarithmic differentiation (p. 225) | 4-7 | 9, 10, 31, 71 |
| 3 Express \(e\) as a limit (p. 227) | 8 | 55, 56 |
3.4 | 1 Find the differential of a function and interpret it geometrically (p. 230) | 1 | 65, 69, 70 |
| 2 Find the linear approximation to a function (p. 232) | 2 | 67 |
| 3 Use differentials in applications (p. 233) | 3, 4 | 66, 68 |
| 4 Use Newton’s Method to approximate a real zero of a function (p. 234) | 5, 6 | 78-80 |
3.5 | 1 Find a Taylor Polynomial (p. 240) | 1-3 | 74-77 |
3.6 | 1 Define the hyperbolic functions (p. 243) | 1 | 57, 58 |
| 2 Establish identities for hyperbolic functions (p. 244) | 2 | 59, 60 |
| 3 Differentiate hyperbolic functions (p. 245) | 3, 4 | 39-41 |
| 4 Differentiate inverse hyperbolic functions (p. 246) | 5-7 | 42 |