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5.2…and...5.3

5.2…and...5.3. All mixed together…. Rolles Theorem. If f is continuous on [ a,b ] and differentiable on ( a,b ) and if f(a)=f(b ), then f ‘ (c)=0 for at least one number c in (a,b). Mean Value Theorem (MVT).

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5.2…and...5.3

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  1. 5.2…and...5.3 All mixed together….

  2. Rolles Theorem If f is continuous on [a,b] and differentiable on (a,b) and if f(a)=f(b), then f ‘(c)=0 for at least one number c in (a,b).

  3. Mean Value Theorem (MVT) If y = f(x) is continuous on [a,b] and differentiable on (a,b), then there is at least one point c in (a,b) such that

  4. Tangent parallel to chord. Slope of tangent: Slope of chord:

  5. Example Explore the Mean Value Theorem

  6. Inc / Dec Functions

  7. Example Determining Where Graphs Rise or Fall

  8. Example

  9. First Derivative Test for Local Extrema

  10. First Derivative Test for Local Extrema

  11. First Dx Test

  12. Concavity

  13. Concavity Test

  14. Inflection Point A point where the graph of a function has a tangent line and where the concavity changes is a point of inflection.

  15. Concavity

  16. 2nd Dx Test

  17. Example Using the Second Derivative Test

  18. is positive is negative is zero is positive is negative is zero First derivative: Curve is rising. Curve is falling. Possible local maximum or minimum. Second derivative: Curve is concave up. Curve is concave down. Possible inflection point (where concavity changes).

  19. Learning about Functions from Derivatives

  20. Example: Graph

  21. rising, concave down local max falling, inflection point local min rising, concave up Make a summary table: p

  22. Antiderivatives are never unique.

  23. Antiderivative A function is an antiderivative of a function if for all x in the domain of f. The process of finding an antiderivative is antidifferentiation. The process of finding the original function from the derivative is so important that it has a name: You will hear much more about antiderivatives in the future. This section is just an introduction.

  24. Functions with the same derivative differ by a constant. These two functions have the same slope at any value of x.

  25. could be or could vary by some constant . Example 6: Find the function whose derivative is and whose graph passes through . so:

  26. Example 6: Find the function whose derivative is and whose graph passes through . so: Notice that we had to have initial values to determine the value of C.

  27. Example 7b: Find the velocity and position equations for a downward acceleration of 9.8 m/sec2 and an initial velocity of 1 m/sec downward. (We let down be positive.) Since acceleration is the derivative of velocity, velocity must be the antiderivative of acceleration.

  28. Example 7b: Find the velocity and position equations for a downward acceleration of 9.8 m/sec2 and an initial velocity of 1 m/sec downward. The power rule in reverse: Increase the exponent by one and multiply by the reciprocal of the new exponent. Since velocity is the derivative of position, position must be the antiderivative of velocity.

  29. Example 7b: Find the velocity and position equations for a downward acceleration of 9.8 m/sec2 and an initial velocity of 1 m/sec downward. The initial position is zero at time zero. p

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