Slides:



Advertisements
Similar presentations
Application of Derivative in Analyzing the Properties of Functions
Advertisements

Inflection Points and the Second Derivative
Increasing and Decreasing Functions
Local Maximum/Minimum of Continuous Functions
DO NOW: Find where the function f(x) = 3x4 – 4x3 – 12x2 + 5
Relationship between First Derivative, Second Derivative and the Shape of a Graph 3.3.
1 Example 7 Sketch the graph of the function Solution I. Intercepts The x-intercepts occur when the numerator of r(x) is zero i.e. when x=0. The y-intercept.
4.3 Derivatives and the shapes of graphs 4.4 Curve Sketching
Concavity & the second derivative test (3.4) December 4th, 2012.
Objectives: 1.Be able to determine where a function is concave upward or concave downward with the use of calculus. 2.Be able to apply the second derivative.
Extremum & Inflection Finding and Confirming the Points of Extremum & Inflection.
Section 3.3 How Derivatives Affect the Shape of a Graph.
APPLICATIONS OF DIFFERENTIATION
Graphing Rational Functions. Example (1) For the following function: determine the intervals of increase/decrease, the intervals of upward/downward concavity,
Concavity and Inflection Points The second derivative will show where a function is concave up or concave down. It is also used to locate inflection points.
Extremum. Finding and Confirming the Points of Extremum.
Relative Extrema.
Relative Extrema: Graphing Polynomials Objective: We will locate relative maximum and minimum values and use all of our knowledge to graph polynomials.
1 Example 1 Sketch the graph of the function f(x) = x 3 -3x 2 -45x+47. Solution I. Intercepts The x-intercepts are the solutions to 0= f(x) = x 3 -3x 2.
Relationships of CREATED BY CANDACE SMALLEY
Higher Derivatives Concavity 2 nd Derivative Test Lesson 5.3.
Extremum & Inflection. Finding and Confirming the Points of Extremum & Inflection.
Section 4.1 Using First and Second Derivatives. Let’s see what we remember about derivatives of a function and its graph –If f’ > 0 on an interval than.
Concavity f is concave up if f’ is increasing on an open interval. f is concave down if f’ is decreasing on an open interval.
The Shape of the Graph 3.3. Definition: Increasing Functions, Decreasing Functions Let f be a function defined on an interval I. Then, 1.f increases on.
Increasing / Decreasing Test
4.3 How Derivatives Affect the Shape of a Graph. Facts If f ’( x ) > 0 on an interval ( a,b ), then f (x) is increasing on ( a,b ). If f ’( x ) < 0 on.
CALCULUS I Chapter III Additionnal Applications of the Derivative Mr. Saâd BELKOUCH.
In this section, we will investigate some graphical relationships between a function and its second derivative.
2.1.  Remember that the first derivative test will tell where a function is increasing or decreasing.
Applications of Derivatives
CHAPTER Continuity Derivatives and the Shapes of Curves.
Curve Sketching Lesson 5.4. Motivation Graphing calculators decrease the importance of curve sketching So why a lesson on curve sketching? A calculator.
Using Derivatives to Sketch the Graph of a Function Lesson 4.3.
In the past, one of the important uses of derivatives was as an aid in curve sketching. We usually use a calculator of computer to draw complicated graphs,
CONCAVITY AND SECOND DERIVATIVE RIZZI – CALC BC. WARM UP Given derivative graph below, find a. intervals where the original function is increasing b.
EXTREMA ON AN INTERVAL Section 3.1. When you are done with your homework, you should be able to… Understand the definition of extrema of a function on.
Chapter Four Applications of Differentiation. Copyright © Houghton Mifflin Company. All rights reserved. 4 | 2 Definition of Extrema.
What Does f’ Say About f? Many of the applications of calculus depend on our ability to deduce facts about a function f from information concerning its.
Extremum & Inflection. Finding and Confirming the Points of Extremum & Inflection.
1 Example 3 Sketch the graph of the function Solution Observe that h is an odd function, and its graph is symmetric with respect to the origin. I. Intercepts.
Section 2.6 Inflection Points and the Second Derivative Note: This is two day lecture, marked by and Calculator Required on all Sample Problems.
How derivatives affect the shape of a graph ( Section 4.3) Alex Karassev.
Sketching Functions We are now going to use the concepts in the previous sections to sketch a function, find all max and min ( relative and absolute ),
Chapter 4.1 – 4.3 Review Thursday, September 24 Essential Question How do we use differential calculus as a powerful problem-solving tool to analyze graphs.
Relating the Graphs of f, f’ and f’’
Relative Extrema and More Analysis of Functions
Applications of Differential Calculus DP Objectives: 7.4, 7.5, 7.6
Review Problems Sections 3-1 to 3-4
Chapter 12 Review Important Terms, Symbols, Concepts
Relationship between First Derivative, Second Derivative and the Shape of a Graph 3.3.
3.2 – Concavity and Points of Inflection
3.4 Concavity and the Second Derivative Test
§4.3. How f   f  affect shape of f
Second Derivative Test
Application of Derivative in Analyzing the Properties of Functions
3.4: Concavity and the Second Derivative Test
MATH 1311 Section 1.3.
3.1 – Increasing and Decreasing Functions; Relative Extrema
Concavity of a Function
4.3 Connecting f’ and f’’ with the graph of f
MATH 1311 Section 1.3.
Derivatives and Graphing
Concavity of a Function
Packet #14 First Derivatives and Graphs
1 2 Sec4.3: HOW DERIVATIVES AFFECT THE SHAPE OF A GRAPH
Concavity of a Function
Concavity & the second derivative test (3.4)
Math 1304 Calculus I 4.03 – Curve Shape.
Relationship between First Derivative, Second Derivative and the Shape of a Graph 3.3.
Presentation transcript:

Limit Involving Radicals and as x Approaching ∞ We have done limits at infinity (i.e., limx∞f(x) and limx–∞f(x) where f(x) is a rational function), what happen if f(x) is not a rational function? For example, (Usually you don’t see this limit because ________________, but if you do see it, you will say the limit is ____.)

First and Second Derivative Tests for Local Maximum and Minimum Recall that if f (c) = 0, most likely f has a local extremum at x = c. However, it’s not a must (recall the example f(x) = x3, where f (0) = 0, but f doesn’t have a local extremum at x = 0—but rather, it is an inflection point). Even if f has a local extremum at x = c when f (c) = 0, how can we tell it is a local maximum or minimum? We need one of the following two tests, one of which we have already learned. The First Derivative Test Suppose that c is a critical number of a continuous function f (i.e, f (c) = 0). i. If f  changes from positive to negative at c, then f has a local maximum at c. ii. If f  changes from negative to positive at c, then f has a local ________ at c. iii. If f  does not change sign at c (for example, if f  is positive on both sides of c or negative on both sides, then f has no local maximum or minimum at c. Examples: The other test is called the Second Derivative Test, which is a consequence of the Concavity Test. The Second Derivative Test Suppose f (c) exist. i. If f (c) = 0 and f (c) > 0, then f has a local ___________ at c. ii. If f (c) = 0 and f (c) < 0, then f has a local ___________ at c. iii. If f (c) = 0 and f (c) = 0, then the test is _____________. f(x) = x3

Graphs of f, f  and f  Given the graph of function f on the right: 1. Indicate the intervals for which f is increasing: ______________ 2. Indicate the intervals for which f is decreasing: ______________ 3. Indicate the x-values for which f has a local maximum: _______ 4. Indicate the x-values for which f has a local minimum: ________ 5. Indicate the intervals for which f is concave up: _____________ 6. Indicate the intervals for which f is concave down: ___________ 7. Indicate the x-values for which f has an inflection point:_______ Given the graph of function f on the right: 1. Indicate the intervals for which f is increasing: ______________ 2. Indicate the intervals for which f is decreasing: ______________ 3. Indicate the x-values for which f has a local maximum: _______ 4. Indicate the x-values for which f has a local minimum: _______ Given the graph of function f on the right: 1. Indicate the intervals for which f is concave up: ______________ 2. Indicate the intervals for which f is concave down: ______________ 3. Indicate the x-values for which f has an inflection point: _______