Graph of a Curve Continuity This curve is continuous

Slides:



Advertisements
Similar presentations
Make sure you have book and working calculator EVERY day!!!
Advertisements

Maxima and minima of functions
Graph of a Curve Continuity This curve is _____________These curves are _____________ Smoothness This curve is _____________These curves are _____________.

Vocabulary axis of symmetry standard form minimum value maximum value.
0 - 0.
DIVIDING INTEGERS 1. IF THE SIGNS ARE THE SAME THE ANSWER IS POSITIVE 2. IF THE SIGNS ARE DIFFERENT THE ANSWER IS NEGATIVE.
ADDING INTEGERS 1. POS. + POS. = POS. 2. NEG. + NEG. = NEG. 3. POS. + NEG. OR NEG. + POS. SUBTRACT TAKE SIGN OF BIGGER ABSOLUTE VALUE.
MULT. INTEGERS 1. IF THE SIGNS ARE THE SAME THE ANSWER IS POSITIVE 2. IF THE SIGNS ARE DIFFERENT THE ANSWER IS NEGATIVE.
Addition Facts
O X Click on Number next to person for a question.
Chapter 2 Applications of the Derivative
TS: Explicitly assessing information and drawing conclusions Increasing & Decreasing Functions.
Take from Ten First Subtraction Strategy -9 Click on a number below to go directly to that type of subtraction problems
Understanding Functions
Past Tense Probe. Past Tense Probe Past Tense Probe – Practice 1.
Limits (Algebraic) Calculus Fall, What can we do with limits?
Section 3.4 Objectives: Find function values
Addition 1’s to 20.
Copyright © Cengage Learning. All rights reserved.
Is the shape below a function? Explain. Find the domain and range.
Test B, 100 Subtraction Facts
11 = This is the fact family. You say: 8+3=11 and 3+8=11
Week 1.
SECTION 1.7 Graphs of Functions. T HE F UNDAMENTAL G RAPHING P RINCIPLE FOR F UNCTIONS The graph of a function f is the set of points which satisfy the.
O X Click on Number next to person for a question.
Each part of graph is described as: 1)Increasing : function values increase from left to right 2)Decreasing: function values decrease 3)Constant function.
1 Concavity and the Second Derivative Test Section 3.4.
More on Functions and Their Graphs Section 1.3. Objectives Calculate and simplify the difference quotient for a given function. Calculate a function value.
THE ABSOLUTE VALUE FUNCTION. Properties of The Absolute Value Function Vertex (2, 0) f (x)=|x -2| +0 vertex (x,y) = (-(-2), 0) Maximum or Minimum? a =
Relative Extrema.
Unit 11 – Derivative Graphs Section 11.1 – First Derivative Graphs First Derivative Slope of the Tangent Line.
POLYNOMIALS.
Copyright © 2011 Pearson, Inc. 1.2 Functions and Their Properties.
Math – Getting Information from the Graph of a Function 1.
Section 5.1 – Increasing and Decreasing Functions The First Derivative Test (Max/Min) and its documentation 5.2.
Section 2.3 Properties of Functions. For an even function, for every point (x, y) on the graph, the point (-x, y) is also on the graph.
Today in Pre-Calculus Go over homework Notes: Finding Extrema –You’ll need a graphing calculator (id’s please) Homework.
Section 4.1 Maximum and Minimum Values Applications of Differentiation.
Increasing/ Decreasing
MAT 213 Brief Calculus Section 4.2 Relative and Absolute Extreme Points.
Copyright © Cengage Learning. All rights reserved. Applications of Differentiation.
Domain and Range: Graph Domain- Look horizontally: What x-values are contained in the graph? That’s your domain! Range- Look vertically: What y-values.
2.5 Quadratic Functions Maxima and Minima.
Do Now from 1.2a Find the domain of the function algebraically and support your answer graphically. Find the range of the function.
Increasing Decreasing Constant Functions.
MTH1170 Function Extrema.
Section 3.3 – Rates of Change and Behavior of Graphs
Today in Pre-Calculus Go over homework Need a calculator
3-6 Critical Points and Extrema
Let’s Review Functions
Section 4.3 Optimization.
§2.5: Solving Problems Involving Rate of Change
Second Derivative Test
Write each using Interval Notation. Write the domain of each function.
5.2 Section 5.1 – Increasing and Decreasing Functions
Homework Analyzing Graphs
Packet #17 Absolute Extrema and the Extreme Value Theorem
More Properties of Functions
Unit 1 Day 1 Key Features of Graphs
Functions and Their Properties II
Critical Numbers – Relative Maximum and Minimum Points
1 Extreme Values.
(3, 2) 2 -3 (-4, -3) -2 (5, -2) 1. a) Find: f(3) = ______
2.5 Using Piecewise Functions (Part 2)
4.2 Critical Points, Local Maxima and Local Minima
f(x) g(x) x x (-8,5) (8,4) (8,3) (3,0) (-4,-1) (-7,-1) (3,-2) (0,-3)
Let’s Review Functions
Let’s Review Functions
Presentation transcript:

Graph of a Curve Continuity This curve is continuous These curves are discontinuous y x y x y x hole gap GAP Smoothness This curve is smooth These curves are not smooth y x y x y x corner cusp

Graph of a Curve (cont’d) Increasing Decreasing Constant A function f is increasing on an open interval I if, for any x1 and x2 in I, with x1 < x2, we have f(x1) < f(x2). A function f is decreasing on an open interval I if, for any x1 and x2 in I, with x1 < x2, we have f(x1) > f(x2). A function f is constant on an open interval I if, for any x1 and x2 in I, we have f(x1) = f(x2). x y x1 x2 I f(x1) f(x2) y x x1 x2 I f(x1) f(x2) y x x1 x2 I f(x1) f(x2) Local (or Relative) Extrema f(x1) is a local max and also a global max A function f has a local maximum at x = x0 if locally, f(x0) is greater than all the surrounding values of f(x). We call this f(x0) a local maximum of f. A function f has a local minimum at x = x0 if locally, f(x0) is less than all the surrounding values of f(x). We call this f(x0) a local minimum of f. f(x3) is a local max x1 x2 x3 Global (or Absolute) Extrema A function f has a global maximum at x = x0 if f(x0) is greater than or equal to all values of f(x). We call this f(x0) the global maximum of f. A function f has a global minimum at x = x0 if f(x0) is less than or equal to all values of f(x). We call this f(x0) the global minimum of f. f(x2) is a local min

Use each graph to find the domain and range of the function: -5 -4 -3 -2 -1 1 2 3 4 5 -5 -4 -3 -2 -1 1 2 3 4 5 Domain = [–5, –2)  (–1, 5] Domain = [–4, 4) Range = (–2, 2] Range = [–3, 1)  [2,4) -5 -4 -3 -2 -1 1 2 3 4 5 -5 -4 -3 -2 -1 1 2 3 4 5 Domain = (–∞, –3)  [–1, 4) Domain = (–, 5)  (5, ) Range = (–, –2)  (–1, 3] Range = {–3}  [–2, 1)  (1, )

1) Find f(5), f(2), and f(–6): f(5) = 3, f(2) = 1, f(–6) = –1 Use the graph of the function f given below to answer the following questions: -9 -8 -7 -6 -5 -4 -3 -2 -1 1 2 3 4 5 6 1) Find f(5), f(2), and f(–6): f(5) = 3, f(2) = 1, f(–6) = –1 12) List the interval(s) on which f is decreasing? (–9, –2)  (0, 1)  (3, 4) 2) Is f(–1) positive? No f(5)? Yes 13) List the interval(s) on which f is increasing? (–2, 0)  (1, 3)  (4, 5) 3) Is f(2) negative? No f(–4)? Yes 14) List the interval(s) on which f constant? (5, 6) 4) What is the domain of f ? (–9,6] 15) If any, list all the local maxima? 1, 4 At which x values? 0, 3 5) What is the range of f ? [–3,4] 6) What are the x-intercepts? –7.5, –1, 1 16) If any, list all the local minima? –3, 0, 1 At which x values? –2, 1, 4 7) What is the y-intercept? 1 8) Is f continuous? Yes 17) Is there any global maximum? Yes, 4 global minimum? Yes, –3 9) Is f smooth? No 10) For what value(s) of x does f(x) = 0? –7.5, –1, 1 f(x) = 1? 0, 2, 4 11) How often does the line y = 1 intersect the graph? 3 times y = ½? 4 times y = –2? 2 times