Chapter 3: The Derivative 3.1: Limits JMerrill, 2009.

Slides:



Advertisements
Similar presentations
Sec. 1.2: Finding Limits Graphically and Numerically.
Advertisements

Horizontal and Vertical Asymptotes. Vertical Asymptote A term which results in zero in the denominator causes a vertical asymptote when the function is.
We will find limits algebraically
APPLICATIONS OF DIFFERENTIATION 4. In Sections 2.2 and 2.4, we investigated infinite limits and vertical asymptotes.  There, we let x approach a number.
Section 1.2 – Finding Limits Graphically and Numerically
Section 1.2 – Finding Limits Graphically and Numerically
Chapter 7 Section 2. Objectives 1 Copyright © 2012, 2008, 2004 Pearson Education, Inc. Multiplying and Dividing Rational Expressions Multiply rational.
Copyright © 2011 Pearson Education, Inc. Publishing as Prentice Hall. Chapter 12 Rational Expressions.
4.4 Rational Functions Objectives:
Chapter 3 Limits and the Derivative
Polynomial Functions Chapter 2 Part 1. Standard Form f(x)=ax 2 +bx+c Vertex Form f(x)=a(x-h) 2 +k Intercept Form f(x)=a(x-d)(x-e) y-int (0, c) let x =
LIMITS An Introduction to Calculus
Rational Functions 4-2.
Finding Limits Graphically and Numerically An Introduction to Limits Limits that Fail to Exist A Formal Definition of a Limit.
Calculus Section 1.1 A Preview of Calculus What is Calculus? Calculus is the mathematics of change Two classic types of problems: The Tangent Line Problem.
AP CALCULUS 1003 Limits pt.3 Limits at Infinity and End Behavior.
Lesson 15-1 Limits Objective: To calculate limits of polynomials and rational functions algebraically To evaluate limits of functions using a calculator.
Look at website on slide 5 for review on deriving area of a circle formula Mean girls clip: the limit does not exist
Warm Up. Getting Started Use your calculator to graph the following equation: What do you notice about the graph? Look closely!!!! Change your window.
Objectives: To evaluate limits numerically, graphically, and analytically. To evaluate infinite limits.
LIMITS AND DERIVATIVES 2. In Sections 2.2 and 2.4, we investigated infinite limits and vertical asymptotes.  There, we let x approach a number.  The.
APPLICATIONS OF DIFFERENTIATION 4. A polynomial behaves near infinity as its term of highest degree. The polynomial behaves like the polynomial Near infinity.
9.3 Rational Functions and Their Graphs Rational Function – A function that is written as, where P(x) and Q(x) are polynomial functions. The domain of.
Infinite Limits Lesson 1.5.
2.2: LIMITS INVOLVING INFINITY Objectives: Students will be able to evaluate limits as Students will be able to find horizontal and vertical asymptotes.
Precalculus – MAT 129 Instructor: Rachel Graham Location: BETTS Rm. 107 Time: 8 – 11:20 a.m. MWF.
Chapter 3 Limits and the Derivative Section 1 Introduction to Limits.
11.1 Finding Limits Graphically and Numerically
Rational Functions - Rational functions are quotients of polynomial functions: where P(x) and Q(x) are polynomial functions and Q(x)  0. -The domain of.
In Sections 2.2 and 2.4, we investigated infinite limits and vertical asymptotes.  There, we let x approach a number.  The result was that the values.
Introducing Oblique Asymptotes Horizontal Asymptote Rules: – If numerator and denominator have equal highest power, simplified fraction is the H.A. – If.
2.6 Rational Functions and Asymptotes 2.7 Graphs of Rational Functions Rational function – a fraction where the numerator and denominator are polynomials.
Class Work Find the real zeros by factoring. P(x) = x4 – 2x3 – 8x + 16
Chapter 7 Polynomial and Rational Functions with Applications Section 7.2.
L IMITS AND L IMITS AT INFINITY Limit Review 1. Limits can be calculated 3 ways Numerically Graphically Analytically (direct substitution) Properties.
Pg. 222 Homework Pg. 223#31 – 43 odd Pg. 224#48 Pg. 234#1 #1(-∞,-1)U(-1, 2)U(2, ∞) #3 (-∞,-3)U(-3, 1)U(1, ∞) #5(-∞,-1)U(-1, 1)U(1, ∞) #7(-∞, 2 – √5)U(2.
Finding Limits Graphically and Numerically 2015 Limits Introduction Copyright © Cengage Learning. All rights reserved. 1.2.
Limits and Their Properties. Limits We would like to the find the slope of the tangent line to a curve… We can’t because you need TWO points to find a.
Rational Functions Rational functions are quotients of polynomial functions. This means that rational functions can be expressed as where p(x) and q(x)
Section 11.1 Limits.
Chapter 3 Limits and the Derivative Section 1 Introduction to Limits.
2.6 Limits at Infinity: Horizontal Asymptotes LIMITS AND DERIVATIVES In this section, we: Let x become arbitrarily large (positive or negative) and see.
Limits Involving Infinity Infinite Limits We have concluded that.
Calculus Section 2.5 Find infinite limits of functions Given the function f(x) = Find =  Note: The line x = 0 is a vertical asymptote.
Chapter 11.2 Notes: Simplify Rational Expressions Goal: You will simplify rational expressions.
AP CALCULUS 1003 Limits pt.2 One Sided Limits and Infinite Limits.
Bell Ringer. ASYMPTOTES AND GRAPHING December 2, 2015.
Calculus Section 2.5 Find infinite limits of functions Given the function f(x) = Find =  Note: The line x = 0 is a vertical asymptote.
Infinite Limits 1.5. An infinite limit is a limit in which f(x) increases or decreases without bound as x approaches c. Be careful…the limit does NOT.
Chapter 6 Rational Expressions and Equations
Rational Functions A rational function has the form
1.5 Infinite Limits Main Ideas
Chapter 10 Limits and the Derivative
4.4 Rational Functions A Rational Function is a function whose rule is the quotient of two polynomials. i.e. f(x) = 1
Chapter 12 Rational Functions.
Rational functions are quotients of polynomial functions.
Graphing Rational Functions
Graphing Polynomial Functions
Prep Book Chapter 3 - Limits of Functions
2.2 Limits at Infinity: Horizontal Asymptotes
3.3: Rational Functions and Their Graphs
3.3: Rational Functions and Their Graphs
2.6 Section 2.6.
The Limit of a Function.
Vertical Asymptote If f(x) approaches infinity (or negative infinity) as x approaches c from the right or the left, then the line x = c is a vertical asymptote.
Chapter 12: Limits, Derivatives, and Definite Integrals
26 – Limits and Continuity II – Day 1 No Calculator
Calc Limits involving infinity
Limits Review.
Chapter 2 Limits and the Derivative
Presentation transcript:

Chapter 3: The Derivative 3.1: Limits JMerrill, 2009

Algebra deals with static situations (what will something cost in 3 years?) Calculus deals with dynamic situations (when does the growth of a population begin to slow down) The concept of a limit is a fundamental concept in calculus. One use is in applications that include maximizations. The idea of the limit of a function is what connects algebra and geometry to the mathematics of calculus.

There are multiple methods to Finding Limits: Case 1 If a polynomial function is defined at a point, then the limit is obtained by direct substitution Example: You Do: 10

Case 2 In a rational function, if direct substitution results in a 0 in both the numerator and denominator, (this is called the indeterminant form) factor both, reduce to lowest terms, then use direct substitution. Example:

Case 3 In a rational function, if direct substitution results in division by zero, evaluate small increments close to a, from both the left and the right. Note that x = a is a vertical asymptote. In order for a function to have a limit at a point, its right- and left-hand limits have to be the same. If not, the limit does not exist. The limit may occur at the vertical asymptote.

Example

Example

Definition of a Limit If f(x) becomes arbitrarily close to a unique number L as x approaches c from either side, the limit of f(x) as x approaches c is L. This is written

Case 4 You can estimate the limit by substituting increasingly larger values for n. (look at 100, 1000, …) Ex: Find. When n = 100, As n gets larger and larger, approaches 0 and so does. So, = 0.

Case 4 Continued Ex: Find : (0.99) 1000 = 4.3 x (0.99) 10,000 = 2.2 x So,

Case 5 Divide the numerator and denominator by the highest power of n that occurs in the denominator.

Example What is the highest power of n in the denominator?

You Do

Increasing Without Bound Sometimes, the terms of a sequence increase without bound, in which case, the limit does not exist. Ex: 3, 7, 11, 15, … 4n – 1, … so Ex: -10, -100, -1000, … -10n, …so

You Do Therefore, the limit DNE