GPS: MM3A2e, MM3A2f, MM3A2d.  MM3A2e – Investigate and explain characteristics of exponential and logarithmic functions including domain and range, asymptotes,

Slides:



Advertisements
Similar presentations
Compound interest & exponential growth/decay. Compound Interest A=P(1 + r ) nt n P - Initial principal r – annual rate expressed as a decimal n – compounded.
Advertisements

9.1 EXPONENTIAL FUNCTIONS. EXPONENTIAL FUNCTIONS A function of the form y=ab x, where a=0, b>0 and b=1.  Characteristics 1. continuous and one-to-one.
Exponential functions Logarithmic functions
The Natural Base, e 7-6 Warm Up Lesson Presentation Lesson Quiz
Exponential and Logarithmic Functions. Exponential Functions Vocabulary – Exponential Function – Logarithmic Function – Base – Inverse Function – Asymptote.
Logarithmic Functions Section 2. Objectives Change Exponential Expressions to Logarithmic Expressions and Logarithmic Expressions to Exponential Expressions.
4.1 Graph Exponential GrowthFunctions p. 228 What is an exponential function? What is exponential growth function? What is an asymptote? What information.
Homework
5.1 Exponential Functions
Exponential and Logarithmic Functions
Exponential & Logarithmic Functions
Warm Up Simplify. x 1. log 10 x 2. log b b 3w log z 3w3w z 4. b log b (x – 1 ) x – 1.
LOGS EQUAL THE The inverse of an exponential function is a logarithmic function. Logarithmic Function x = log a y read: “x equals log base a of y”
SFM Productions Presents: Another saga in your continuing Pre-Calculus experience! 3.2Logarithmic Functions and their Graphs.
Chapter The Natural base, e.
Chapter 8 Review. Rewrite into logarithm form: 1. 2.
1.) If there are initially 100 fruit flies in a sample, and the number of fruit flies decreases by one-half each hour, How many fruit flies will be present.
8.3 The number e p. 480 What is the Euler number? How is it defined? Do laws of exponents apply to “e” number? How do you use “e” on your calculator? When.
GPS: MM3A2e, MM3A2f, MM3A2g.  An exponential decay function has the form y = ab x, where a>0 and 0
Let’s examine exponential functions. They are different than any of the other types of functions we’ve studied because the independent variable is in.
Section 4.1 Logarithms and their Properties. Suppose you have $100 in an account paying 5% compounded annually. –Create an equation for the balance B.
STUDENTS WILL BE ABLE TO: CONVERT BETWEEN EXPONENT AND LOG FORMS SOLVE LOG EQUATIONS OF FORM LOG B Y=X FOR B, Y, AND X LOGARITHMIC FUNCTIONS.
Exponential Functions Exponential functions Geometric Sequences.
Exponential Functions Section 1. Exponential Function f(x) = a x, a > 0, a ≠ 1 The base is a constant and the exponent is a variable, unlike a power function.
Exponential Functions. Exponential Functions and Their Graphs.
The Number e and Natural Logs Chapter 8.4 and 8.3.
4.3 Use Functions Involving e p. 244 What is the Euler number? How is it defined? Do laws of exponents apply to “e” number? How do you use “e” on your.
Notes Over 8.4 Rewriting Logarithmic Equations Rewrite the equation in exponential form.
7.4a Notes – Evaluate Logarithms. 1. Solve for x. a. x = 2 b. c.d. x = 1 x = 0 x = -2.
6.6 The Natural Base, e Objectives: Evaluate natural exponential and
Exponential Functions MM3A2e Investigate characteristics: domain and range, asymptotes, zeros, intercepts, intervals of increase and decrease, rate of.
THE NATURAL BASE EXAMPLE 1 Simplify natural base expressions Simplify the expression. a.e2e2 e5e5 = e = e7e7 b. 12e4e4 3e3e3 = e 4 – 3 4 = 4e4e.
8.1 Exponential Growth p Exponential Function f(x) = b x where the base b is a positive number other than one. Graph f(x) = 2 x Note the end behavior.
1 C ollege A lgebra Inverse Functions ; Exponential and Logarithmic Functions (Chapter4) L:17 1 University of Palestine IT-College.
8.1 Exponential Growth p Exponential Function f(x) = b x where the base b is a positive number other than one. Graph f(x) = 2 x Note the end behavior.
Simplify. 1. log10x 2. logbb3w 3. 10log z 4. blogb(x –1) 5.
Exponential and Logarithmic Functions
Exponential Functions Algebra III, Sec. 3.1 Objective Recognize, evaluate, and graph exponential functions.
The Number e Section 8.3. WHAT YOU WILL LEARN: 1.How to use the number e as the base of exponential functions.
3.1.  Algebraic Functions = polynomial and rational functions. Transcendental Functions = exponential and logarithmic functions. Algebraic vs. Transcendental.
10.2 Logarithms and Logarithmic Functions Objectives: 1.Evaluate logarithmic expressions. 2.Solve logarithmic equations and inequalities.
5.2 Logarithmic Functions & Their Graphs Goals— Recognize and evaluate logarithmic functions with base a Graph Logarithmic functions Recognize, evaluate,
Section 5.4 Logarithmic Functions. LOGARITHIMS Since exponential functions are one-to-one, each has an inverse. These exponential functions are called.
3.4 Properties of Logarithmic Functions
9x – 7i > 3(3x – 7u) 9x – 7i > 9x – 21u – 7i > – 21u
The Natural Base, e 4-6 Warm Up Lesson Presentation Lesson Quiz
TEST TOMORROW 3/1/ NON-CALCULATOR MULTIPLE CHOICE 15-FREE RESPONSE QUESTIONS Unit 2 review.
GRAPHING EXPONENTIAL FUNCTIONS f(x) = 2 x 2 > 1 exponential growth 2 24–2 4 6 –4 y x Notice the asymptote: y = 0 Domain: All real, Range: y > 0.
GPS: MM3A2c, MM3A2e, MM3A2f.  MM3A2c – Define logarithmic functions as inverses of exponential functions.  MM3A2f – Graph functions as transformations.
Lesson 20 – Introducing and Applying Base e. Pre-Calculus 2/22/20161Pre-Calculus.
4.3 Use Functions Involving e PROJECT DUE: Tomorrow Quiz: Tomorrow Performance Exam: Friday *We will be having a book check tomorrow…. BRING BOTH.
3.1 Exponential Functions and Their Graphs Objectives: Students will recognize and evaluate exponential functions with base a. Students will graph exponential.
Exponential and Log Functions BY: Brandon, Ashley, Alicia.
LOGARITHMS. Find the inverse function for each of the functions below. 1.f(x) = 3x – f(x) = 2 x.
Warm Up:. 6.2 Notes: The Natural Base “e” The Basics  The natural base’s symbol is “e,” and is an irrational number (similar to pi). It is approximately.
Logarithmic Functions & Their Graphs Goals— Recognize and evaluate logarithmic functions with base a Graph Logarithmic functions Recognize, evaluate, and.
Exponential Functions
Chapter 5: Inverse, Exponential, and Logarithmic Functions
Inverse, Exponential, and Logarithmic Functions
5.3 Logarithmic Functions & Graphs
5.4 Logarithmic Functions and Models
Logarithmic Functions and Their Graphs
MATH 1310 Session 8.
The Natural Base, e 4-6 Warm Up Lesson Presentation Lesson Quiz
REVIEW
Exponential and Logarithmic Functions
Exponential and Logarithmic Functions
Exponential Functions
6.3 Logarithms and Logarithmic Functions
55. Graphing Exponential Functions
Presentation transcript:

GPS: MM3A2e, MM3A2f, MM3A2d

 MM3A2e – Investigate and explain characteristics of exponential and logarithmic functions including domain and range, asymptotes, zeros, intercepts, intervals of increase and decrease, and rate of change.  MM3A2f – Graph functions as transformations of f(x) = a x, f(x) = log a x, f(x) = ex, f(x) = ln x.  MM3A2g - Explore real phenomena related to exponential and logarithmic functions including half- life and doubling time.  MM3A3d –Solve a variety of types of equations by appropriate means, choosing among mental calculation, pencil and paper, or appropriate technology.

 The number denoted by the letter e is called the natural base e.  It is an irrational number defined as follows: As n approaches +∞, (1 + ) n approaches e≈  A function of the form f(x)=ae rx is called a natural base exponential function.  Continuously Compounded Interest – When interest is compounded continuously, the amount A in an account after t years is given by the formula A=Pe rt, where P is the principal and r is the annual interest rate expressed as a decimal.

PropertyStatement of Property Product of Power Property Power of a Power Property Power of a Product Property Negative Exponent Property Zero Exponent Property Quotient of Powers Property Power of a Quotient Property

 Simplify the expression ◦ e 6 * e 4 = e 6+4 = e 10 ◦ (-2e x ) 3 = (-2) 3 (e x ) 3 = -8e 3x ◦ 1

 Graph  Steps: ◦ Make a table ◦ Plot your points ◦ Asymptote? ◦ Domain & Range X-2012 Y

 Graph  Steps: ◦ Make a table ◦ Plot your points ◦ Asymptote? ◦ Domain & Range X-2012 Y

 Graph  Steps: ◦ Make a table ◦ Plot your points ◦ Asymptote? ◦ Domain & Range X-2012 Y

 You deposit $500 in an account that pays 3% annual interest compounded continuously. What is the balance after 2 years?  Use the formula for continuously compounded interest.  A = Pe rt

 Try page 141: 1-8

xy