Growth: Linear versus Exponential

Slides:



Advertisements
Similar presentations
Section 8A Growth: Linear vs. Exponential
Advertisements

Section 9C Exponential Modeling (pages 585 – 601)
Exponential Astonishment
ACTIVITY 40 Modeling with Exponential (Section 5.5, pp ) and Logarithmic Functions.
Differential Equations
Linear vs. exponential growth Linear vs. exponential growth: t = 0 A = 1x(1+1) 0 = 1 A = 1x0 + 1 = 1.
LOGARITHMS AND EXPONENTIAL MODELS
Exponential Growth and Decay
Bell Ringer: (You will turn this in) Read the scenario and follow the directions: This year, Zachary has been babysitting his young cousins after school.
Quiz 3-1a This data can be modeled using an exponential equation 
Human Population Growth Or Elbow Room for Everyone?
Rates of Growth & Decay. Example (1) - a The size of a colony of bacteria was 100 million at 12 am and 200 million at 3am. Assuming that the relative.
Rates of Growth & Decay. Example (1) The size of a colony of bacteria was 100 million at 12 am and 200 million at 3am. Assuming that the relative rate.
Quiz 3-1a 1.Write the equation that models the data under the column labeled g(x). 2. Write the equation that models the data under the column labeled.
Copyright © 2005 Pearson Education, Inc. Slide 8-1.
Review: exponential growth and Decay functions. In this lesson, you will review how to write an exponential growth and decay function modeling a percent.
Copyright © 2011 Pearson Education, Inc. Exponential Astonishment.
Copyright © 2011 Pearson Education, Inc. Exponential Astonishment.
Chapter 5 Applications of Exponential and Natural Logarithm Functions.
Exponential and Logarithmic Functions 4 Copyright © Cengage Learning. All rights reserved.
Exponential Functions and Their Graphs I CAN… Graph exponential functions Evaluate exponential functions Use exponential functions to model and solve real-world.
Table of Contents 5. Section 5.8 Exponential Growth and Decay.
Honors Precalculus: Do Now Solve for x. 4 2x – 1 = 3 x – 3 You deposit $7550 in an account that pays 7.25% interest compounded continuously. How long will.
Table of Contents 1. Section 5.8 Exponential Growth and Decay.
9-6 EXPONENTIAL GROWTH AND DECAY PG. 38 (NOTEBOOK) Y = amount remaining after Growth or decay A = Initial amount of material t = time the material has.
EXPONENTIAL GROWTH AND DECAY By: Shaikha Arif Grade: 10 MRS. Fatma 11-3.
Section 6.6: Growth and Decay Model Theorem 6.33: If y is a differentiable function of t such that y > 0 and, for some constant c, then where y 0 is the.
4 Exponential and Logarithmic Functions.
Population Ecology.
DIFFERENTIAL EQUATIONS
MAT 142 Lecture Video Series
Splash Screen.
Exponential Astonishment
4.4 Laws Of Logarithms.
Unit 3– Exponentials and Logarithms Review Problems
Rate of growth or decay (rate of change)
Interpreting Exponential Functions
Modeling with Equations
Clicker Question 1 A population of geese grows exponentially, starting with 50 individuals, at a continuous rate of 7% per year. How long will it take.
Exponential Growth & Decay
Section 8.8 – Exponential growth and Decay
Chapter 9.3: Modeling with First-Order Differential Equations
Exponential Growth and Decay
Unit 9C Exponential Modeling.
Warm Up Find a partner at your table.
Welcome to LSP 120 Dr. Curt M. White.
Warm Up Find a partner at your table.
Exponential Astonishment
Doubling Time and Half-Life
Exponential Equations Applications.
EXPONENTIAL GROWTH & DECAY
Unit 6: Exponential Functions L3 – Applying Exponential Functions
Exponential Astonishment
9.1 Exponential Functions
7.5b - Applications of Logarithms
Warm Up Find a partner at your table.
7.6 - Laws of Growth and Decay
Exponential Growth and Decay; Logistic Growth and Decay
Growth: Linear versus Exponential
Introduction Exponential equations are equations that have the variable in the exponent. Exponential equations are found in science, finance, sports, and.
10.5 Using Exponential Functions to Model Data
Exponential Growth and Decay
Do Now: Grab a calculator
Day 91 – Geometric sequences
Exponential Relations
Exponential Growth and Decay
In this lesson, you will learn to write an exponential growth function modeling a percent of increase situation by interpreting the percent of increase.
Presentation transcript:

Growth: Linear versus Exponential Unit 8A Growth: Linear versus Exponential Ms. Young

Growth: Linear versus Exponential Linear Growth occurs when a quantity grows by some fixed absolute amount in each unit of time. Exponential Growth occurs when a quantity grows by the same fixed relative amount—that is, by the same percentage—in each unit of time. Make sure students understand that the principles above also apply to linear and exponential decay as well. Ms. Young

Growth: Linear versus Exponential Straightown grows by the same absolute amount each year and Powertown grows by the same relative amount each year. Ms. Young

Key Facts about Exponential Growth Exponential growth leads to repeated doublings. With each doubling, the amount of increase is approximately equal to the sum of all preceding doublings. Exponential growth cannot continue indefinitely. After only a relatively small number of doublings, exponentially growing quantities reach impossible proportions. Discussing each of the parables from the text is vital. Students should not miss this content and all the ramifications to the quantitative world around us. Ms. Young

Example Bacteria in a Bottle: Suppose you put a single bacterium in a bottle at 11:00 a.m. It grows and at 11:01, it divides into two bacteria. These two bacteria grow and at 11:02 divide into four bacteria, which grow and at 11:03 divide into eight bacteria, and so on. Thus, the bacteria doubles every minute. If the bottle is half-full at 11:59, when will the bottle be completely full? Since the bacteria doubles every minute, the bottle will be full after one more minute. That is, the bottle will be completely full at 12:00 p.m. Ms. Young