Slope Fields and Euler’s Method

Slides:



Advertisements
Similar presentations
DERIVATIVE OF A FUNCTION 1.5. DEFINITION OF A DERIVATIVE OTHER FORMS: OPERATOR:,,,
Advertisements

ESSENTIAL CALCULUS CH11 Partial derivatives
Chapter 14 – Partial Derivatives
Section 2.9 Linear Approximations and Differentials Math 1231: Single-Variable Calculus.
THE DERIVATIVE AND THE TANGENT LINE PROBLEM
First-Order Differential Equations
Copyright © 2007 Pearson Education, Inc. Publishing as Pearson Prentice Hall Slide 6- 1.
Ordinary Differential Equations S.-Y. Leu Sept. 21,28, 2005.
Calculus and Analytic Geometry II Cloud County Community College Spring, 2011 Instructor: Timothy L. Warkentin.
Section 6.1: Euler’s Method. Local Linearity and Differential Equations Slope at (2,0): Tangent line at (2,0): Not a good approximation. Consider smaller.
A Numerical Technique for Building a Solution to a DE or system of DE’s.
Slope Fields and Euler’s Method. When taking an antiderivative that is not dealing with a definite integral, be sure to add the constant at the end. Given:find.
AP Calculus AB/BC 6.1 Notes - Slope Fields
A Numerical Technique for Building a Solution to a DE or system of DE’s.
Differential Equations 6 Copyright © Cengage Learning. All rights reserved. 6.1 Day
6.1 Antiderivatives and Slope Fields Objectives SWBAT: 1)construct antiderivatives using the fundamental theorem of calculus 2)solve initial value problems.
Applied Calculus, 3/E by Deborah Hughes-Hallet Copyright 2006 by John Wiley & Sons. All rights reserved. Section 10.3: Slope Fields Section 10.3 Slope.
Slope Fields and Euler’s Method Copyright © Cengage Learning. All rights reserved Day
Copyright © 2007 Pearson Education, Inc. Publishing as Pearson Prentice Hall Antiderivatives and Slope Fields Section 6.1.
11 Copyright © Cengage Learning. All rights reserved. 11 Techniques of Differentiation with Applications.
Differential Equations: Slope Fields
Constructing the Antiderivative Solving (Simple) Differential Equations The Fundamental Theorem of Calculus (Part 2) Chapter 6: Calculus~ Hughes-Hallett.
3.2 & 3.3. State the Differentiability Theorem Answer: If a function is differentiable at x=a, then the function is continuous at x=a.
Slope Fields Objective: To find graphs and equations of functions by the use of slope fields.
Differential Equations 7. Direction Fields and Euler's Method 7.2.
Slope Fields and Euler’s Method
6.1 D IFFERENTIAL E QUATIONS & S LOPE F IELDS. D IFFERENTIAL E QUATIONS Any equation involving a derivative is called a differential equation. The solution.
5.4 Fundamental Theorem of Calculus Quick Review.
Differential Equations Copyright © Cengage Learning. All rights reserved.
SPECIALIST MATHS Differential Equations Week 1. Differential Equations The solution to a differential equations is a function that obeys it. Types of.
The elements of higher mathematics Differential Equations
Differential Equations and Slope Fields 6.1. Differential Equations  An equation involving a derivative is called a differential equation.  The order.
Exponential Growth and Decay 6.4. Separation of Variables When we have a first order differential equation which is implicitly defined, we can try to.
Separable Differential Equations
Suppose we are given a differential equation and initial condition: Then we can approximate the solution to the differential equation by its linearization.
1 6.1 Slope Fields and Euler's Method Objective: Solve differential equations graphically and numerically.
Slide 6- 1 What you’ll learn about Differential Equations Slope Fields Euler’s Method … and why Differential equations have been a prime motivation for.
Ch 2.1: Linear Equations; Method of Integrating Factors A linear first order ODE has the general form where f is linear in y. Examples include equations.
AP CALCULUS AB Chapter 6: Differential Equations and Mathematical Modeling Section 6.1: Slope Fields and Euler’s Met hod.
1 Differential Equations 6 Copyright © Cengage Learning. All rights reserved. 6.1 DE & Slope Fields BC Day 1.
6.1: DIFFERENTIAL EQUATIONS AND SLOPE FIELDS. DEFINITION: DIFFERENTIAL EQUATION An equation involving a derivative is called a differential equation.
SLOPE FIELDS By Ali and Ethan OBJECTIVES  To learn how to construct slope fields from differential equations.  To learn how to find the equation of.
6.1 Slope Fields and Euler’s Method. Verifying Solutions Determine whether the function is a solution of the Differential equation y” - y = 0 a. y = sin.
1 6.1 Slope Fields and Euler's Method Objective: Solve differential equations graphically and numerically.
39. Section 9.1 Solving Differential Equations. Essential Question What is a differential equation?
Lesson 9-2 Direction (Slope) Fields and Euler’s Method.
Solving Differential Equations Slope Fields. Solving DE: Slope Fields Slope Fields allow you to approximate the solutions to differential equations graphically.
6.1 – 6.3 Differential Equations
Slope Fields AP Calculus AB Mr. Reed.
SLOPE FIELDS & EULER’S METHOD
7-1 Differential equations & Slope fields
SLOPE FIELDS & EULER’S METHOD
Implicit Differentiation
2 Differentiation.
Slope Fields If you enjoyed connecting the dots, you’ll love slope fields It is a graphical method to find a particular solution to any differential equation.
3.6 Chain Rule.
AP Calculus Honors Ms. Olifer
Slope Fields & Differential Equations
THE DERIVATIVE AND THE TANGENT LINE PROBLEM
Part (a) Keep in mind that dy/dx is the SLOPE! We simply need to substitute x and y into the differential equation and represent each answer as a slope.
Section Euler’s Method
AP Calculus BC April 18, 2016 Mr. Agnew
More Index cards for AB.
Specialist Mathematics
Linearization and Newton’s Method
Slope Fields and Euler’s Method
Part (a) dy dx = 1+y x dy dx = m = 2
Integration by Substitution part 3 (Section 4.5)
Slope Fields (6.1) January 10th, 2017.
Presentation transcript:

Slope Fields and Euler’s Method 6.1 Slope Fields and Euler’s Method

Quick Review

Quick Review Solutions

What you’ll learn about Differential Equations Slope Fields Euler’s Method Essential Question How do we use differential equations and visually demonstrate them using slope fields?

Differential Equation An equation involving a derivative is called a differential equation. The order of a differential equation is the order of the highest derivative involved in the equation. Example Solving a Differential Equation

First-order Differential Equation If the general solution to a first-order differential equation is continuous, the only additional information needed to find a unique solution is the value of the function at a single point, called an initial condition. A differential equation with an initial condition is called an initial-value problem. It has a unique solution, called the particular solution to the differential equation.

Example Solving an Initial Value Problem Find the particular solution to the equation and y = 2 when x = 0.

Example Solving an Initial Value Problem Solve the initial value problem explicitly y = 3 when x = 1.

Example Solving an Initial Value Problem Find the particular solution to the equation whose graph passes through the point (1, ½ ).

Example Using the Fundamental Theorem to Solve an Initial Value Problem Find the solution to the differential equation for which f (3) = 5.

Slope Field The differential equation gives the slope at any point (x, y). This information can be used to draw a small piece of the linearization at that point, which approximates the solution curve that passes through that point. Repeating that process at many points yields an approximation called a slope field.

Example Constructing a Slope Field Construct a slope field for the differential equation At any point (0, y), the slope, dy/dx = cos 0 = At any point (p, y) or (-p, y), the slope, dy/dx = The slope of odd multiples of p/2 will be At any point (2p, y) or (-2p, y), the slope, dy/dx = If you connect these, the graph of the f (x) should appear.

Euler’s Method for Graphing a Solution to an Initial Value Problem Begin at the point ( x, y ) specified by the initial condition. Use the differential equation to find the slope dy /dx at the point. Increase x by Dx. Increase y by Dy, where Dy = (dy/dx) Dx. This defines a new point ( x + Dx, y + Dy) that lies along the linearization. Using this new point, return to step 2. Repeating the process constructs the graph to the right of the initial point. To construct the graph moving to the left from the initial point, repeat the process using negative values for Dx.

Example Applying Euler’s Method Use Euler’s method with increments of Dx = 0.1 to approximate the value of y when x = 1.5 given

Pg. 327, 6.1 #1-49 odd