Tangent Line Approximations

Slides:



Advertisements
Similar presentations
Linear Approximation and Differentials
Advertisements

More on Derivatives and Integrals -Product Rule -Chain Rule
The Chain Rule Section 3.6c.
Section Differentials Tangent Line Approximations A tangent line approximation is a process that involves using the tangent line to approximate a.
The Derivative and the Tangent Line Problem. Local Linearity.
3 Copyright © Cengage Learning. All rights reserved. Applications of Differentiation.
Point Value : 20 Time limit : 2 min #1 Find. #1 Point Value : 30 Time limit : 2.5 min #2 Find.
Section 2.9 Linear Approximations and Differentials Math 1231: Single-Variable Calculus.
Derivatives - Equation of the Tangent Line Now that we can find the slope of the tangent line of a function at a given point, we need to find the equation.
DERIVATIVES Linear Approximations and Differentials In this section, we will learn about: Linear approximations and differentials and their applications.
Implicit Differentiation. Objectives Students will be able to Calculate derivative of function defined implicitly. Determine the slope of the tangent.
1 The Derivative and the Tangent Line Problem Section 2.1.
DO NOW Find the equation of the tangent line of y = 3sin2x at x = ∏
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.
§12.5 The Fundamental Theorem of Calculus
DERIVATIVES 3. We have seen that a curve lies very close to its tangent line near the point of tangency. DERIVATIVES.
CHAPTER Continuity Integration by Parts The formula for integration by parts  f (x) g’(x) dx = f (x) g(x) -  g(x) f’(x) dx. Substitution Rule that.
Aim: Differentials Course: Calculus Do Now: Aim: Differential? Isn’t that part of a car’s drive transmission? Find the equation of the tangent line for.
Chapter 4 Techniques of Differentiation Sections 4.1, 4.2, and 4.3.
Copyright © Cengage Learning. All rights reserved. 2 Derivatives.
5 Copyright © Cengage Learning. All rights reserved. Logarithmic, Exponential, and Other Transcendental Functions.
In this section, we will consider the derivative function rather than just at a point. We also begin looking at some of the basic derivative rules.
Differentials Intro The device on the first slide is called a micrometer….it is used for making precision measurements of the size of various objects…..a.
TECHNIQUES OF INTEGRATION Due to the Fundamental Theorem of Calculus (FTC), we can integrate a function if we know an antiderivative, that is, an indefinite.
Linearization and Newton’s Method. I. Linearization A.) Def. – If f is differentiable at x = a, then the approximating function is the LINEARIZATION of.
Lesson 3-5 Chain Rule or U-Substitutions. Objectives Use the chain rule to find derivatives of complex functions.
Linear approximation and differentials (Section 2.9)
For any function f (x), the tangent is a close approximation of the function for some small distance from the tangent point. We call the equation of the.
Copyright © Cengage Learning. All rights reserved. 7 Techniques of Integration.
8 TECHNIQUES OF INTEGRATION. Due to the Fundamental Theorem of Calculus (FTC), we can integrate a function if we know an antiderivative, that is, an indefinite.
3 Copyright © Cengage Learning. All rights reserved. Applications of Differentiation.
3.8 Local Linear Approximations; Differentials (page 226) b We have been interpreting dy/dx as a single entity representing the derivative of y with respect.
Barnett/Ziegler/Byleen Business Calculus 11e1 Learning Objectives for Section 10.6 Differentials The student will be able to apply the concept of increments.
4.1 Linear Approximations Fri Oct 16 Do Now Find the equation of the tangent line of each function at 1) Y = sinx 2) Y = cosx.
René Descartes 1596 – 1650 René Descartes 1596 – 1650 René Descartes was a French philosopher whose work, La géométrie, includes his application of algebra.
3 Copyright © Cengage Learning. All rights reserved. Applications of Differentiation.
Linear Approximations. In this section we’re going to take a look at an application not of derivatives but of the tangent line to a function. Of course,
Inverse Trigonometric Functions: Differentiation & Integration (5. 6/5
§ 4.2 The Exponential Function e x.
Linear approximation and differentials (Section 3.9)
INTEGRATION & TECHNIQUES OF INTEGRATION
2 Differentiation.
§ 1.3 The Derivative.
Ch. 5 – Applications of Derivatives
47 – Derivatives of Trigonometric Functions No Calculator
Copyright © Cengage Learning. All rights reserved.
Copyright © Cengage Learning. All rights reserved.
The Derivative and the Tangent Line Problems
Katherine Han Period Linear Approximation Katherine Han Period
Question Find the derivative of Sol..
Section Euler’s Method
Sec 3.10: Linear approximation and Differentials
Integration review.
Copyright © Cengage Learning. All rights reserved.
Differentiate. f (x) = x 3e x
Differentials and Linear Approximation
Copyright © Cengage Learning. All rights reserved.
Section 2.7.
Copyright © Cengage Learning. All rights reserved.
Copyright © Cengage Learning. All rights reserved.
§3.10 Linear Approximations and Differentials
MAT 3238 Vector Calculus 15.4 Tangent Planes.
Linear approximation and differentials (Section 3.9)
35 – Local Linearization No Calculator
3.10 Linear Approximations and Differentials
More with Rules for Differentiation
Chapter 10 Limits and the Derivative
Derivatives Part 3.
Miss Battaglia AB Calculus
Presentation transcript:

Tangent Line Approximations Consider a function f that is differentiable at c. The equation for the tangent line at the point (c,f(c)) is given by y – f(c) = f’(c)(x – c) y = f(c) + f’(c)(x – c) and is called the tangent line approximation of f at c. This is a linear function. It makes it really easy to evaluate. The nice part is when x -> c, the limit of y is f(c).

Tangent Line Approximations Tangent Line Approximations have become semi-obsolete with the invention of computers and calculators. Prior to modern technology, this was an amazing technique for finding derivative values of complex equations. For instance, it’s easy to find the value of 1 + sin(x) when x=0, but what about x = 0.01. (Without a calculator!!) Let’s take a look.

Tangent Line Approximations

Tangent Line Approximations

Differentials

Differentials

Differentials

Calculating Differentials It’s basically the same but the dx term was replaced because… du = u’ dx and dv = v’ dx

Calculating Differentials Even Leibniz, who developed this notation, did not fully understand his notation but everyone understood the application of his notation.

Calculating Differentials

Calculating Differentials