Chapter 3 Techniques of Differentiation. § 3.1 The Product and Quotient Rules.

Slides:



Advertisements
Similar presentations
Chapter 3 Techniques of Differentiation
Advertisements

3 DERIVATIVES.
Differentiation using Product Rule and Quotient Rule
Section 2.4 – The Chain Rule. Example 1 If and, find. COMPOSITION OF FUNCTIONS.
Take the inverse Example: The derivatives of the remaining trigonometric functions — csc, sec, and cot — can also be found easily using the.
Section 12.1 Techniques for Finding Derivative. Constant Rule Power Rule Sum and Difference Rule.
3.6 Derivatives of Logarithmic Functions 1Section 3.6 Derivatives of Log Functions.
Section 12.2 Derivatives of Products and Quotients
Copyright © Cengage Learning. All rights reserved.
© 2010 Pearson Education Inc.Goldstein/Schneider/Lay/Asmar, CALCULUS AND ITS APPLICATIONS, 12e– Slide 1 of 33 Chapter 3 Techniques of Differentiation.
Copyright © Cengage Learning. All rights reserved. Differentiation 2.
Copyright © Cengage Learning. All rights reserved.
In this section, we will learn about: Differentiating composite functions using the Chain Rule. DIFFERENTIATION RULES 3.4 The Chain Rule.
Implicit Differentiation By Samuel Chukwuemeka (Mr. C)
3 DERIVATIVES. In this section, we will learn about: Differentiating composite functions using the Chain Rule. DERIVATIVES 3.5 The Chain Rule.
11.4 The Chain Rule.
Chapter 4 Techniques of Differentiation Sections 4.1, 4.2, and 4.3.
Implicit Differentiation
Section 3.4 The Chain Rule. One of THE MOST POWERFUL Rules of Differentiation The chain rule allows you to take derivatives of compositions of functions.
Copyright © Cengage Learning. All rights reserved. 2 Derivatives.
1.6 – Differentiation Techniques The Product and Quotient Rules.
MATH 31 LESSONS Chapter 2: Derivatives 4. The Chain Rule.
Derivatives of Exponential and Logarithmic Functions
Section 3.3 The Product and Quotient Rule. Consider the function –What is its derivative? –What if we rewrite it as a product –Now what is the derivative?
Section 3.5 Implicit Differentiation 1. Example If f(x) = (x 7 + 3x 5 – 2x 2 ) 10, determine f ’(x). Now write the answer above only in terms of y if.
Chapter 4 Additional Derivative Topics Section 4 The Chain Rule.
1 The Chain Rule Section After this lesson, you should be able to: Find the derivative of a composite function using the Chain Rule. Find the derivative.
In this section, we will learn about: Differentiating composite functions using the Chain Rule. DERIVATIVES 3.5 The Chain Rule.
Properties of Logarithms log b (MN)= log b M + log b N Ex: log 4 (15)= log log 4 3 log b (M/N)= log b M – log b N Ex: log 3 (50/2)= log 3 50 – log.
3.5 – Implicit Differentiation
7.2* Natural Logarithmic Function In this section, we will learn about: The natural logarithmic function and its derivatives. INVERSE FUNCTIONS.
© 2010 Pearson Education Inc.Goldstein/Schneider/Lay/Asmar, CALCULUS AND ITS APPLICATIONS, 12e– Slide 1 of 33 Chapter 3 Techniques of Differentiation.
1.7 Copyright © 2014 Pearson Education, Inc. The Chain Rule OBJECTIVE Find the composition of two functions. Differentiate using the Extended Power Rule.
Calculating the Derivative
The Chain Rule Copyright © Cengage Learning. All rights reserved. 2.4.
Chapter 4 Additional Derivative Topics Section 4 The Chain Rule.
§ 1.7 More About Derivatives.
§ 3.2 The Chain Rule and the General Power Rule.
Chapter 3 Techniques of Differentiation
11.4 The Chain Rule.
Section 3.3 The Product and Quotient Rule
Chapter 3 Techniques of Differentiation
Implicit Differentiation
DIFFERENTIATION RULES
Copyright © Cengage Learning. All rights reserved.
The Quotient Rule The Quotient Rule is used to find derivatives for functions written as a fraction:
Copyright © Cengage Learning. All rights reserved.
Managerial Economics in a Global Economy
Chapter 3 Optimization Techniques and New Management Tools
Copyright © Cengage Learning. All rights reserved.
Copyright © Cengage Learning. All rights reserved.
Chapter 3 Derivatives.
Chain Rule AP Calculus.
Calculating the Derivative
Copyright © Cengage Learning. All rights reserved.
The Chain Rule Find the composition of two functions.
Copyright © Cengage Learning. All rights reserved.
Integration To integrate ex
31 – Power, Product, Quotient Rule No Calculator
Copyright © Cengage Learning. All rights reserved.
Tutorial 4 Techniques of Differentiation
§ 3.2 The Chain Rule and the General Power Rule.
The Chain Rule Section 3.6b.
Chain Rule Chain Rule.
The Chain Rule Section 3.4.
Chapter 3 Techniques of Differentiation
Chapter 3 Additional Derivative Topics
Section 2 Integration by Substitution
The Chain Rule.
Presentation transcript:

Chapter 3 Techniques of Differentiation

§ 3.1 The Product and Quotient Rules

 The Product Rule  The Quotient Rule  Rate of Change Section Outline

The Product Rule

EXAMPLE Differentiate the function.

The Quotient Rule

EXAMPLE Differentiate.

The Quotient Rule Now let’s differentiate again, but first simplify the expression. Now we can differentiate the function in its new form. CONTINUED Notice that the same answer was acquired both ways.

The Product Rule & Quotient Rule Another way to order terms in the product and quotient rules, for the purpose of memorizing them more easily, is PRODUCT RULE QUOTIENT RULE

§ 3.2 The Chain Rule and the General Power Rule

The Chain Rule If y is a function of u and u is a function of x, then the chain rule can be written as dy/dx= (dy/du) (du/dx)

The Chain RuleEXAMPLE Use the chain rule to compute the derivative of f (g(x)), where and.

The Chain RuleEXAMPLE Compute using the chain rule.

Marginal Cost & Time Rate of ChangeEXAMPLE (Marginal Cost and Time Rate of Change) The cost of manufacturing x cases of cereal is C dollars, where. Weekly production at t weeks from the present is estimated to be x = t cases. (a) Find the marginal cost, (b) Find the time rate of change of cost, (c) How fast (with respect to time) are costs rising when t = 2?