Chain Rule.

Slides:



Advertisements
Similar presentations
Complex Functions These derivatives involve embedded composite, product, and quotient rules. The functions f or g must be derived using another rule.
Advertisements

The Derivative. Definition Example (1) Find the derivative of f(x) = 4 at any point x.
Addition Subtraction Multiplication Division
EXPONENTS ORDER OF OPERATIONS MULTIPLYING / DIVIDING POWER OF A POWER POWER OF A PRODUCT POWER OF A QUOTIENT NEGATIVE EXPONENTS.
Business Calculus Derivatives. 1.5 – 1.7 Derivative Rules  Linear Rule:   Constant Rule:   Power Rule:   Coefficient Rule:   Sum/Difference Rule:
Integers: Multiplication & Division
Multiplying, Dividing, and Simplifying Radicals Multiply radical expressions. 2.Divide radical expressions. 3.Use the product rule to simplify radical.
Decimal Division You must learn the rules. Dividing a decimal by a whole number 1.2 ÷ 2 Divisor = 2 Dividend = 1.2 Step 1: move the decimal in the dividend.
Warm Up I can simplify expressions with exponents. 1. What is the value of 3x 3 +2 when x=10? 2. You put $500 in an account that doubles every year. 
Finding an Inverse Function with a Table. Inverse Notation Original function Inverse function “Inverse of f(x)”
Monomials Multiplying Monomials and Raising Monomials to Powers.
Slide 3- 1 Rule 1 Derivative of a Constant Function.
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.
Calculus Section 2.4 The Chain Rule. Used for finding the derivative of composite functions Think dimensional analysis Ex. Change 17hours to seconds.
Section 3.4 The Chain Rule. Consider the function –We can “decompose” this function into two functions we know how to take the derivative of –For example.
In this section, we will investigate how to take the derivative of a function that is the composition of multiple functions.
Lesson 4-2 Operations on Functions. We can do some basic operations on functions.
Examples A: Derivatives Involving Algebraic Functions.
Exponential Derivatives Brooke Smith. Exponential Functions and Their Derivatives  f(x)=e x f(x)=a x  f’(x)=e x f’(x)=a x (ln(a))
Ch. 4 – More Derivatives 4.1 – Chain Rule. Ex: Find the derivative of h(x) = sin(2x 2 ). –This is not a product rule problem because it has one function.
Warm up Find the derivative of each function: 1. 2.
One and Two Step Equations Using Opposite Operations.
Further Differentiation and Integration
Exponent Laws Part I Topic 2.4. Exponent Law for a Product of Powers How could you solve this question? What do you notice about the bases? Will it work.
Algebra 1 Warm Up.
Addition Multiplication Subtraction Division. 1.If the signs are the same, add the numbers and keep the same sign = = If the.
The Product and Quotient Rules for Differentiation.
Product & Quotient Rule 3.3. The Product Rule The first times the derivative of the second plus the second times the derivative of the first When two.
3.1 The Product and Quotient Rules & 3.2 The Chain Rule and the General Power Rule.
2-1 The Derivative and the Tangent Line Problem 2-2 Basic Differentiation Rules and Rates of Change 2-3 Product/Quotient Rule and Higher-Order Derivatives.
Quick Guide to Adding, Subtracting, Multiplying, and Dividing Decimals
Interesting Integers – Part Dos
MTH1150 Rules of Differentiation
Multiply to find the number of pictures in all.
Addition Subtraction Multiplication Division
Addition Subtraction Multiplication Division
Simplifying Exponential Multiplication Expressions.
Fun facts about derivatives.
EVALUATING EXPONENTS.
Division with Remainders
LONG DIVISION CAN BE EASY!.
Factoring the Sum & Difference of Two Cubes
Powers and Exponents.
Addition Subtraction Multiplication Division
Exponential Functions
EVALUATING EXPONENTS.
Nth term maths 06/12/2018.
Perform Function Operations and Composition
Addition Subtraction Multiplication Division
Objective The student will be able to:
Exponents and Polynomials
Unit 3 More Derivatives Chain Rule.
EVALUATING EXPONENTS.
Addition Subtraction Multiplication Division
The Chain Rule.
Used for composite functions (a function within a function)…
07/04/2019 INDEX NOTATION.
Square root Least number Multiply & Divide.
DO NOW 1). (6 – 2) – 2 x – 10 = 2). 15 – x = Exponents
3.5 Chain Rule.
Chapter 4-2 Power and Exponents
1.5 Combination of Functions
Multiplying and Dividing Integers
Algebraic expression to verbal statement two terms
Factoring the Sum & Difference of Two Cubes
Chapter 3 Chain Rule.
Multiplication and Division of Integers
Ch 1-2 Order of Operations
2008 Multiple Choice.
Recognize the Operation
Presentation transcript:

Chain Rule

Power Rule Product Rule Quotient Rule

We are not able to take the derivative of these functions with the power, product and quotient rules. We will be able to take the derivative of these functions using the Chain Rule To use the Chain Rule the function needs to be broken up into two functions. The next slides will demonstrate how to break up a function to use the chain rule.

I will divide these steps into two parts If I plug in a number for x what happens to it? Multiplied by 2 Add 3 Squared I will divide these steps into two parts

The part of f(x) that does the first two steps is Multiplied by 2 Add 3 Square

The part of f(x) that does the third step is Multiplied by 2 Add 3 Square

This is the inside function Multiplied by 2 Add 3 Square This is the outside function

What is the derivative of the inside function? This is the inside function What is the derivative of the inside function? What is the derivative of the outside function? This is the outside function

Inside= d(Inside)= Outside= d(Outside)= Find the inside function and outside function then find the derivative of each Inside= d(Inside)= Outside= d(Outside)=

Inside= d(Inside)= Outside= d(Outside)= Find the inside function and outside function then find the derivative of each Inside= d(Inside)= Outside= d(Outside)=

Inside= d(Inside)= Outside= d(Outside)= Find the inside function and outside function then find the derivative of each Inside= d(Inside)= Outside= d(Outside)=

The chain rule is This means The Derivative of a Composite Function is: The derivative of the outside function leaving the inside function alone, times the derivative of the inside function

The derivative of the outside function leaving the inside function alone times the derivative of the inside function Derivative of inside function Inside= d(Inside)= Outside= Derivative of outside function leaving inside function alone d(Outside)=

Inside= d(Inside)= Outside= d(Outside)= Derivative of inside function Inside= Derivative of outside function leaving inside function alone d(Inside)= Outside= d(Outside)=

Lets try some on our own.

P146 1-5,7,8

Inside= d(Inside)= Outside= d(Outside)= Derivative of inside function Inside= d(Inside)= Derivative of inside function leaving inside function alone Outside= d(Outside)=

When the last thing to happen is multiplication we need to use the product rule Use the chain rule to find the derivative of the 2nd 1st 2nd = d(1st )=3 d(2nd )

When the last thing to happen is division we need to use the quotient rule Lo= d(Hi)= d(Lo)=

Lets try some on our own.

P146 12,13,15,16

To find the derivative of the inside function I need to use the chain rule a second time.

P146 9-11,14,17-20