13. 2 Derivatives of functions given parametrically

Slides:



Advertisements
Similar presentations
Consider the function We could make a graph of the slope: slope Now we connect the dots! The resulting curve is a cosine curve. 2.3 Derivatives of Trigonometric.
Advertisements

The Chain Rule Section 3.6c.
More On The Derivative Rules
Equations of Tangent Lines
Find the slope of the tangent line to the graph of f at the point ( - 1, 10 ). f ( x ) = 6 - 4x
Derivative Review Part 1 3.3,3.5,3.6,3.8,3.9. Find the derivative of the function p. 181 #1.
DIFFERENTIATION & INTEGRATION CHAPTER 4.  Differentiation is the process of finding the derivative of a function.  Derivative of INTRODUCTION TO DIFFERENTIATION.
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.
9.1 Parametric Curves 9.2 Calculus with Parametric Curves.
Section 10.4 – Polar Coordinates and Polar Graphs.
10.5 Basic Differentiation Properties. Instead of finding the limit of the different quotient to obtain the derivative of a function, we can use the rules.
Integration in polar coordinates involves finding not the area underneath a curve but, rather, the area of a sector bounded by a curve. Consider the region.
Take the inverse Example: The derivatives of the remaining trigonometric functions — csc, sec, and cot — can also be found easily using the.
x y no x y yes.
Every slope is a derivative. Velocity = slope of the tangent line to a position vs. time graph Acceleration = slope of the velocity vs. time graph How.
§3.3 Derivatives of Trig Functions The student will learn about: Derivative formulas for trigonometric functions. 1.
10.1 Parametric Equations. In chapter 1, we talked about parametric equations. Parametric equations can be used to describe motion that is not a function.
Derivatives of Parametric Equations
12.1 Parametric Equations Math 6B Calculus II. Parametrizations and Plane Curves  Path traced by a particle moving alone the xy plane. Sometimes the.
Chapter 10 – Parametric Equations & Polar Coordinates 10.2 Calculus with Parametric Curves 1Erickson.
Product & quotient rules & higher-order derivatives (2.3) October 17th, 2012.
● one of the most important of the differentiation rules.
GOAL: USE DEFINITION OF DERIVATIVE TO FIND SLOPE, RATE OF CHANGE, INSTANTANEOUS VELOCITY AT A POINT. 3.1 Definition of Derivative.
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.
Chapter 4 Additional Derivative Topics
Basic Differentiation Rules
Powerpoint Templates Page 1 Powerpoint Templates Review Calculus.
Conics, Parametric Equations, and Polar Coordinates 10 Copyright © Cengage Learning. All rights reserved.
Chapter 3 Limits and the Derivative
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.
Aim: How do we find the derivative by limit process? Do Now: Find the slope of the secant line in terms of x and h. y x (x, f(x)) (x + h, f(x + h)) h.
Implicit differentiation (2.5) October 29th, 2012.
Tangents.
More with Rules for Differentiation Warm-Up: Find the derivative of f(x) = 3x 2 – 4x 4 +1.
Derivative Shortcuts -Power Rule -Product Rule -Quotient Rule -Chain Rule.
Section 9.2: Parametric Equations – Slope, Arc Length, and Surface Area Slope and Tangent Lines: Theorem. 9.4 – If a smooth curve C is given by the equations.
9.3: Calculus with Parametric Equations When a curve is defined parametrically, it is still necessary to find slopes of tangents, concavity, area, and.
Mean Value Theorem.
Warm Up Determine for y2 + xy + 3x = 9.
Section 11.3A Introduction to Derivatives
2.5 Implicit Differentiation
Used for composite functions
Find the equation of the tangent line for y = x2 + 6 at x = 3
MTH1170 Implicit Differentiation
Objectives for Section 11.3 Derivatives of Products and Quotients
Calculus with Parametric Curves
Chapter 11 Additional Derivative Topics
Aim: How do we determine if a function is differential at a point?
Techniques of Differentiation
By the end of Week : You would learn how to solve many problems involving limits, derivatives and integrals of vector-valued functions and questions.
Derivatives of Parametric Equations
Use Simpson's Rule with n = 10 to estimate the length of the arc of the twisted cubic {image} , from the origin to the point (3, 9, 27)
3.3 Techniques of Differentation
Trigonometric functions
5.5 Properties of the Definite Integral
Inverse Functions Rita Korsunsky.
Warmup 1).
The Chain Rule Section 3.4.
Euler's method Rita Korsunsky.
15.3: Motion Rita Korsunsky.
10.2 – Calculus with Parametric Curves
The Chain Rule Section 3.6b.
Rita Korsunsky.
5.1 Integrals Rita Korsunsky.
3.2. Definition of Derivative.
Other Indeterminate Forms
The Chain Rule Section 2.4.
More with Rules for Differentiation
Discovering the Chain Rule
Chapter 3 Additional Derivative Topics
Presentation transcript:

13. 2 Derivatives of functions given parametrically 13.2 Derivatives of functions given parametrically. Tangent Lines and Arc Lengths Rita Korsunsky

of function given parametrically Derivative of function given parametrically by x=f(t) and y= g(t) By the Chain Rule:

Example 1

Slope of the tangent line

Example 2

Example 3

Example 4 Solution: or

Example 4, continued Solution: and

Example 5

Example 6

Example 6, continued From part (a): function k that has the same graph as C in agreement with part (b)

Let’s prove it ! Theorem:

Proof: Remember?

Example 7 Solution: link

Example 8 + -