“i” Love π Flavored Series

Slides:



Advertisements
Similar presentations
SEQUENCES and INFINITE SERIES
Advertisements

Power Series is an infinite polynomial in x Is a power series centered at x = 0. Is a power series centered at x = a. and.
Half-angle formulae Trigonometry.
INFINITE SEQUENCES AND SERIES
Math Calculus I August 9 (but first, a quick review…)
Writing the Equation of a Circle We will be using the completing the square method for this, so lets remember…
Techniques of Integration
Graphing (Method for sin\cos, cos example given) Graphing (Method for cot) Graphing (sec\csc, use previous cos graph from example above) Tangent Graphing,
Chapter 9 Numerical Integration Flow Charts, Loop Structures Copyright © The McGraw-Hill Companies, Inc. Permission required for reproduction or display.
UNIT 9: GEOMETRY – 6 TH GRADE LESSON 5: AREA OF A CIRCLE.
11.1 SEQUENCES Spring 2010 Math 2644 Ayona Chatterjee.
Section 5.7: Additional Techniques of Integration Practice HW from Stewart Textbook (not to hand in) p. 404 # 1-5 odd, 9-27 odd.
Remainder Estimation Theorem
Infinite Sequences and Series 8. Taylor and Maclaurin Series 8.7.
9.5 Part 1 Ratio and Root Tests
In section 11.9, we were able to find power series representations for a certain restricted class of functions. Here, we investigate more general problems.
This is an example of an infinite series. 1 1 Start with a square one unit by one unit: This series converges (approaches a limiting value.) Many series.
9.3 Taylor’s Theorem: Error Analysis yes no.
Trigonometry Chapters Theorem.
Do Now: given the equation of a circle x 2 + y 2 = 1. Write the center and radius. Aim: What is the unit circle? HW: p.366 # 4,6,8,10,18,20 p.367 # 2,4,6,8.
1 Chapter 9. 2 Does converge or diverge and why?
Section 8-5 Solving More Difficult Trigonometric Functions.
Objectives: 1.To construct all aspects of the unit circle (angles and points) 2.To use the unit circle to find the values of trig functions. Assignment:
AP Calculus 3.2 Basic Differentiation Rules Objective: Know and apply the basic rules of differentiation Constant Rule Power Rule Sum and Difference Rule.
Calculus, Section 1.4.
Review of radian measure.
Trigonometric Identities
Essential Knowledge Recap
Copyright © Cengage Learning. All rights reserved.
DIFFERENTIATION RULES.
The Inverse Sine, Cosine and Tangent Functions
WARM UP By composite argument properties cos (x – y) =
AP Physics C.
Ch. 5 – Applications of Derivatives
Carlos Xudiera November 30, 2011
Ch. 5 – Analytic Trigonometry
Section 11.3 – Power Series.
s= mt+constant where m=Ds/Dt i.e., speed
Graphs of Sine and Cosine Functions
Fundamental Identities
Differentiation with Trig – Outcomes
Trigonometric Identities
Some types of POLAR CURVES Part 2.
Stuff you MUST know Cold for the AP Calculus Exam
Taylor Polynomials & Approximation (9.7)
Stuff you MUST know Cold for the AP Calculus Exam
Fourier Integrals For non-periodic applications (or a specialized Fourier series when the period of the function is infinite: L) -L L -L- L
Trigonometric Equations with Multiple Angles
Graphing Trigonometric Functions
Section 11.3 Power Series.
5-3 Tangent of Sums & Differences
Find sec 5π/4.
4.2: The Unit Circle Objectives:
Copyright © Cengage Learning. All rights reserved.
5.1 Power Series Method Section 5.1 p1.
Taylor’s Theorem: Error Analysis for Series
Six Gems for AS Further Pure Mathematics
11.10 – Taylor and Maclaurin Series
Sum and Difference Formulas
3.8 Newton’s Method How do you find a root of the following function without a graphing calculator? This is what Newton did.
Warm-Up!
4.1 – Graphs of the Sine and Cosine Functions
Trigonometry. Trigonometry More Trig Triangles.
This is called the Unit Circle
Warm Up Sketch one cycle of the sine curve:
The Constant Rule m = 0 The derivative of a constant function is 0.
Right Triangles and Trigonometry
Circumference of circle Application
1 Newton’s Method.
Presentation transcript:

“i” Love π Flavored Series By David Monroe and Daniel Newton

BEFORE WE BEGIN Don’t worry, we will not go crazy in depth Feel free to do research on your own afterwards Save “bigger picture” questions until our quick break

Introduction: π, i, and What are they? What are their values? Does the square root of a negative number have use? Why mention them together? Why does e^(i*π)+1=0? Pi is the constant found when the circumference of a circle is divided by its diameter. It is estimated to be 3.14159265. i is the constant used when taking the square root of negative 1. Square roots of negative numbers aren’t real. We mention them together in order to find the equation listed above.

What are series, and why are they important? Are infinite series infinite, and what does it mean to converge? Series are a summation of functions and are important because they are easier to use than other functions Convergence means the terms are getting small enough that we do not get infinity Ex of divergence and convergence: Gabriel’s horn/Geometric series

How do they relate to series? Derivatives So what is a derivative? How do they relate to series? A derivative is the instantaneous slope of a function at a particular point on the graph. With Taylor series, we take the nth derivative of the function for the polynomial expansion. Explain why e^x’s derivative is e^x.

Why do we care about them? Does this relate to derivatives or series? Trigonometry Another thing to learn? Why do we care about them? Does this relate to derivatives or series? Trigonometry is the study of angles. We use sin, cos, and tan to explain how the angles of shapes relate to one another. We care about them because sin, cos, and tan become very important in derivatives and series.

Questions and Cookie Pizza π What questions do you have so far? Let us discuss them over a slice of π! 10-15 minutes

Piecing it all together Relating this to e, π, and i Back to Series Piecing it all together Relating this to e, π, and i https://www.desmos.com/calculator/g okjepwgi6 We can approximate functions with derivatives. Explain factorials quickly. And obviously, piece all of our topics together. The link goes to show the taylor series of sine cosine and e, here we show how these polynomials can add up to our functions.

Taylor Series What make a series a Taylor series? How does this relate sin and cosine to this?

Common Taylor Series Here are common taylor series

The Derivation (The Main Event!) Here is our culmination of everything we have learned. This is where we prove e^(i*pi)+1=0.

So what? What else? Final thoughts? Discussion Series are easier to work with compared to complicated functions or functions we don’t know For e^i(theta) we use it for rotation in 2D, Fun fact if we want rotation in 3D with a similar method we need four dimensions