© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 1, Lecture C Approximate Running Time - 14 minutes Distance Learning.

Slides:



Advertisements
Similar presentations
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR Introduction to Complex Numbers, Standard Form Approximate Running Time.
Advertisements

© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 2, Lecture G Approximate Running Time - 17 minutes Distance Learning.
© 2006 Baylor University EGR 1301 Slide 1 Lecture 4 Introduction to Engineering Approximate Running Time - 16 minutes Distance Learning / Online Instructional.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR Polar Form of a Complex Number Approximate Running Time - 18 minutes Distance.
© 2006 Baylor University EGR 1301 Slide 1 Lecture 6 Introduction to Engineering Approximate Running Time - 19 minutes Distance Learning / Online Instructional.
© 2006 Baylor University EGR 1301 Slide 1 Lecture 5 Introduction to Engineering Approximate Running Time - 15 minutes Distance Learning / Online Instructional.
© 2006 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 4, Lecture F Approximate Running Time is 21 Minutes Distance Learning.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 1, Lecture B Approximate Running Time - 24 minutes Distance Learning.
© 2005 Baylor University EGR 1301 Slide 1 Lecture 21 Introduction to Engineering Approximate Running Time - 23 minutes Distance Learning / Online Instructional.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 2, Lecture F Approximate Running Time - 15 minutes Distance Learning.
Matrices & Systems of Linear Equations
© 2006 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 4, Lecture G Approximate Running Time is 9 Minutes Distance Learning.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 2, Lecture E Approximate Running Time - 31 minutes Distance Learning.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 3, Lecture F Approximate Running Time is 29 Minutes Distance Learning.
Solving Linear Equations Rule 7 ‑ 1: We can perform any mathematical operation on one side of an equation, provided we perform the same operation on the.
Introduction to Fluid Mechanics
4.7 Identity and Inverse Matrices. What is an identity? In math the identity is the number you multiply by to have equivalent numbers. For multiplication.
Using Inverse Matrices Solving Systems. You can use the inverse of the coefficient matrix to find the solution. 3x + 2y = 7 4x - 5y = 11 Solve the system.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR Determinants Approximate Running Time - 22 minutes Distance Learning /
Chapter 7 Section 4. Objectives 1 Copyright © 2012, 2008, 2004 Pearson Education, Inc. Adding and Subtracting Rational Expressions Add rational expressions.
© 2006 Baylor University EGR 1301 Slide 1 Lab 8 Predicting Strength of Trusses Approximate Running Time – 20 minutes Distance Learning / Online Instructional.
© 2006 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 4, Lecture D Approximate Running Time is 25 Minutes Distance Learning.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Lecture 20 - Cross Product Approximate Running Time is 25 Minutes.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 1, Lecture F Approximate Running Time - 24 minutes Distance Learning.
© 2006 Baylor University Slide 1 Introduction to Fluid Mechanics Bellagio Fountain.
© 2005 Baylor University Slide 1 Course Introduction Fundamentals of Engineering Analysis Approximate Running Time - 5 minutes Distance Learning / Online.
Academy Algebra II/Trig
© 2006 Baylor University EGR 1301 Slide 1 Lecture 18 Statistics Approximate Running Time - 30 minutes Distance Learning / Online Instructional Presentation.
© 2006 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 4, Lecture E Approximate Running Time is 20 Minutes Distance Learning.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 3, Lecture C Approximate Running Time is 24 Minutes Distance Learning.
4.7 Identity and Inverse Matrices and Solving Systems of Equations Objectives: 1.Determine whether two matrices are inverses. 2.Find the inverse of a 2x2.
Algebra 3: Section 5.5 Objectives of this Section Find the Sum and Difference of Two Matrices Find Scalar Multiples of a Matrix Find the Product of Two.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR Adjoint Matrix and Inverse Solutions, Cramer’s Rule.
© 2006 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 4, Lecture A Approximate Running Time is 22 Minutes Distance Learning.
Dear Power point User, This power point will be best viewed as a slideshow. At the top of the page click on slideshow, then click from the beginning.
© 2006 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 4, Lecture C Approximate Running Time is 19 Minutes Distance Learning.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 1, Lecture E Approximate Running Time - 7 minutes Distance Learning.
Fundamentals of Engineering Analysis
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR Introduction to Matrices Approximate Running Time - 12 minutes Distance.
Dr. Shildneck Fall, 2015 SOLVING SYSTEMS OF EQUATIONS USING MATRICES.
2.5 Determinants and Multiplicative Inverses of Matrices. Objectives: 1.Evaluate determinants. 2.Find the inverses of matrices. 3.Solve systems of equations.
BELL-WORK Solve the system of equations using matrices:
MAT111 epw 11/1/061 ALGEBRA REVIEW Three Basic Rules.
Use Inverse Matrices to Solve Linear Systems Objectives 1.To find the inverse of a square matrix 2.To solve a matrix equation using inverses 3.To solve.
Algebra 1 Section 3.1 Solve equations using addition and subtraction Consider the balance… Transformations that produce equivalent equations. 1.Add the.
Downhill product – Uphill product.
Use Inverse Matrices to Solve Linear Systems
Lecture 21 - Electrical Engineering - Part 1
2-2 Solving One-Step Equations
Review Problems Matrices
Fundamentals of Engineering Analysis
Approximate Running Time is 29 Minutes
Fundamentals of Engineering Analysis
Mr. Peter Richard Must have your Un-Divided Attention!!
Section 7.4 Matrix Algebra.
Warmup: Find the product, if possible. −6 4 − 
Fundamentals of Engineering Analysis
Use Inverse Matrices to Solve Linear Systems
Solving Linear Systems Using Inverse Matrices
Unit 3: Matrices
( ) ( ) ( ) ( ) Matrices Order of matrices
Fundamentals of Engineering Analysis
2-2 Solving One-Step Equations
ARRAY DIVISION Identity matrix Islamic University of Gaza
College Algebra Chapter 6 Matrices and Determinants and Applications
1.11 Use Inverse Matrices to Solve Linear Systems
Adding and Subtracting Rational Expressions
Fundamentals of Engineering Analysis
Solving Linear Systems of Equations - Inverse Matrix
Presentation transcript:

© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 1, Lecture C Approximate Running Time - 14 minutes Distance Learning / Online Instructional Presentation Presented by Department of Mechanical Engineering Baylor University Procedures: 1.Select “Slide Show” with the menu: Slide Show|View Show (F5 key), and hit “Enter” 2.You will hear “CHIMES” at the completion of the audio portion of each slide; hit the “Enter” key, or the “Page Down” key, or “Left Click” 3.You may exit the slide show at any time with the “Esc” key; and you may select and replay any slide, by navigating with the “Page Up/Down” keys, and then hitting “Shift+F5”.

© 2005 Baylor University Slide 2 Solving Systems of Linear Equations The Inverse Matrix A nxn and B nxn are Square Matrices of the same Order. A * B = I n B * A = I n B is called “The Inverse of A” B = A -1 A * A -1 = I in Algebra, the equivalent is

© 2005 Baylor University Slide 3 Solving Systems of Linear Equations Sum of Products The same equation can represent any Order.

© 2005 Baylor University Slide 4 ( ) Solving this System for x 1, x 2 Becomes Subtract

© 2005 Baylor University Slide 5 Solving this System for x 1, x 2 (cont.) Sum of Products A new Matrix “C” factor out the denominator

© 2005 Baylor University Slide 6 We now have a solution for the Inverse of a 2x2 Matrix The Solution to

© 2005 Baylor University Slide 7 The Determinant The Determinant of A =

© 2005 Baylor University Slide 8 Rules for Finding the Inverse of a 2x2 Matrix Rule 1: Swap the Main Diagonal Rule 2: Change Signs on the Back Diagonal Rule 3: Divide by the Determinant

© 2005 Baylor University Slide 9 Review of the Solution to a 2x2 System Is solved by If there is no solution Stay Tuned!

© 2005 Baylor University Slide 10 A Numerical Example Becomes

© 2005 Baylor University Slide 11 This concludes Unit 1, Lecture C