© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 2, Lecture F Approximate Running Time - 15 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

Example 1 Matrix Solution of Linear Systems Chapter 7.2 Use matrix row operations to solve the system of equations  2009 PBLPathways.
© 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 Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 1, Lecture C Approximate Running Time - 14 minutes Distance Learning.
© 2005 Baylor University EGR 1301 Slide 1 Lecture 21 Introduction to Engineering Approximate Running Time - 23 minutes Distance Learning / Online Instructional.
© 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.
Introduction to Fluid Mechanics
Systems of Linear Equations
Chapter 1 Linear Equations and Graphs Section 2 Graphs and Lines.
Table of Contents Solving Linear Systems of Equations - Substitution Method Recall that to solve the linear system of equations in two variables... we.
Lines and Planes in Space
Table of Contents Solving Linear Systems of Equations - Graphing Method Recall that to solve the linear system of equations in two variables... we need.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR Determinants Approximate Running Time - 22 minutes Distance Learning /
© 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.
Introduction A system of equations is a set of equations with the same unknowns. A quadratic-linear system is a system of equations in which one equation.
© 2006 Baylor University EGR 1301 Slide 1 Lecture 18 Statistics Approximate Running Time - 30 minutes Distance Learning / Online Instructional Presentation.
System of equations and Inequalities….! By Cory Hunter.
© 2006 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 4, Lecture E Approximate Running Time is 20 Minutes Distance Learning.
Specialist Maths Vectors and Geometry Week 4. Lines in Space Vector Equation Parametric Equations Cartesian Equation.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 3, Lecture C Approximate Running Time is 24 Minutes Distance Learning.
© 2006 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 4, Lecture A Approximate Running Time is 22 Minutes Distance Learning.
11.5 Day 2 Lines and Planes in Space. Equations of planes.
Systems of Linear Equations Using a Graph to Solve.
Solving Linear Systems of Equations - Substitution Method Recall that to solve the linear system of equations in two variables... we need to find the value.
Systems of Linear Equations Using a Graph to Solve.
© 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.
© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR Introduction to Matrices Approximate Running Time - 12 minutes Distance.
2010.  A first degree equation is called a linear equation in two variables if it contains two distinct variables.
1 Section 5.3 Linear Systems of Equations. 2 THREE EQUATIONS WITH THREE VARIABLES Consider the linear system of three equations below with three unknowns.
Solving Linear Systems by Substitution
The point P belongs to the plane π if the vector Vector is coplanar with the vectors and Vector Equation of the Plane.
Lecture 21 - Electrical Engineering - Part 1
Chapter 1 Linear Equations and Graphs
Chapter 1 Linear Equations and Graphs
Do Now  .
11.5 Day 2 Lines and Planes in Space
Do Now Solve the following systems by what is stated: Substitution
Solving System of Linear Equations
6.1 Solving Systems of Linear Equations by Graphing
Fundamentals of Engineering Analysis
We will be looking for a solution to the system of linear differential equations with constant coefficients.
Solving Linear Systems of Equations - Graphing Method
Fundamentals of Engineering Analysis
Systems of Equations Solving by Graphing.
Fundamentals of Engineering Analysis
By the end of Week 3: You would learn how to solve many problems involving lines/planes and manipulate with different coordinate systems. These are.
Lesson 83 Equations of Planes.
Solve Systems of Linear Inequalities
Systems of Equations Solving by Graphing.
Systems of Equations Solve by Graphing.
Chapter 1 Linear Equations and Graphs
Functions in the Coordinate Plane
Possible Intersection of Straight Lines
Fundamentals of Engineering Analysis
SYSTEM OF LINEAR EQUATIONS
Presentation transcript:

© 2005 Baylor University Slide 1 Fundamentals of Engineering Analysis EGR 1302 Unit 2, Lecture F Approximate Running Time - 15 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 Vector Equation of a Plane The Intercept Form The Linear Equation in 3-D is the Cartesian Equation of a Plane. Three points define a plane in 3-D Recall the Coplanar Vector Relationship The Vector Equation of a Plane or

© 2005 Baylor University Slide 3 The Cartesian equation of this plane: Equation of a Plane Example Given three points Substitute Write the equation for each coordinate The vector equation of a plane: Substitute or

© 2005 Baylor University Slide 4 Equation of a Plane - Matrix Method Given three points: Since A, B, C each are in the plane, their coordinates each satisfy the plane equation, using the Intercept Form: The Cartesian Equation of a Plane. or solve the three equations for the three unknown coefficients or gives: substituting:

© 2005 Baylor University Slide 5 Equation of a Plane - 4x4 Determinant Method or Three-Point Form Given three points: Create a 4x4 Determinant, using the Intercept Form: by Row Expansion: Note that the two matrix methods do not work for specialized planes, but the vector equation will always work or {

© 2005 Baylor University Slide 6 Three Methods for Equation of a Plane Solution of linear equations, using the Intercept Form: 4x4 Determinant Method, using the Intercept Form: Given three points, A, B, C in 3-D space Substitute into the vector equation of a plane: To obtain the Cartesian Equation of a Plane:

© 2005 Baylor University Slide 7 Picking a determines the place on the Line Parametric Vector Equation of a Line Given any two points, A, B in 3-D space The Parametric Vector Equation of a Line in 3-D:

© 2005 Baylor University Slide 8 Cartesian Equation of a Line also a form of the parametric vector equation of a line solve for : equating: In 3-D, the Cartesian equation of a line is the intersection of two plane equations. The Cartesian Equation of a Line in 3-D Expand the parametric vector equation to three equations

© 2005 Baylor University Slide 9 Equation of a Line Example Given two points: Cartesian form: parametric vector form:

© 2005 Baylor University Slide 10 This concludes Unit 2, Lecture F