Vector Components.

Slides:



Advertisements
Similar presentations
APPLICATION OF VECTOR ADDITION
Advertisements

SCALARS AND VECTORS. Scalar is a simple physical quantity that is not changed by coordinate system rotations or translations. Expressing a scalar quantity.
General Physics (PHYS101)
55: The Vector Equation of a Plane
50: Vectors © Christine Crisp “Teach A Level Maths” Vol. 2: A2 Core Modules.
Chapter 3 Vectors.
Vectors Vectors and Scalars Vector: Quantity which requires both magnitude (size) and direction to be completely specified –2 m, west; 50 mi/h, 220 o.
General physics 1, Lec 3, By/ T.A. Eleyan Lecture 3 Discussion.
Physics 106: Mechanics Lecture 05 Wenda Cao NJIT Physics Department.
Vector Operation and Force Analysis
Scalar and Vector Fields
Chapter 3. Vector 1. Adding Vectors Geometrically
Definitions Examples of a Vector and a Scalar More Definitions
Starter If the height is 10m and the angle is 30 degrees,
Vectors Vector: a quantity that has both magnitude (size) and direction Examples: displacement, velocity, acceleration Scalar: a quantity that has no.
Chapter 3 Vectors.
Phys211C1V p1 Vectors Scalars: a physical quantity described by a single number Vector: a physical quantity which has a magnitude (size) and direction.
Objective: Find the components of a vector.. Number plane, or Cartesian coordinate system – a plane determined by the horizontal line called the x- axis.
Chapter 3 Vectors Coordinate Systems Used to describe the position of a point in space Coordinate system consists of A fixed reference point called.
Vectors A vector is a quantity that is characterized by both magnitude and direction. Vectors are represented by arrows. The length of the arrow represents.
Introduction and Vectors
Adding Vectors, Rules When two vectors are added, the sum is independent of the order of the addition. This is the Commutative Law of Addition.
Physics Vectors Javid.
H.Melikyan/12001 Vectors Dr.Hayk Melikyan Departmen of Mathematics and CS
Vector Addition. What is a Vector A vector is a value that has a magnitude and direction Examples Force Velocity Displacement A scalar is a value that.
Chapter 3 Vectors. Coordinate Systems Used to describe the position of a point in space Coordinate system consists of a fixed reference point called the.
Vector Quantities Vectors have ▫magnitude ▫direction Physical vector quantities ▫displacement ▫velocity ▫acceleration ▫force.
The Wrench: Let’s suppose that we have already reduced a complicated force system to single (resultant ) force,, and a single couple with the moment,,
Finding the Magnitude of a Vector A vector is a quantity that has both magnitude and direction. In this lesson, you will learn how to find the magnitude.
Vectors Vectors are represented by a directed line segment its length representing the magnitude and an arrow indicating the direction A B or u u This.
Higher Mathematics Unit 3.1 Vectors 1. Introduction A vector is a quantity with both magnitude and direction. It can be represented using a direct.
Chapter 3 Vectors. Coordinate Systems Used to describe the position of a point in space Coordinate system consists of a fixed reference point called the.
January 23, 2006Vectors1 Directions – Pointed Things January 23, 2005.
Solving Problems.
Review: Analysis vector. VECTOR ANALYSIS 1.1SCALARS AND VECTORS 1.2VECTOR COMPONENTS AND UNIT VECTOR 1.3VECTOR ALGEBRA 1.4POSITION AND DISTANCE VECTOR.
Starter If you are in a large field, what two pieces of information are required for you to locate an object in that field?
Complex Numbers. 1 August 2006 Slide 2 Definition A complex number z is a number of the form where x is the real part and y the imaginary part, written.
Midterm Review  Five Problems 2-D/3-D Vectors, 2-D/3-D equilibrium, Dot Product, EoE, Cross Product, Moments  Closed Book & Note  Allowed to bring.
Chapter 3 Vectors. Vector quantities  Physical quantities that have both numerical and directional properties Mathematical operations of vectors in this.
Vectors Vector: a quantity that has both magnitude (size) and direction Examples: displacement, velocity, acceleration Scalar: a quantity that has no.
Chapter 3 Vectors. Coordinate Systems Used to describe the ___________of a point in space Coordinate system consists of – A fixed _____________point called.
Monday, February 2, 2004PHYS , Spring 2004 Dr. Andrew Brandt 1 PHYS 1443 – Section 501 Lecture #4 Monday, Feb. 2, 2004 Dr. Andrew Brandt Motion.
Mathematics Vectors 1 This set of slides may be updated this weekend. I have given you my current slides to get you started on the PreAssignment. Check.
Vectors.
Vectors Some quantities can be described with only a number. These quantities have magnitude (amount) only and are referred to as scalar quantities. Scalar.
Copyright © 2010 Pearson Education Canada 9-1 CHAPTER 9: VECTORS AND OBLIQUE TRIANGLES.
STROUD Worked examples and exercises are in the text Programme 6: Vectors VECTORS PROGRAMME 6.
Component of vector A along the direction of B A B Project A onto B: Drop perpendiculars to B This component is positive A B This component is negative.
Vectors Vectors and Scalars Properties of vectors Adding / Sub of vectors Multiplication by a Scalar Position Vector Collinearity Section Formula.
Chapter 3 Lecture 5: Vectors HW1 (problems): 1.18, 1.27, 2.11, 2.17, 2.21, 2.35, 2.51, 2.67 Due Thursday, Feb. 11.
Physics 141Mechanics Lecture 3 Vectors Motion in 2-dimensions or 3-dimensions has to be described by vectors. In mechanics we need to distinguish two types.
STROUD Worked examples and exercises are in the text PROGRAMME 6 VECTORS.
Vectors 1] Vector A is 3.00 units in length and points along the positive x axis. Vector B is 4.00 units in length and points along the negative y axis.
Vectors & Scalars Physics 11. Vectors & Scalars A vector has magnitude as well as direction. Examples: displacement, velocity, acceleration, force, momentum.
Chapter 3 Vectors. Vector quantities  Physical quantities that have both numerical and directional properties Mathematical operations of vectors in this.
Vectors Some quantities can be described with only a number. These quantities have magnitude (amount) only and are referred to as scalar quantities. Scalar.
Vectors (Knight: 3.1 to 3.4).
Chapter 3 Vectors.
Outline Addition and subtraction of vectors Vector decomposition
Vectors.
Scalars and Vectors.
Chapter 3 Vectors.
Chapter 3 Vectors.
/s Fig. P3.18, p.72.
Kinematics The Component Method.
Week 2 Vectors in Physics.
Right Triangles and Trigonometry
“Equations and Inequalities”
Presentation transcript:

Vector Components

Addition of multiple vectors via the graphical solution is complex B E It’s easier to use the mathematical method that will be described now

Mathematical Method All vectors are placed on the origin of a Cartesian Coordinates System. Each Vector is replaced with it components X Y B C D A

The vector components of vector A are two perpendicular vectors Ax and Ay that are parallel to X and Y axis respectively, add their resultant vector is equal to A. y  x

Calculation of vector components Module Pythagoras Note that the angle is not always marked relative to positive X axis direction Y θ X

Calculate vector A components Example Calculate vector A components x y

Vector representation depend on the chosen coordinate system (CS) Vector representation depend on the chosen coordinate system (CS). Different CS does not change the vector, but only it’s representation x y  x’ y’  ax ay ax’ ay’ The vector magnitude is independent of the CS, hence we have freedom to select the CS to ease the calculation

Vector addition, is done by adding the respective components β θ X Sum of the respective components yield the resultant vector components, hence we can find the resultant vector

Y β θ X

The unit vector is marked with a ^ sign above the letter לסימן קוראים בשם "כובע" או "גג"

It is described by it’s components as any vector. Unit vector is a vector the has a magnitude of 1 with no units, and has a direction It is described by it’s components as any vector.

Representing a vector by it’s components is as follows: The CS unit vectors are unit vectors pointing parallel to the X,Y and Z axes: x, y, z z y x Representing a vector by it’s components is as follows:

Determine unit vector components of A Draw the vector on the CS z Determine a vector which is the same direction of vector A but has a magnitude of 1 y x

Magnitude of A z y x

Divide each component by the vector magnitude, results in a unit vector having same direction a vector A x y z

Check your understanding x y 3 cm A B 6 cm 450 Calculate: The components of vectors A and B The resultant vector components The resultant vector magnitude and direction Find the unit vector parallel to the resultant vector A vector with magnitude 10 that is parallel to the resultant vector

The components of vectors A and B y B 6 cm 450 x 3 cm

The resultant vector components y B 6 cm 450 x 3 cm

The resultant vector magnitude and direction y 4.37 4.2 740 x -1.2 Above Negative X Axis

Find the unit vector parallel to the resultant vector y 4.37 4.2 740 x -1.2

A vector with magnitude 10 that is parallel to the resultant vector Unit vector parallel to resultant vector

The End!