Contents 1 2 3 4 5 6 7 8 9 index
figures2 figures4 Contents Help
Modules  Demos  Solved Problems 

 

Chapter 3 Vector Analysis
 
 Figures
Figure 3.1: Vector A= a-hat A has a magnitude A=|A| and unit vector a-hat=A/A.
Figure 3.2: Cartesian coordinate system: (a) base vectors x-hat, y-hat, and z-hat, and (b) components of vector A.
Figure 3.3:Vector addition by (a) the parallelogram rule and (b) the head-to-tail rule.
Figure 3.4: Position vector R12=P1P2= R2 - R1.
Figure 3.5: The angle AB is the angle between A and B, measured from A to B between vector tails. The dot product is positive if 0 <= AB < 90o, as in (a), and it is negative if 90o < AB <= 180o, as in (b).
Figure 3.6: Cross product AXB points in the direction n-hat, which is perpendicular to the plane containing A and B and defined by the right-hand rule.
Figure 3.7:Geometry for Example 3-1.
Figure 3.8:Differential length, area, and volume in Cartesian coordinates.
Figure 3.9: Point P (r1, 1, z1) in cylindrical coordinates; r1 is the radial distance from the origin in the x-y plane, 1 is the angle in the x-y plane measured from the x-axis toward the y-axis, and z1 is the vertical distance from the x-y plane.
Figure 3.10:Differential areas and volume in cylindrical coordinates.
Figure 3.11:Geometry of Example 3-3.
Figure 3.12:Cylindrical surface of Example 3-4.
Figure 3.13: Point P(R1, 1, 1) in spherical coordinates.
Figure 3.14:Differential volume in spherical coordinates.
Figure 3.15:Spherical strip of Example 3-5.
Figure 3.16: Interrelationships between Cartesian coordinates (x, y, z) and cylindrical coordinates (r, , z).
Figure 3.17: Interrelationships between base vectors (x-hat, y-hat) and (r-hat, -hat).
Figure 3.18: Interrelationships between (x,y,z) and (R, , ).
Figure 3.19: Differential distance vector dl between points P1 and P2.
Figure 3.20: Flux lines of the electric field E due to a positive charge q.
Figure 3.21: Flux lines of a vector field E passing through a differential rectangular parallelepiped of volume v = x y z.
Figure 3.22: Circulation is zero for the uniform field in (a), but it is not zero for the azimuthal field in (b).
Figure 3.23: The direction of the unit vector n-hat is along the thumb when the other four fingers of the right hand follow dl.
Figure 3.24:Geometry for Example 3-12.
Figure 3.25: Arrow representation for vector field E=r-hat r (Problem 3.18).
Figure 3.26:Contours for (a) Problem 3.43 and (b) Problem 3.44.
Figure 3.27:Contour paths for (a) Problem 3.45 and (b) Problem 3.46.

Contents 1 2 3 4 5 6 7 8 9 index
figures2 figures4 Contents Help
Modules  Demos  Solved Problems 
Fawwaz T. Ulaby, Fundamentals of Applied Electromagnetics. Prentice Hall, Upper Saddle River, New Jersey, 2001. Copyright © 2001 Prentice Hall.