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Cover image for Antenna engineering using physical optics : practical CAD techniques and software
Title:
Antenna engineering using physical optics : practical CAD techniques and software
Personal Author:
Publication Information:
Boston, Mass. : Artech House, 1996
Physical Description:
1v. + 1 computer disk (DSK 1574)
ISBN:
9780890067321
Added Author:

Available:*

Library
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Material Type
Item Category 1
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30000004686873 TK7871.6 D53 1996 Open Access Book Book
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Summary

Summary

Shows how to combine physical optics modelling techniques with the free space dyadic Green's function to quickly calculate antenna patterns and diffraction from nearby objects. This work also shows how to apply basic routines to focus more time on the actual solution of antenna radiation problems.


Author Notes

Leo Diaz received his M.S. in electrical engineering from Polytechnic Institute, New York.

Diaz is a staff consultant at Ball Telecommunications Products Division, Broomfield, CO.

050


Table of Contents

Overview: Introduction
Physical Optics and Dyadic Green Function
Matlab Organization
Fortran Organization
Near and Far Field with Vector Propagators
Relation Between Gain and Radiated Field Strength
Assumed Currents on Antenna Elements
Diffraction-Excitation of Currents on Nearby Ground Planes
Parabolic Reflectors
Radar Cross Section
Propagation: Green's Function Formulation
Scalar Green's Function
Dyadic Green's Function
Near and Far Field Regions
Vector Propagator
Radiated Power
Appendix 2.1 Useful Mathematical Identities
Appendix 2.2 Notes on the Derivation of the Dyadic Green's Functions
Appendix 2.3 FORTRAN Subroutines
Arrays and Small Antenna Elements: Introduction
Gain Related to Field Strength
Antenna Arrays
Dipole
Active Pattern, Active Impedance, and Gain of Array
Slots
Microstrip Patch Antennas
Pattern Approximations
Coordinate Rotations
Input from Measured Patterns
Apertures: Equivalence Principle
Equivalent Currents
Aperture Antennas
Pyramidal Horn
Conical Horn
Diffraction: Edge Diffraction
Planar Impedance-Surface Ground Plane
Coated Ground Plane
Direct Currents Method
Hemisphere Diffraction Method for Finite Circular Disks
Diffraction Calculations Using Pyramid Approach
Other Antenna Diffraction Effects
Reflector Antennas: Equivalent Surface at Reflector Surface
Simple Reflector Analysis
Spillover
Blockage
Strut Scattering
Multiple Reflectors
Array Feeding of Reflector
Appendix 6.1 MATLAB Coordinate Rotations
Appendix 6.2 FORTRAN Subroutines for Arbitrary Rim Shapes
Appendix 6.3 FORTRAN Routines for Feeds Using Pattern Approximations
Appendix 6.4 FORTRAN Routines Using Measured Feed Pattern
Radar
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