Antenna Handbook

Theory, Applications, and Design

  • Y. T. Lo
  • S. W. Lee

Table of contents

  1. Front Matter
    Pages i-vii
  2. Fundamentals and Mathematical Techniques

    1. Front Matter
      Pages 1-1
    2. Shung-Wu Lee
      Pages 3-51
    3. Shung-Wu Lee
      Pages 53-96
    4. Andrew J. Poggio, Edmund K. Miller
      Pages 97-194
    5. Prabhakar H. Pathak
      Pages 195-311
  3. Antenna Theory

    1. Front Matter
      Pages 313-313
    2. Edward V. Jull
      Pages 315-346
    3. Pyong Kiel Park, Chen-To Tai
      Pages 347-378
    4. Lawrence W. Rispin, David C. Chang
      Pages 379-429
    5. Constantine A. Balanis
      Pages 431-516
    6. Paul E. Mayes
      Pages 517-637
    7. William F. Richards
      Pages 639-712
    8. Yuen T. Lo
      Pages 713-803
    9. Robert S. Elliott
      Pages 805-842
    10. Robert J. Mailloux
      Pages 843-910
    11. Yuen T. Lo
      Pages 911-947
    12. Yahya Rahmat-Samii
      Pages 949-1072
    13. Jar Jueh Lee
      Pages 1073-1131
  4. Applications

    1. Front Matter
      Pages 1133-1133
    2. Felix Schwering, Arthur A. Oliner
      Pages 1135-1282
    3. Raymond Tang
      Pages 1283-1312
    4. James S. Ajioka, Jerry L. McFarland
      Pages 1313-1434
    5. Walter D. Burnside, Ronald Joseph Marhefka
      Pages 1435-1534
    6. Ching Chun Han, Yeongming Hwang
      Pages 1537-1649
    7. James Chen-Chi Shiue, Louis R. Dod
      Pages 1651-1702
    8. David A. Hill
      Pages 1703-1728
    9. Carl H. Durney, Magdy F. Iskander
      Pages 1729-1788
    10. Raymond E. Franks
      Pages 1789-1814
    11. Carl E. Smith
      Pages 1815-1861
    12. Gerald W. Collins
      Pages 1863-1903
  5. Related Topics

    1. Front Matter
      Pages 1905-1905
    2. Yi-Chi Shih, Tatsuo Itoh
      Pages 1907-1962
    3. Chao-Han Liu, Dah-Jeng Fang
      Pages 1963-2018
    4. Kelvin S. H. Lee
      Pages 2019-2050
    5. Gus P. Tricoles
      Pages 2051-2081
    6. Jørgen Appel-Hansen
      Pages 2175-2205
  6. Back Matter
    Pages 2207-2305

About this book


Techniques based on the method of modal expansions, the Rayleigh-Stevenson expansion in inverse powers of the wavelength, and also the method of moments solution of integral equations are essentially restricted to the analysis of electromagnetic radiating structures which are small in terms of the wavelength. It therefore becomes necessary to employ approximations based on "high-frequency techniques" for performing an efficient analysis of electromagnetic radiating systems that are large in terms of the wavelength. One of the most versatile and useful high-frequency techniques is the geometrical theory of diffraction (GTD), which was developed around 1951 by J. B. Keller [1,2,3]. A class of diffracted rays are introduced systematically in the GTD via a generalization of the concepts of classical geometrical optics (GO). According to the GTD these diffracted rays exist in addition to the usual incident, reflected, and transmitted rays of GO. The diffracted rays in the GTD originate from certain "localized" regions on the surface of a radiating structure, such as at discontinuities in the geometrical and electrical properties of a surface, and at points of grazing incidence on a smooth convex surface as illustrated in Fig. 1. In particular, the diffracted rays can enter into the GO shadow as well as the lit regions. Consequently, the diffracted rays entirely account for the fields in the shadow region where the GO rays cannot exist.


Standard antenna design diffraction integral equation material microwave optics phase structure structures surface transmission

Editors and affiliations

  • Y. T. Lo
    • 1
  • S. W. Lee
    • 1
  1. 1.Electromagnetics Laboratory, Department of Electrical and Computer EngineeringUniversity of Illinois-UrbanaUSA

Bibliographic information