John L. Volakis (Greek: Ιωάννης Λ. Βολάκης) is an American engineer, educator and writer. He was born in Chios, Greece on May 13, 1956, and immigrated to the United States in 1973. He is an IEEE,[1] ACES,[2] AAAS[3] and NAI Fellow[4] and a recipient of the URSI Gold Medal.[5] He served as the IEEE Antennas and Propagation Society President (2004), and as chair and Vice Chair of the International Radio Science Union (URSI), Commission B (2017-2023).
He is a Professor of Electrical and Computer Engineering and served as the Dean of the College of Engineering and Computing at Florida International University (FIU) from 2017 to 2023. During his tenure as Dean, the college's student population grew from approximately 5,400 to 8,700, while the U.S. News and World Report graduate program rankings improved by more than 40 points to reach #61 among public universities in 2023 .[6]
John (Ioannis) Volakis was born on 13 May 1956 in Chios, Greece. He grew up in the small farming village of Olympi, part of the mastic villages located south of the island of Chios. During his early years, he enjoyed working in olive groves, wheat fields and the unique mastic trees of the region. When 12 years old, he moved to the city of Chios to attend the historic 1st gymnasium (now 1st lyceum). He immigrated to the United States in 1973, and after spending a few months in the Warren G. Harding High School to acquire a working knowledge of the English language, he went on to pursue his childhood dream of becoming an electrical engineer.
Volakis is the author of 8 books, including the Antenna Handbook,[14] which is referred to as the "antenna bible", a key book on finite element methods,[15] small antennas,[16] integral equations methods,[17] and wearable electronics.[18] He has also mentored nearly 100 doctoral candidates and postdoctoral researchers and has co-written 43 papers that were recipient of best paper awards. Volakis' research team is recognized for introducing and/or developing a hybrid finite method for microwave engineering,[19] which is now the de facto method in commercial RF design packages, novel composite materials for antennas & sensor miniaturization,[20] a new class of wideband conformal antennas and arrays with over 30:1 of contiguous bandwidth, referred to as tightly coupled dipole antennas[21] and has already garnered over 9 million citations, textile surfaces for wearable electronics and sensors, battery-less and wireless medical implants[22] for non-invasive brain signal collection, diffraction coefficients for material coated edges,[23] and model-scaled radar scattering verification methods.
Bibliography
Volakis, John Leonidas (2019). Antenna engineering handbook. Richard C. Johnson, Henry Jasik, Thomas F. Eibert, Derek M. K. Ah Yo, Rudy Emrick (Fifth ed.). New York. ISBN978-1-259-64470-2. OCLC1099661923.{{cite book}}: CS1 maint: location missing publisher (link)
Volakis, John Leonidas (2012). Integral equation methods for electromagnetics. Kubilay Sertel. Raleigh, NC: SciTech Pub. ISBN978-1-61353-112-9. OCLC842939772.
Volakis, John Leonidas (2010). Small antennas : miniaturization techniques & applications. Chi-Chih Chen, K. Fujimoto. New York: McGraw-Hill. ISBN978-0-07-162553-1. OCLC636905579.
Volakis, John Leonidas (1998). Finite element method for electromagnetics : antennas, microwave circuits, and scattering applications. A., PhD Chatterjee, Leo C. Kempel. New York: IEEE Press. ISBN978-0-7803-3425-0. OCLC38055905.
Senior, Thomas B. A. (1995). Approximate boundary conditions in electromagnetics. J. L. Volakis, Institution of Electrical Engineers. London: IET Press. ISBN978-0-85296-849-9. OCLC32509096.
Zhou, Yijun; Volakis, John L.; Chen, Chi-Chih (2010). Polymer-ceramic composites for conformal multilayer antenna/RF systems. Saarbrucken: Lap Lambert Academic Publishing. ISBN978-3-8383-7979-1. OCLC880306621.
Bayram, Yakub; Volakis, John L. (2009). Computational Methods for High Frequency Electromagnetic Interference: Theories and Applications. VDM Verlag. ISBN978-3-639-14005-7.
Volakis, John Leonidas (2006). Frequency domain hybrid finite element methods for electromagnetics. Kubilay Sertel, Brian C. Usner (First ed.). San Rafael, Calif. ISBN978-1-59829-081-3. OCLC75964772.{{cite book}}: CS1 maint: location missing publisher (link)
^Volakis, John Leonidas (1998). Finite element method for electromagnetics : antennas, microwave circuits, and scattering applications. A., PhD Chatterjee, Leo C. Kempel. New York: IEEE Press. ISBN0-7803-3425-6. OCLC38055905.
^Volakis, John L. (2010-01-01). [ Small Antennas: Miniaturization Techniques & Applications By Volakis, John L.
^Volakis, John Leonidas (2012). Integral equation methods for electromagnetics. Kubilay Sertel. Raleigh, NC: SciTech Pub. ISBN978-1-61353-112-9. OCLC842939772.
^Volakis, John L.; Chatterjee, Arindam; Kempel, Leo C. (1998-06-15). Finite Element Method Electromagnetics: Antennas, Microwave Circuits, and Scattering Applications. John Wiley & Sons. ISBN0780334256.
^Volakis, John L. (2010-01-01). [ Small Antennas: Miniaturization Techniques & Applications By Volakis, John L.
^Senior, Thomas B. A. (1995). Approximate boundary conditions in electromagnetics. J. L. Volakis, Institution of Electrical Engineers. London: Institution of Electrical Engineers. ISBN0-85296-849-3. OCLC32509096.