Broadband tapered slot antennas monolithically integrated on ion damaged silicon‐on‐sapphire substrates are driven by picosecond photoconductivity to generate and detect millimeter waves. The time‐dependent electromagnetic impulse response of these transceivers is modeled by relating the antenna structure and the shape of the exciting pulse. The far‐field response is observed to consist of a traveling‐wave component and a standing‐wave component, which is also predicted by the model.
REFERENCES
1.
D. H.
Auston
, K. P.
Cheung
, and P. R.
Smith
, Appl. Phys. Lett.
45
, 284
(1984
).2.
J. R.
Karin
, P. M.
Downey
, and R. J.
Martin
, IEEE J. Quantum Electron.
QE‐22
, 677
(1986
).3.
R.
Heidmann
, TH.
Pfeiffer
, and D.
Jagger
, Electron. Lett.
19
, 316
(1983
).4.
A. P. DeFonzo, C. Lutz, and M. Jarwala, IEEE/OSA Conference on Picosecond Electronics (Springer, New York, 1987).
5.
K. L.
Sala
, G. A.
Kenney‐Wallace
, and G. E.
Hall
, IEEE J. Quantum Electron.
QE‐16
, 990
(1980
).6.
D. H.
Auston
, A. M.
Johnson
, and J. C.
Bean
, Appl. Phys. Lett.
37
, 371
(1980
).7.
D. L. Sengupta and C. T. Tai, in Transient Electromagnetic Field, edited by L. D. Felson (Springer, New York, 1976), pp. 181–235.
8.
D. H. Schaubert, Measurements of the Impulse Response of Communication Antennas, Harry Diamond Laboratory‐Technical Report‐1832, Nov. 1974.
9.
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© 1987 American Institute of Physics.
1987
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