(B) A commercial 50 2 Radio Shake coaxial cable is used to carry RF signal power from a transmitter to an antenna of 300 2 as a load through flat antenna transmission line with 300 2 characterstic impedance as shown in Figure 3. The above situation would happen if we connect the coaxial cable to the antenna without a matching techinque. Determine: 1- The reflection coefficient at junction B. 2- The input impedance at point A. 3- The reflection coefficient at junction A. 4- The fraction of the reflected power. 5- The fraction of the transmitted power to the antenna.
(B) A commercial 50 2 Radio Shake coaxial cable is used to carry RF signal power from a transmitter to an antenna of 300 2 as a load through flat antenna transmission line with 300 2 characterstic impedance as shown in Figure 3. The above situation would happen if we connect the coaxial cable to the antenna without a matching techinque. Determine: 1- The reflection coefficient at junction B. 2- The input impedance at point A. 3- The reflection coefficient at junction A. 4- The fraction of the reflected power. 5- The fraction of the transmitted power to the antenna.
Introductory Circuit Analysis (13th Edition)
13th Edition
ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
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Transcribed Image Text:(B) A commercial 50 92 Radio Shake coaxial cable is used to carry RF signal power from a
transmitter to an antenna of 300 2 as a load through flat antenna transmission line with 300 2
characterstic impedance as shown in Figure 3. The above situation would happen if we connect the
coaxial cable to the antenna without a matching techinque. Determine:
1- The reflection coefficient at junction B.
2- The input impedance at point A.
3- The reflection coefficient at junction A.
4- The fraction of the reflected power.
5- The fraction of the transmitted power to the antenna.
1²=0
5052
30052
(B)
Z₁ = 30052
Figure 3
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