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FCC ADVANCED Exam Question Pool. Subelement 4AE. Electrical Principles. 10 Questions. --------------------------------------------------- 4AE 1.1 A What is reactive power? A. Wattless, non-productive power B. Power consumed in wire resistance in an inductor C. Power lost because of capacitor leakage D. Power consumed in circuit Q 4AE 1.2 D What is the term for an out-of-phase, non-productive power associated with inductors and capacitors? A. Effective power B. True power C. Peak envelope power D. Reactive power 4AE 1.3 A What is the term for energy that is stored in an electromagnetic or electrostatic field? A. Potential energy B. Amperes-joules C. Joules-coulombs D. Kinetic energy 4AE 1.4 B What is responsible for the phenomenon when voltages across reactances in series can often be larger than the voltages applied to them? A. Capacitance B. Resonance C. Conductance D. Resistance 4AE 2.1 C What is resonance in an electrical circuit? A. The highest frequency that will pass current B. The lowest frequency that will pass current C. The frequency at which capacitive reactance equals inductive reactance D. The frequency at which power factor is at a minimum 4AE 2.2 B Under what conditions does resonance occur in an electrical circuit? A. When the power factor is at a minimum B. When inductive and capacitive reactances are equal C. When the square root of the sum of the capacitive and inductive reactances is equal to the resonant frequency D. When the square root of the product of the capacitive and inductive reactances is equal to the resonant frequency 4AE 2.3 D What is the term for the phenomena which occurs in an electrical circuit when the inductive reactance equals the capacitive reactance? A. Reactive quiescence B. High Q C. Reactive equilibrium D. Resonance 4AE 2.4 B What is the approximate magnitude of the impedance of a series R-L-C circuit at resonance? A. High, as compared to the circuit resistance B. Approximately equal to the circuit resistance C. Approximately equal to XL D. Approximately equal to XC 4AE 2.5 A What is the approximate magnitude of the impedance of a parallel R-L-C circuit at resonance? A. Approximately equal to the circuit resistance B. Approximately equal to XL C. Low, as compared to the circuit resistance D. Approximately equal to XC 4AE 2.6 B What is the characteristic of the current flow in a series R-L-C circuit at resonance? A. It is at a minimum B. It is at a maximum C. It is DC D. It is zero 4AE 2.7 B What is the characteristic of the current flow in a parallel R-L-C circuit at resonance? A. The current circulating in the parallel elements is at a minimum B. The current circulating in the parallel elements is at a maximum C. The current circulating in the parallel elements is DC D. The current circulating in the parallel elements is zero 4AE 3.1 A What is the skin effect? A. The phenomenon where RF current flows in a thinner layer of the conductor, close to the surface, as frequency increases B. The phenomenon where RF current flows in a thinner layer of the conductor, close to the surface, as frequency decreases C. The phenomenon where thermal effects on the surface of the conductor increase the impedance D. The phenomenon where thermal effects on the surface of the conductor decrease the impedance 4AE 3.2 C What is the term for the phenomenon where most of an RF current flows along the surface of the conductor? A. Layer effect B. Seeburg Effect C. Skin effect D. Resonance 4AE 3.3 A Where does practically all of the RF current flow in a conductor? A. Along the surface B. In the center of the conductor C. In the magnetic field around the conductor D. In the electromagnetic field in the conductor center 4AE 3.4 A Why does practically all of an RF current flow within a few thousandths-of- an-inch of the conductor's surface? A. Because of skin effect B. Because the RF resistance of the conductor is much less than the DC resistance C. Because of heating of the metal at the conductor's interior D. Because of the AC-resistance of the conductor's self inductance 4AE 3.5 C Why is the resistance of a conductor different for RF current than for DC? A. Because the insulation conducts current at radio frequencies B. Because of the Heisenburg Effect C. Because of skin effect D. Because conductors are non-linear devices 4AE 4.1 B What is a magnetic field? A. Current flow through space around a permanent magnet B. A force set up when current flows through a conductor C. The force between the plates of a charged capacitor D. The force that drives current through a resistor 4AE 4.2 D In what direction is the magnetic field about a conductor when current is flowing? A. In the same direction as the current B. In a direction opposite to the current flow C. In all directions; omnidirectional D. In a direction determined by the left hand rule 4AE 4.3 C What device is used to store electrical energy in an electrostatic field? A. A battery B. A transformer C. A capacitor D. An inductor 4AE 4.4 B What is the term used to express the amount of electrical energy stored in an electrostatic field? A. Coulombs B. Joules C. Watts D. Volts 4AE 4.5 B What factors determine the capacitance of a capacitor? A. Area of the plates, voltage on the plates and distance between the plates B. Area of the plates, distance between the plates and the dielectric constant of the material between the plates C. Area of the plates, voltage on the plates and the dielectric constant of the material between the plates D. Area of the plates, amount of charge on the plates and the dielectric constant of the material between the plates 4AE 4.6 A What is the dielectric constant for air? A. Approximately 1 B. Approximately 2 C. Approximately 4 D. Approximately 0 4AE 4.7 D What determines the strength of the magnetic field around a conductor? A. The resistance divided by the current B. The ratio of the current to the resistance C. The diameter of the conductor D. The amount of current 4AE 5.1 C What is the resonant frequency of the circuit in Figure 4AE-5-1 when L is 50 microhenrys and C is 40 picofarads? A. 79.6 MHz B. 1.78 MHz C. 3.56 MHz D. 7.96 MHz 4AE 5.2 B What is the resonant frequency of the circuit in Figure 4AE-5-1 when L is 40 microhenrys and C is 200 picofarads? A. 1.99 kHz B. 1.78 MHz C. 1.99 MHz D. 1.78 kHz 4AE 5.3 C What is the resonant frequency of the circuit in Figure 4AE-5-1 when L is 50 microhenrys and C is 10 picofarads? A. 3.18 MHz B. 3.18 kHz C. 7.12 MHz D. 7.12 kHz 4AE 5.4 A What is the resonant frequency of the circuit in Figure 4AE-5-1 when L is 25 microhenrys and C is 10 picofarads? A. 10.1 MHz B. 63.7 MHz C. 10.1 kHz D. 63.7 kHz 4AE 5.5 B What is the resonant frequency of the circuit in Figure 4AE-5-1 when L is 3 microhenrys and C is 40 picofarads? A. 13.1 MHz B. 14.5 MHz C. 14.5 kHz D. 13.1 kHz 4AE 5.6 D What is the resonant frequency of the circuit in Figure 4AE-5-1 when L is 4 microhenrys and C is 20 picofarads? A. 19.9 kHz B. 17.8 kHz C. 19.9 MHz D. 17.8 MHz 4AE 5.7 C What is the resonant frequency of the circuit in Figure 4AE-5-1 when L is 8 microhenrys and C is 7 picofarads? A. 2.84 MHz B. 28.4 MHz C. 21.3 MHz D. 2.13 MHz 4AE 5.8 A What is the resonant frequency of the circuit in Figure 4AE-5-1 when L is 3 microhenrys and C is 15 picofarads? A. 23.7 MHz B. 23.7 kHz C. 35.4 kHz D. 35.4 MHz 4AE 5.9 B What is the resonant frequency of the circuit in Figure 4AE-5-1 when L is 4 microhenrys and C is 8 picofarads? A. 28.1 kHz B. 28.1 MHz C. 49.7 MHz D. 49.7 kHz 4AE 5.10 C What is the resonant frequency of the circuit in Figure 4AE-5-1 when L is 1 microhenry and C is 9 picofarads? A. 17.7 MHz B. 17.7 kHz C. 53.1 MHz D. 53.1 kHz 4AE 5.11 A What is the resonant frequency of the circuit in Figure 4AE-5-2 when L is 1 microhenry and C is 10 picofarads? A. 50.3 MHz B. 15.9 MHz C. 15.9 kHz D. 50.3 kHz 4AE 5.12 B What is the resonant frequency of the circuit in Figure 4AE-5-2 when L is 2 microhenrys and C is 15 picofarads? A. 29.1 kHz B. 29.1 MHz C. 5.31 MHz D. 5.31 kHz 4AE 5.13 C What is the resonant frequency of the circuit in Figure 4AE-5-2 when L is 5 microhenrys and C is 9 picofarads? A. 23.7 kHz B. 3.54 kHz C. 23.7 MHz D. 3.54 MHz 4AE 5.14 D What is the resonant frequency of the circuit in Figure 4AE-5-2 when L is 2 microhenrys and C is 30 picofarads? A. 2.65 kHz B. 20.5 kHz C. 2.65 MHz D. 20.5 MHz 4AE 5.15 A What is the resonant frequency of the circuit in Figure 4AE-5-2 when L is 15 microhenrys and C is 5 picofarads? A. 18.4 MHz B. 2.12 MHz C. 18.4 kHz D. 2.12 kHz 4AE 5.16 B What is the resonant frequency of the circuit in Figure 4AE-5-2 when L is 3 microhenrys and C is 40 picofarads? A. 1.33 kHz B. 14.5 MHz C. 1.33 MHz D. 14.5 kHz 4AE 5.17 C What is the resonant frequency of the circuit in Figure 4AE-5-2 when L is 40 microhenrys and C is 6 picofarads? A. 6.63 MHz B. 6.63 kHz C. 10.3 MHz D. 10.3 kHz 4AE 5.18 D What is the resonant frequency of the circuit in Figure 4AE-5-2 when L is 10 microhenrys and C is 50 picofarads? A. 3.18 MHz B. 3.18 kHz C. 7.12 kHz D. 7.12 MHz 4AE 5.19 A What is the resonant frequency of the circuit in Figure 4AE-5-2 when L is 200 microhenrys and C is 10 picofarads? A. 3.56 MHz B. 7.96 kHz C. 3.56 kHz D. 7.96 MHz 4AE 5.20 B What is the resonant frequency of the circuit in Figure 4AE-5-2 when L is 90 microhenrys and C is 100 picofarads? A. 1.77 MHz B. 1.68 MHz C. 1.77 kHz D. 1.68 kHz 4AE 5.21 A What is the half-power bandwidth of a parallel resonant circuit which has a resonant frequency of 1.8 MHz and a Q of 95? A. 18.9 kHz B. 1.89 kHz C. 189 Hz D. 58.7 kHz 4AE 5.22 D What is the half-power bandwidth of a parallel resonant circuit which has a resonant frequency of 3.6 MHz and a Q of 218? A. 58.7 kHz B. 606 kHz C. 47.3 kHz D. 16.5 kHz 4AE 5.23 C What is the half-power bandwidth of a parallel resonant circuit which has a resonant frequency of 7.1 MHz and a Q of 150? A. 211 kHz B. 16.5 kHz C. 47.3 kHz D. 21.1 kHz 4AE 5.24 D What is the half-power bandwidth of a parallel resonant circuit which has a resonant frequency of 12.8 MHz and a Q of 218? A. 21.1 kHz B. 27.9 kHz C. 17 kHz D. 58.7 kHz 4AE 5.25 A What is the half-power bandwidth of a parallel resonant circuit which has a resonant frequency of 14.25 MHz and a Q of 150? A. 95 kHz B. 10.5 kHz C. 10.5 MHz D. 17 kHz 4AE 5.26 D What is the half-power bandwidth of a parallel resonant circuit which has a resonant frequency of 21.15 MHz and a Q of 95? A. 4.49 kHz B. 44.9 kHz C. 22.3 kHz D. 222.6 kHz 4AE 5.27 B What is the half-power bandwidth of a parallel resonant circuit which has a resonant frequency of 10.1 MHz and a Q of 225? A. 4.49 kHz B. 44.9 kHz C. 22.3 kHz D. 223 kHz 4AE 5.28 A What is the half-power bandwidth of a parallel resonant circuit which has a resonant frequency of 18.1 MHz and a Q of 195? A. 92.8 kHz B. 10.8 kHz C. 22.3 kHz D. 44.9 kHz 4AE 5.29 C What is the half-power bandwidth of a parallel resonant circuit which has a resonant frequency of 3.7 MHz and a Q of 118? A. 22.3 kHz B. 76.2 kHz C. 31.4 kHz D. 10.8 kHz 4AE 5.30 D What is the half-power bandwidth of a parallel resonant circuit which has a resonant frequency of 14.25 MHz and a Q of 187? A. 22.3 kHz B. 10.8 kHz C. 13.1 kHz D. 76.2 kHz 4AE 5.31 A What is the Q of the circuit in Figure 4AE-5-3 when the resonant frequency is 14.128 MHz, the inductance is 2.7 microhenrys and the resistance is 18,000 ohms? A. 75.1 B. 7.51 C. 71.5 D. 0.013 4AE 5.32 B What is the Q of the circuit in Figure 4AE-5-3 when the resonant frequency is 14.128 MHz, the inductance is 4.7 microhenrys and the resistance is 18,000 ohms? A. 4.31 B. 43.1 C. 13.3 D. 0.023 4AE 5.33 C What is the Q of the circuit in Figure 4AE-5-3 when the resonant frequency is 4.468 MHz, the inductance is 47 microhenrys and the resistance is 180 ohms? A. 0.00735 B. 7.35 C. 0.136 D. 13.3 4AE 5.34 D What is the Q of the circuit in Figure 4AE-5-3 when the resonant frequency is 14.225 MHz, the inductance is 3.5 microhenrys and the resistance is 10,000 ohms? A. 7.35 B. 0.0319 C. 71.5 D. 31.9 4AE 5.35 D What is the Q of the circuit in Figure 4AE-5-3 when the resonant frequency is 7.125 MHz, the inductance is 8.2 microhenrys and the resistance is 1,000 ohms? A. 36.8 B. 0.273 C. 0.368 D. 2.73 4AE 5.36 A What is the Q of the circuit in Figure 4AE-5-3 when the resonant frequency is 7.125 MHz, the inductance is 10.1 microhenrys and the resistance is 100 ohms? A. 0.221 B. 4.52 C. 0.00452 D. 22.1 4AE 5.37 B What is the Q of the circuit in Figure 4AE-5-3 when the resonant frequency is 7.125 MHz, the inductance is 12.6 microhenrys and the resistance is 22,000 ohms? A. 22.1 B. 39 C. 25.6 D. 0.0256 4AE 5.38 B What is the Q of the circuit in Figure 4AE-5-3 when the resonant frequency is 3.625 MHz, the inductance is 3 microhenrys and the resistance is 2,200 ohms? A. 0.031 B. 32.2 C. 31.1 D. 25.6 4AE 5.39 D What is the Q of the circuit in Figure 4AE-5-3 when the resonant frequency is 3.625 MHz, the inductance is 42 microhenrys and the resistance is 220 ohms? A. 23 B. 0.00435 C. 4.35 D. 0.23 4AE 5.40 A What is the Q of the circuit in Figure 4AE-5-3 when the resonant frequency is 3.625 MHz, the inductance is 43 microhenrys and the resistance is 1,800 ohms? A. 1.84 B. 0.543 C. 54.3 D. 23 4AE 6.1 A What is the phase angle between the voltage across and the current through the circuit in Figure 4AE-6, when Xc is 25 ohms, R is 100 ohms, and Xl is 100 ohms? A. 36.9 degrees with the voltage leading the current B. 53.1 degrees with the voltage lagging the current C. 36.9 degrees with the voltage lagging the current D. 53.1 degrees with the voltage leading the current 4AE 6.2 B What is the phase angle between the voltage across and the current through the circuit in Figure 4AE-6, when Xc is 25 ohms, R is 100 ohms, and Xl is 50 ohms? A. 14 degrees with the voltage lagging the current B. 14 degrees with the voltage leading the current C. 76 degrees with the voltage lagging the current D. 76 degrees with the voltage leading the current 4AE 6.3 C What is the phase angle between the voltage across and the current through the circuit in Figure 4AE-6, when Xc is 500 ohms, R is 1000 ohms, and Xl is 250 ohms? A. 68.2 degrees with the voltage leading the current B. 14.1 degrees with the voltage leading the current C. 14.1 degrees with the voltage lagging the current D. 68.2 degrees with the voltage lagging the current 4AE 6.4 B What is the phase angle between the voltage across and the current through the circuit in Figure 4AE-6, when Xc is 75 ohms, R is 100 ohms, and Xl is 100 ohms? A. 76 degrees with the voltage leading the current B. 14 degrees with the voltage leading the current C. 14 degrees with the voltage lagging the current D. 76 degrees with the voltage lagging the current 4AE 6.5 D What is the phase angle between the voltage across and the current through the circuit in Figure 4AE-6, when Xc is 50 ohms, R is 100 ohms, and Xl is 25 ohms? A. 76 degrees with the voltage lagging the current B. 14 degrees with the voltage leading the current C. 76 degrees with the voltage leading the current D. 14 degrees with the voltage lagging the current 4AE 6.6 B What is the phase angle between the voltage across and the current through the circuit in Figure 4AE-6, when Xc is 75 ohms, R is 100 ohms, and Xl is 50 ohms? A. 76 degrees with the voltage lagging the current B. 14 degrees with the voltage lagging the current C. 14 degrees with the voltage leading the current D. 76 degrees with the voltage leading the current 4AE 6.7 A What is the phase angle between the voltage across and the current through the circuit in Figure 4AE-6, when Xc is 100 ohms, R is 100 ohms, and Xl is 75 ohms? A. 14 degrees with the voltage lagging the current B. 14 degrees with the voltage leading the current C. 76 degrees with the voltage leading the current D. 76 degrees with the voltage lagging the current 4AE 6.8 D What is the phase angle between the voltage across and the current through the circuit in Figure 4AE-6, when Xc is 250 ohms, R is 1000 ohms, and Xl is 500 ohms? A. 81.47 degrees with the voltage lagging the current B. 81.47 degrees with the voltage leading the current C. 14.04 degrees with the voltage lagging the current D. 14.04 degrees with the voltage leading the current 4AE 6.9 D What is the phase angle between the voltage across and the current through the circuit in Figure 4AE-6, when Xc is 50 ohms, R is 100 ohms, and Xl is 75 ohms? A. 76 degrees with the voltage leading the current B. 76 degrees with the voltage lagging the current C. 14 degrees with the voltage lagging the current D. 14 degrees with the voltage leading the current 4AE 6.10 C What is the phase angle between the voltage across and the current through the circuit in Figure 4AE-6, when Xc is 100 ohms, R is 100 ohms, and Xl is 25 ohms? A. 36.9 degrees with the voltage leading the current B. 53.1 degrees with the voltage lagging the current C. 36.9 degrees with the voltage lagging the current D. 53.1 degrees with the voltage leading the current 4AE 7.1 A Why would the rate at which electrical energy is used in a circuit be less than the product of the magnitudes of the AC voltage and current? A. Because there is a phase angle that is greater than zero between the current and voltage B. Because there are only resistances in the circuit C. Because there are no reactances in the circuit D. Because there is a phase angle that is equal to zero between the current and voltage 4AE 7.2 A In a circuit where the AC voltage and current are out of phase, how can the true power be determined? A. By multiplying the apparent power times the power factor B. By subtracting the apparent power from the power factor C. By dividing the apparent power by the power factor D. By multiplying the RMS voltage times the RMS current 4AE 7.3 C What does the power factor equal in an R-L circuit having a 60 degree phase angle between the voltage and the current? A. 1.414 B. 0.866 C. 0.5 D. 1.73 4AE 7.4 D What does the power factor equal in an R-L circuit having a 45 degree phase angle between the voltage and the current? A. 0.866 B. 1.0 C. 0.5 D. 0.707 4AE 7.5 C What does the power factor equal in an R-L circuit having a 30 degree phase angle between the voltage and the current? A. 1.73 B. 0.5 C. 0.866 D. 0.577 4AE 7.6 B How many watts are being consumed in a circuit having a power factor of 0.2 when the input is 100-VAC and 4-amperes is being drawn? A. 400 watts B. 80 watts C. 2000 watts D. 50 watts 4AE 7.7 D How many watts are being consumed in a circuit having a power factor of 0.6 when the input is 200-VAC and 5-amperes is being drawn? A. 200 watts B. 1000 watts C. 1600 watts D. 600 watts 4AE 8.1 B What is the effective radiated power of a station in repeater operation with 50 watts transmitter power output, 4 dB feedline loss, 3 dB duplexer and circulator loss, and 6 dB antenna gain? A. 158 watts, assuming the antenna gain is referenced to a half-wave dipole B. 39.7 watts, assuming the antenna gain is referenced to a half-wave dipole C. 251 watts, assuming the antenna gain is referenced to a half-wave dipole D. 69.9 watts, assuming the antenna gain is referenced to a half-wave dipole 4AE 8.2 C What is the effective radiated power of a station in repeater operation with 50 watts transmitter power output, 5 dB feedline loss, 4 dB duplexer and circulator loss, and 7 dB antenna gain? A. 300 watts, assuming the antenna gain is referenced to a half-wave dipole B. 315 watts, assuming the antenna gain is referenced to a half-wave dipole C. 31.5 watts, assuming the antenna gain is referenced to a half-wave dipole D. 69.9 watts, assuming the antenna gain is referenced to a half-wave dipole 4AE 8.3 D What is the effective radiated power of a station in repeater operation with 75 watts transmitter power output, 4 dB feedline loss, 3 dB duplexer and circulator loss, and 10 dB antenna gain? A. 600 watts, assuming the antenna gain is referenced to a half-wave dipole B. 75 watts, assuming the antenna gain is referenced to a half-wave dipole C. 18.75 watts, assuming the antenna gain is referenced to a half-wave dipole D. 150 watts, assuming the antenna gain is referenced to a half-wave dipole 4AE 8.4 A What is the effective radiated power of a station in repeater operation with 75 watts transmitter power output, 5 dB feedline loss, 4 dB duplexer and circulator loss, and 6 dB antenna gain? A. 37.6 watts, assuming the antenna gain is referenced to a half-wave dipole B. 237 watts, assuming the antenna gain is referenced to a half-wave dipole C. 150 watts, assuming the antenna gain is referenced to a half-wave dipole D. 23.7 watts, assuming the antenna gain is referenced to a half-wave dipole 4AE 8.5 D What is the effective radiated power of a station in repeater operation with 100 watts transmitter power output, 4 dB feedline loss, 3 dB duplexer and circulator loss, and 7 dB antenna gain? A. 631 watts, assuming the antenna gain is referenced to a half-wave dipole B. 400 watts, assuming the antenna gain is referenced to a half-wave dipole C. 25 watts, assuming the antenna gain is referenced to a half-wave dipole D. 100 watts, assuming the antenna gain is referenced to a half-wave dipole 4AE 8.6 B What is the effective radiated power of a station in repeater operation with 100 watts transmitter power output, 5 dB feedline loss, 4 dB duplexer and circulator loss, and 10 dB antenna gain? A. 800 watts, assuming the antenna gain is referenced to a half-wave dipole B. 126 watts, assuming the antenna gain is referenced to a half-wave dipole C. 12.5 watts, assuming the antenna gain is referenced to a half-wave dipole D. 1260 watts, assuming the antenna gain is referenced to a half-wave dipole 4AE 8.7 C What is the effective radiated power of a station in repeater operation with 120 watts transmitter power output, 5 dB feedline loss, 4 dB duplexer and circulator loss, and 6 dB antenna gain? A. 601 watts, assuming the antenna gain is referenced to a half-wave dipole B. 240 watts, assuming the antenna gain is referenced to a half-wave dipole C. 60 watts, assuming the antenna gain is referenced to a half-wave dipole D. 379 watts, assuming the antenna gain is referenced to a half-wave dipole 4AE 8.8 D What is the effective radiated power of a station in repeater operation with 150 watts transmitter power output, 4 dB feedline loss, 3 dB duplexer and circulator loss, and 7 dB antenna gain? A. 946 watts, assuming the antenna gain is referenced to a half-wave dipole B. 37.5 watts, assuming the antenna gain is referenced to a half-wave dipole C. 600 watts, assuming the antenna gain is referenced to a half-wave dipole D. 150 watts, assuming the antenna gain is referenced to a half-wave dipole 4AE 8.9 A What is the effective radiated power of a station in repeater operation with 200 watts transmitter power output, 4 dB feedline loss, 4 dB duplexer and circulator loss, and 10 dB antenna gain? A. 317 watts, assuming the antenna gain is referenced to a half-wave dipole B. 2000 watts, assuming the antenna gain is referenced to a half-wave dipole C. 126 watts, assuming the antenna gain is referenced to a half-wave dipole D. 260 watts, assuming the antenna gain is referenced to a half-wave dipole 4AE 8.10 D What is the effective radiated power of a station in repeater operation with 200 watts transmitter power output, 4 dB feedline loss, 3 dB duplexer and circulator loss, and 6 dB antenna gain? A. 252 watts, assuming the antenna gain is referenced to a half-wave dipole B. 63.2 watts, assuming the antenna gain is referenced to a half-wave dipole C. 632 watts, assuming the antenna gain is referenced to a half-wave dipole D. 159 watts, assuming the antenna gain is referenced to a half-wave dipole 4AE 9.1 B In Figure 4AE-9, what values of V2 and R3 result in the same voltage and current characteristics as when V1 is 8-volts, R1 is 8 kilohms, and R2 is 8 kilohms? A. R3 = 4 kilohms and V2 = 8 volts B. R3 = 4 kilohms and V2 = 4 volts C. R3 = 16 kilohms and V2 = 8 volts D. R3 = 16 kilohms and V2 = 4 volts 4AE 9.2 C In Figure 4AE-9, what values of V2 and R3 result in the same voltage and current characteristics as when V1 is 8-volts, R1 is 16 kilohms, and R2 is 8 kilohms? A. R3 = 24 kilohms and V2 = 5.33 volts B. R3 = 5.33 kilohms and V2 = 8 volts C. R3 = 5.33 kilohms and V2 = 2.67 volts D. R3 = 24 kilohms and V2 = 8 volts 4AE 9.3 C In Figure 4AE-9, what values of V2 and R3 result in the same voltage and current characteristics as when V1 is 8-volts, R1 is 8 kilohms, and R2 is 16 kilohms? A. R3 = 24 kilohms and V2 = 8 volts B. R3 = 8 kilohms and V2 = 4 volts C. R3 = 5.33 kilohms and V2 = 5.33 volts D. R3 = 5.33 kilohms and V2 = 8 volts 4AE 9.4 D In Figure 4AE-9, what values of V2 and R3 result in the same voltage and current characteristics as when V1 is 10-volts, R1 is 10 kilohms, and R2 is 10 kilohms? A. R3 = 10 kilohms and V2 = 5 volts B. R3 = 20 kilohms and V2 = 5 volts C. R3 = 20 kilohms and V2 = 10 volts D. R3 = 5 kilohms and V2 = 5 volts 4AE 9.5 C In Figure 4AE-9, what values of V2 and R3 result in the same voltage and current characteristics as when V1 is 10-volts, R1 is 20 kilohms, and R2 is 10 kilohms? A. R3 = 30 kilohms and V2 = 10 volts B. R3 = 6.67 kilohms and V2 = 10 volts C. R3 = 6.67 kilohms and V2 = 3.33 volts D. R3 = 30 kilohms and V2 = 3.33 volts 4AE 9.6 A In Figure 4AE-9, what values of V2 and R3 result in the same voltage and current characteristics as when V1 is 10-volts, R1 is 10 kilohms, and R2 is 20 kilohms? A. R3 = 6.67 kilohms and V2 = 6.67 volts B. R3 = 6.67 kilohms and V2 = 10 volts C. R3 = 30 kilohms and V2 = 6.67 volts D. R3 = 30 kilohms and V2 = 10 volts 4AE 9.7 B In Figure 4AE-9, what values of V2 and R3 result in the same voltage and current characteristics as when V1 is 12-volts, R1 is 10 kilohms, and R2 is 10 kilohms? A. R3 = 20 kilohms and V2 = 12 volts B. R3 = 5 kilohms and V2 = 6 volts C. R3 = 5 kilohms and V2 = 12 volts D. R3 = 30 kilohms and V2 = 6 volts 4AE 9.8 B In Figure 4AE-9, what values of V2 and R3 result in the same voltage and current characteristics as when V1 is 12-volts, R1 is 20 kilohms, and R2 is 10 kilohms? A. R3 = 30 kilohms and V2 = 4 volts B. R3 = 6.67 kilohms and V2 = 4 volts C. R3 = 30 kilohms and V2 = 12 volts D. R3 = 6.67 kilohms and V2 = 12 volts 4AE 9.9 C In Figure 4AE-9, what values of V2 and R3 result in the same voltage and current characteristics as when V1 is 12-volts, R1 is 10 kilohms, and R2 is 20 kilohms? A. R3 = 6.67 kilohms and V2 = 12 volts B. R3 = 30 kilohms and V2 = 12 volts C. R3 = 6.67 kilohms and V2 = 8 volts D. R3 = 30 kilohms and V2 = 8 volts 4AE 9.10 C In Figure 4AE-9, what values of V2 and R3 result in the same voltage and current characteristics as when V1 is 12-volts, R1 is 20 kilohms, and R2 is 20 kilohms? A. R3 = 40 kilohms and V2 = 12 volts B. R3 = 40 kilohms and V2 = 6 volts C. R3 = 10 kilohms and V2 = 6 volts D. R3 = 10 kilohms and V2 = 12 volts -------------------------------------------------- End of Subelement 4AE.