A DSB modulated signal u(t) = \frac{A}{2} m(t) cos4\pifct is mixed (multplied) with a local carrier xL(t) = cos(4\pifct + \theta ) and the output is passed through a lowpass filter with a bandwidth equal to the bandwidth of the message m(t). The signal power at the output of the lowpass filter is denoted by Pout. The modulator signal power is denoted by Pu. Plot \frac{P_{out}}{P_{u}} as a function of \theta for \theta \leq \theta \leq \pi

A DSB modulated signal u(t) = $5ad4c28020dee - A DSB modulated signal u(t) = \frac{A}{2} m(t) cos4\pifct is mixed (multplied) with a local carrier xL(t) = cos(4\pifct + \theta ) and the output is passed through a lowpass filter with a bandwidth equal to the bandwidth of the message m(t). The signal power at the output of the lowpass filter is denoted by Pout. The modulator signal power is denoted by Pu. Plot \frac{P_{out}}{P_{u}} as a function of \theta for \theta \leq \theta \leq \pi$ m(t) cos4 $5ad4c28129c71 - A DSB modulated signal u(t) = \frac{A}{2} m(t) cos4\pifct is mixed (multplied) with a local carrier xL(t) = cos(4\pifct + \theta ) and the output is passed through a lowpass filter with a bandwidth equal to the bandwidth of the message m(t). The signal power at the output of the lowpass filter is denoted by Pout. The modulator signal power is denoted by Pu. Plot \frac{P_{out}}{P_{u}} as a function of \theta for \theta \leq \theta \leq \pi$ f_ct is mixed (multplied) with a local carrier x_L(t) = cos(4 $5ad4c28129c71 - A DSB modulated signal u(t) = \frac{A}{2} m(t) cos4\pifct is mixed (multplied) with a local carrier xL(t) = cos(4\pifct + \theta ) and the output is passed through a lowpass filter with a bandwidth equal to the bandwidth of the message m(t). The signal power at the output of the lowpass filter is denoted by Pout. The modulator signal power is denoted by Pu. Plot \frac{P_{out}}{P_{u}} as a function of \theta for \theta \leq \theta \leq \pi$ f_ct + $5ad4c28324b81 - A DSB modulated signal u(t) = \frac{A}{2} m(t) cos4\pifct is mixed (multplied) with a local carrier xL(t) = cos(4\pifct + \theta ) and the output is passed through a lowpass filter with a bandwidth equal to the bandwidth of the message m(t). The signal power at the output of the lowpass filter is denoted by Pout. The modulator signal power is denoted by Pu. Plot \frac{P_{out}}{P_{u}} as a function of \theta for \theta \leq \theta \leq \pi$ ) and the output is passed through a lowpass filter with a bandwidth equal to the bandwidth of the message m(t). The signal power at the output of the lowpass filter is denoted by P_out. The modulator signal power is denoted by P_u. Plot $5ad4c2842cb6f - A DSB modulated signal u(t) = \frac{A}{2} m(t) cos4\pifct is mixed (multplied) with a local carrier xL(t) = cos(4\pifct + \theta ) and the output is passed through a lowpass filter with a bandwidth equal to the bandwidth of the message m(t). The signal power at the output of the lowpass filter is denoted by Pout. The modulator signal power is denoted by Pu. Plot \frac{P_{out}}{P_{u}} as a function of \theta for \theta \leq \theta \leq \pi$ as a function of $5ad4c28324b81 - A DSB modulated signal u(t) = \frac{A}{2} m(t) cos4\pifct is mixed (multplied) with a local carrier xL(t) = cos(4\pifct + \theta ) and the output is passed through a lowpass filter with a bandwidth equal to the bandwidth of the message m(t). The signal power at the output of the lowpass filter is denoted by Pout. The modulator signal power is denoted by Pu. Plot \frac{P_{out}}{P_{u}} as a function of \theta for \theta \leq \theta \leq \pi$ for $5ad4c28324b81 - A DSB modulated signal u(t) = \frac{A}{2} m(t) cos4\pifct is mixed (multplied) with a local carrier xL(t) = cos(4\pifct + \theta ) and the output is passed through a lowpass filter with a bandwidth equal to the bandwidth of the message m(t). The signal power at the output of the lowpass filter is denoted by Pout. The modulator signal power is denoted by Pu. Plot \frac{P_{out}}{P_{u}} as a function of \theta for \theta \leq \theta \leq \pi$