Step 1: The output voltage waveform of a single-phase full-bridge inverter is a square wave.
Step 2: The fundamental RMS output voltage (\( V_{1,\text{rms}} \)) is given by: \[ V_{1,\text{rms}} = \frac{4V_{\text{dc}}}{\sqrt{2} \pi} \] where:
- \( V_{\text{dc}} = 48V \) (DC input voltage)
- \( \pi \) appears due to the Fourier series expansion of a square wave.
Step 3: Substituting the given values: \[ V_{1,\text{rms}} = \frac{4 \times 48}{\sqrt{2} \pi} \text{ V} \]
Step 4: Thus, the correct answer is \( \frac{4 \times 48}{\sqrt{2} \pi} \) V.
If AB is incident plane wave front, then refracted wave front is (n\(_1\) → n\(_2\))
A closed-loop system has the characteristic equation given by: $ s^3 + k s^2 + (k+2) s + 3 = 0 $.
For the system to be stable, the value of $ k $ is:
A digital filter with impulse response $ h[n] = 2^n u[n] $ will have a transfer function with a region of convergence.