Final answer:
The AC ripple voltage of a 1-ph full-wave rectifier cannot be calculated with the information provided. Additional details such as the capacitance, load resistance, and frequency of the AC supply are necessary. However, electric power dissipation in a resistor can be explained by the formula P = I²R, indicating that power is proportional to the square of the current multiplied by the resistance.
Step-by-step explanation:
To calculate the AC ripple voltage of a 1-ph full-wave rectifier supplying a resistive load with an input AC voltage source of 100V, we need to understand that the AC ripple voltage (Vripple) is the fluctuation in voltage within the output of a rectifier. In a full-wave rectifier circuit, this ripple voltage is typically represented by the equation Vripple = (Vpeak - Vload)/fCRL, where Vpeak is the peak voltage of the AC input, Vload is the voltage across the load, f is the frequency of the AC supply, C is the capacitance of the filter capacitor, and RL is the load resistance.
Unfortunately, with the provided information, we cannot calculate Vripple without knowing the values for the capacitance of the filter capacitor, the frequency of the AC supply, and the load resistance. Additionally, this calculation would require further information such as the characteristics of the full-wave rectifier in terms of voltage drop across diodes, which is essential to deduce the Vload.
Answering your initial statement, power dissipation in resistors is explained by the formula P = I²R, which means that electric power is proportional to the square of the current through the resistor multiplied by the resistance. This insight comes from the formula P = V²/R, which implies that for a lower resistance connected to a given voltage source, the greater the power delivered.