The average power dissipated in A.C. circuit is 2 watt.

To find out, we need to be able to calculate the amount of power that the resistor will dissipate. If a current I flows through through a given element in your circuit, losing voltage V in the process, then the power dissipated by that circuit element is the product of that current and voltage: P = I × V.

Average power dissipated is the amount of energy lost due to unwanted means in an electronic device or circuit. This waste occurs because energy gets converted to another form which is an unnecessary by-product, for example heat, sound etc.

In case of pure resistive circuit with an AC RMS power supply, the power dissipated is same as that in case of a resistor connected to DC power supply. P = VRMS * IRMS = I2RMS * R = V2RMS / R. VRMS and IRMS are rms values of voltage and current respectively. P is power in Watts.

The voltage and current in an AC circuit periodically change direction (alternating current). In a purely resistive circuit, the voltage and current change direction at the same time (in phase). Power measurements are made by measuring the RMS current and voltage and applying the formula P = VrmsArms.

Answer: Average power is defined as the ratio of total work done by the body to the total time taken by the body.

Divide the voltage by the total resistance to get the total current in a series circuit. In a series circuit, the same current flows through each resistor. Multiply the square of the current with the individual resistances to get the power dissipated by each resistor.

In the field of electronics, power dissipation is also a measurement parameter that quantifies the releasing of heat within a circuit due to inefficiencies. In other words, power dissipation is a measure of how much power (P = I x E) in a circuit is converted into heat.

Maximum total dissipation = PD, the amount of power (in watts) allowable for the diode to dissipate, given the dissipation (P=IE) of diode current multiplied by diode voltage drop, and also the dissipation (P=I2R) of diode current squared multiplied by bulk resistance.

average power over a complete cycle in a pure inductor connected to ac is zero.

Detailed Solution

Hence, the average power consumed in a purely inductive circuit is zero.

Pav=VIcosϕ where cosϕ is the power factor . Thus the average power dissipated in a pure inductor is zero .

If the resistance is much larger than the reactance of the capacitor or inductor, the average power is a dc circuit equation of P=V2/R, P = V 2 / R , where V replaces the rms voltage.

Therefore, the condition for maximum power dissipation across the load is RL=RTh. That means, if the value of load resistance is equal to the value of source resistance i.e., Thevenin's resistance, then the power dissipated across the load will be of maximum value.

Power dissipation is the maximum power that the MOSFET can dissipate continuously under the specified thermal conditions. It is defined between channel (ch) - case (c) or ch - ambient air (a) when mounting an infinite heat sink.

The rate at which the heat is dissipated is called POWER, given the letter P and measured in units of Watts (W). The amount of power dissipated can be worked out using any two of the quantities used in Ohms law calculations.

Hence, power dissipated in the circuit when all the three bulbs glow together is given as 13.5 W.

this is as simple as can be: Just Ohm´s law. And for sure it`s written in every MOSFET power dissipation documentation! V = I * R, Here: V_DS = R_DS_ON * I_D, or directely as power: P = I * I * R = I^2 * R.

Power consumption means the total power consumption of that device. Power dissipation stands for the part of the power that is consumed by things not related to the desired tasks. MOSFET represents Metal oxide semiconductor field effect transistors and MOSFETS are now widely used in electrical components.

Answer. The average power is defined as ratio of Total work done (or Total energy consumed) and the total time taken. Average Power = Total Work Done / Total Time.

Average Power = Total energy consumed / Total time taken

You must have noticed that electrical components and energy meters in homes use a unit called kWh (kilowatt-hour), which stands for 1 kilowatt of power is been consumed every 1 hour, where kWh is the unit of energy.

(a) If an agent or a machine works irregularly, its power fluctuates from one instant to another. In such a case, we take the average power of the agent.

In a steady-state circuit, if you average the "instantaneous power" over a cycle, you get "real power"... so yes, they are the same. Furthermore, this is how power meters work, to show what the real power consumed. They average the instantaneous voltage and current (vectors) over a few seconds.