@@ammarzavahir8928 Energy of the body at "rest" is given by mc^2. I think this equation does not hold for a moving charge. This rest mass energy can be converted to any other form like a thermal energy in our case. So we can apply this equation on the resistance which is at rest and releases heat energy. But value of mass converted to energy will be very small because of c^2 in denominator. And since the charge coming into the resistor is moving so this equation would not hold for it.
made it tough to blink my eyes. Thats how legends deliver. Hats off sir.
Thank you very much for this video. I have a much better understanding of the RC relationship after watching this.
Razavi Rocks!!
how charge is conserved. charge is going through resistor?
Resistor does not accumulate any charge. So charge will be conserved across resistor always. Resistor just acts as a medium for charge flow.
@@YourBuddy901i think the charge going through resistor becomes heat and it's not conserved
@@student2engineer Heat is not a matter like charge. It is a form of energy generated by collision of charges. Hence charge cannot become a heat.
@@YourBuddy901 what about e=mc^2 where mass converted to energy, charges have mass so it can be converted to energy yee?
@@ammarzavahir8928 Energy of the body at "rest" is given by mc^2. I think this equation does not hold for a moving charge.
This rest mass energy can be converted to any other form like a thermal energy in our case. So we can apply this equation on the resistance which is at rest and releases heat energy. But value of mass converted to energy will be very small because of c^2 in denominator.
And since the charge coming into the resistor is moving so this equation would not hold for it.
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