That is pretty good. Current is roughly the flow rate of electricity through a material and is measured in Amperes. Resistance measured in Ohms is what restricts current from passing through a material. Voltage is the measure of the "pressure" that pushes the electricity through a material.
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Fuck: Volt Marry: Ohm Kill: Amp
Fuck = Marry x Kill
It works so well describing different scenarios. If there are hundreds of Amps, they all get hot and sweaty trying to fit through the gap. You can reduce the temperature by either getting Ohm to loosen up on the rope or you can increase the volts to push her through faster.
Half right. Reducing ohms does reduce heat, but if you increase volts only on the input the power dissipation goes up by the square of voltage.
When you raise the voltage on both input and output (like high tension power lines) only the difference stays the same. In that case the heat stays the same but the amount of useful power getting through the resistance is higher so the heat is a smaller fraction of the total power getting through.
Maybe my imagination is too limited, but I am not sure whether this cute illustration helps explain any of that. Maybe we should spend less time pushing analogies through tight spots and relax.
This is probably genuinely a better explanation than I got through my entire undergrad.
Same for me, however I must state that the quote "everyday stray further away from god", in it's essence should still be considered in modern society. Is there a non-religious way to say "y'all need Jesus"?
Someone more knownedgeable than me will follow shortly but that's a cheeky way to ilustrate Ohm's Law.
Now explain skin effect.
Eeeeeeeh...
Okay, bear with me here...
Testosterone. Skin thicc. Skin rough. Also hairy. Not smooth! But durable. Also oily.
Estrogen...skin thin. But that mean smooth! Very smooth. Less hairy, more smooth! Less durable, many cut and bruise. Also dry, omfg dry. But...worth
Hormone effect skin. Explained 👍
Skin effect with current is when the majority of the actual electron flow is on the surface of the conductor.
To tie your point into the explaination, it's like when you have a finger traced over some soft, smooth skin, and you feel that tingle. I guess? I don't think I'm doing it justice with words, I may just have to show you.

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