Super Human Endurance Against High Electrical Current

Are there people that can pass huge amounts of current through their body and not feel it?

Well, It is obvious that the Mohan guy is absolutely fake. I hope nobody tries to find out if they are a super conductor watching Mohan, or they’ll be super dead!

Let me explain what effect different type of electricity would have on a human body:

  • AC versus DC:

As I have shown in my previous article on pain of electricity a 50hz or 60Hz city power frequency hurts at double levels of a DC voltage. It is because of human body capacitance that allows more current through when AC is applied. I have measured this capacitance in another article here.

Like Dan mentioned, average human body resistance OVER SKIN is around 180 kOhm. Of course it is different between humans, skin conditions, humidity, different surfaces of body, etc…

The resistance significantly drops inside the body, to levels around 10kOhm and below. So for the same voltage, much more current flows if voltage is applies inside the body.

In average around over 100VDC on skin, most people start feeling electricity and around 300VDC is definitely dangerous and can be lethal depending on the path the current flows.

For AC, most people feel it for levels below 50VAC over skin and over 100VAC it is very dangerous.

The reason it is dangerous is that it can interfere with nerves of important organs like heart or brain and make them stop functioning.

  • Skin Effect

Now AC pain level changes versus frequency as I showed in my other article (good thing I covered these before!). Some of this returns to how your nerves response to different frequencies. But a lot of it is skin effect.

Now skin effect is not relevant to human skin, but it is an electrical term meaning that at higher frequencies, electrons travel on a thinner layer on the surface of the conductor. This is because due to the electromagnetic fields generated inside a conductor, the electrons are pushed towards the surface of the conductor. The higher the frequency, the stronger this push is and results in this “skin” in which the electrons travel to become thinner. This has two meanings:

  • The conductor is more resistive at higher frequencies because the area the current can pass through is smaller.
  • In case of human body, the current at high frequency doesn’t penetrate deep enough to get to vital organs and kill the person.

You have seen this when I was touching my Tesla coil here. There was a lot of current through my body, so much that it would easily burn my skin, but I wouldn’t feel it besides burning my skin as it couldn’t get to my muscles and shake them.

So even at high frequency, electricity is still pretty dangerous as it can set your body on fire.

  • High Voltage

Of course I’ve always said that it is the voltage that creates current that does the harm, which is the truth. Of course the current causes the damage but voltage is required to create current and time is needed to create more damage. Also the amount of current is not quite linear per voltage.

As the voltage rises, the current through the body rises based on the formula V = R x I assuming DC. You can replace R with body impedance for AC. BUT, as also you saw in the video, Mohan’s body resistance was increasing the longer he was holding it. And it was due to the fact that the tiny current the meter was putting out was changing skin surface properties where the probes touched. For example it was reacting with the body sweat, creating microscopic bubbles which would isolate the probe from body causing the resistance to increase. So when resistance increases, for the same voltage, current reduces.

Now if you increase the voltage too much, it wouldn’t need to go through body resistance, and rather it can break down the skin into a lower resistance, arc through and get to the low resistance internal tissues. This means the current suddenly spikes up and can be more damaging.

Such things happen when there is electrostatic discharge. Like when you touch your door knob and it zaps you. Those voltages are above 8kV and can easily arc over skin and go inside, so their currents are pretty large. But they are very fast too which means:

  • Due to skin effect they won’t penetrate too deep
  • Because they are very fast, they don’t have time to make damage

But if there is a voltage supply that can continuously provide high voltages (fixed voltage, don’t tell me the supply can be current limited, because in that case it won’t be fixed voltage), you will be easily cooked into Luke Skywalker’s aunt and uncle!

Again I like to thank for providing some good tools to me and a scope to my patrons at Let me tell you what my favorites are:

Special thanks to Circuit Specialists for providing the lab equipments

Special thanks to Circuit Specialists for providing the lab equipments


10 thoughts on “Super Human Endurance Against High Electrical Current

  1. I’m not sure whether I mentioned this here before, but I noticed something funny when I was trying to measure the resistance of my body using a digital multimeter: the value shown depended on the range I set. As I tried to investigate, I found that my IV curve is highly non-linear — exponential, in fact — over 2.5 orders of magnitude, from 4.5 µA to 1.3 mA. Accordingly, the large-signal resistance dropped from ≈290 kΩ to ≈12 kΩ.

  2. Oh shit.Last comment which it‘s name is 张豪 just a test ………I didn’t know I can reply and I‘m not really good at English.This article is pretty interesting.

  3. I found another one of these “superhumans”. This guy seems to lie less than mohan. He doesn’t directly claim that current goes through his body. (fun thing in the description: Human electricity insulator Deepak Jangra can resist the same amount of voltage required to power 500 houses)

  4. Your YouTube intro starts with “Some people say I’m an idiot.” This video, unfortunately, supports that claim. The human body conducts AC, but not DC (most of the impedance is at the skin, and is generally modeled as a resistor in series with a capacitor). A DC multimeter will read a megaohms. That says almost nothing about the ability for AC to flow. EC11/EC13 are good standard to read with models and how they were derived.

    Now, 60Hz flows pretty well through the body itself — more than well enough to power a lightbulb or angle grinder — the problem is at the skin. Skin impedance is a harmonic distribution. Some people have very high impedance, and some rather quite low. Is it possible a person could power a lightbulb through the body? Without a doubt.

    Would someone die? Maybe. The only place electricity gets you is the heart. It depends on the circuits made. Pass out with electricity through the brain? More likely.

    Sparks and burn marks? Likely, but it depends on the skin impedance. A simple spark isn’t enough to cause a burn (walk on the carpet and try). Defibrillators, for example, do leave burn marks, but that’s simple skin impedance * current squared leading to a lot of power and a lot of heat — not sparks or similar (although they also don’t have sparks — they don’t activate until electrical contact is made, so there is no chance for sparks, and they don’t go up to kV instantly). Unsurprisingly, heat from sparks is based on amount of energy there — current times voltage through the air.

    Do I think this is a fraud? Probably. There were a few other questionable things in the video. But by no means the ones you mentioned.

    • There is no body in the world that can turn on a light bulb or power tool through their body using a 60Hz power source.. End of story. You will die just running 10mA through your body, or badly burn from it. I have measured body capacitance in my other articles and it is not significant enough to pass any appreciable amount of current. So unless you can find someone who can do what you claim, and measure the current through their body, just assume it is not possible for sake of not dying!

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