No. With an alternating current potential that high and a body resistance to that voltage so low the voltage will rip straight through the body cooking a path as it goes. Where the voltage exits the body there will be third degree burns. The following is a list of amperage's the body can take before death. Less than 1/2 milliamp no sensation, 1/2 to 2 milliamps threshold of perception, 2 to 10 miliamps muscular contraction, 5 to 25 milliamps painful shock (may not be able to let go), over 25 milliamps could be violent muscular contraction, 50 to 100 milliamps ventricular fibrillation, over 100 paralysis of breathing.
hi i was looking for some high voltage wire for my homemade electrical fence and i seen this question on Google so i answere it for you, so yeah i guess if you want to call it holding but it more or less if you were holding it it wouldn't be because you wanted to hold it, it would be because you were having muscle spassems making you grip it, but i don't think that happens too much, so yes you can hold a wire carring 10,000 volts but the current must be low ie. the amps you(your body-heart) cant take more than an amp maby less, but the volts can be as high as a million or more and it HURTS a lot and there is nothing you can do while being shocked, you will want to go to sleep shortly afterward
41.666 amps. Divide watts by volts.
Watts = Amps x Volts. Amps = Watts/Volts. 10000/120 = 83.3 amps can be used at 120 volts. On a generator that large it is most likely that it also has the capacity to produce 240 volts. 10000/240 = 41.6 amps can be used at 240 volts. What you can connect to the generator will be totals of the amperage of devices that do not go above these amp ratings.
To calculate the total current, you would divide the total power (10000 watts) by the voltage of your home (usually 120 volts in the US). This would give you 83.33 amps of total current for all 5 appliances.
The equation for amperage is Amps = Watts/Volts = 10000/240 = 41.6 amps. It is not stated if this is a motor load or not. If it is a motor load then the feeder has to be rated at 125% x 41.6 = 52 amp wire. Also if it is a motor load then the breaker will have to be 250% x 41.6 = 104 amps. A 100 amp breaker will work and still be within the electrical code ruling. Otherwise for 41.6 amps a 50 amp breaker will be sufficient.
900,000 Volts. That is Nine Hundred Thousand volts.
10000 volts max. That's only the same as an electric fence. Minor shock.
A person can typically feel an electrostatic discharge when it reaches around 3,000 volts. This sensation is often described as a small shock or static electricity zap.
10000 watts / 220 volts = 45.4545 amperes
41.666 amps. Divide watts by volts.
Watts = Amps x Volts. Amps = Watts/Volts. 10000/120 = 83.3 amps can be used at 120 volts. On a generator that large it is most likely that it also has the capacity to produce 240 volts. 10000/240 = 41.6 amps can be used at 240 volts. What you can connect to the generator will be totals of the amperage of devices that do not go above these amp ratings.
Sure, but of course this will be 100,000 watts.
Static electricity shocks typically range from 3,000 to 25,000 volts, although they can sometimes reach up to 100,000 volts. The amount of voltage generated depends on various factors such as humidity levels, surface materials, and the movement of the person being shocked.
Divide 10,000 by 3 . . that is the voltage.
No.
At least 3000 volts of static electricity must build up before a person can feel ESD. For example, static electricity can build up on you as you walk across a carpeted floor. When you touch another person, you both receive a shock. If the discharge causes pain or makes a noise, the charge was probably above 10,000 volts. By comparison, less than 30 volts of static electricity can damage a computer component.
Your first touch of live primary Tesla coil voltage (10000 volts) has a good chance of being fatal and will easily stop your heart. The coil dicharge goes up to one and a half millions volts.
Electric furnaces are rated in Kilowatts. The following formula will let you figure it out. Watts = amps x volts. For eg. a 10 Kw furnace draws 10000 watts. amps = watts/volts. 10000/240 = 41.6 amps. If your furnace differs from this example, just plug in your wattage and you will have your answer.