Current is correct. Current is the flow of electrons, and it is this flow that is disruptive to the human body.
Another term for voltage is "potential," which is helpful to remember. Voltage is the measure of potential for current to flow. If the potential is small, the current will not flow so much, all other things being equal. By the same token, a large potential can create a large flow. This is why "high voltage" is considered dangerous -- it represents a large potential for current to flow. For current to flow, however, a circuit must be created to make a path for the electrons. If you make yourself part of this circuit, ZAP!
The amount of current that flows in a circuit is proportional to the potential, and inversely proportional to the resistance of the circuit:
Current = Potential / Resistance (often written I = V / R )
A useful analogy is to think of water (electrons) in a pipe (circuit). When the faucet is shut (like a switch in the "off" position), no water flows (current). But there is potential for water to flow because pressure (voltage) is exerted on one side. If you were a tiny person in the pipe (in a pressure suit with a breathing apparatus!) nothing bad would happen. The fact that there is pressure in the pipe means nothing when there is no water flowing. Now, open the faucet and let the current flow. The flow rate is greater when the upstream pressure is higher, but it is limited by the shape and size (resistance) of the pipe. If you were still hanging around inside the pipe, you would feel the effect of the water flowing by you. If this flow is very large, you could be torn apart. That is the analogy of being electrocuted.
Manvith Says:
Actually, voltage is the electric potential, or potential energy for each electron, not potential energy. Current is rate at which the electrons flow. In order to see what effect it would have on a person, think of it like this: if you have high current and low voltage, then the electrons would not have that much energy, but there would be a lot of them flowing into your body because the current is high. But, if the voltage is high and the current is low, then the electrons would carry more energy, but there would not be many of them flowing into your body because the current is low. Looking at it this way, current and voltage should be equally deadly, but in real life current is more life-threatening. This is because your heart uses electrical impulses to control how fast your heart beats and if you get a few high voltage electrons, it won't really do much to your heart beat, but getting a lot of them at low voltages would.
Vignesh Says
Current is Directly proportional to Voltage & vice versa
Shock depends on the resistance of the body.
If the voltage is 1000V and your body have infinity resistance(current=voltage/Resistance(infinity)=zero - no current flow in the body), it wont affect you.
If the voltage is 1V and your body have 0.001 OHM resistance (current=voltage/Resistance(0.001)=1000 amps current flow in the body), it will affect you.(Think.. why coin cell battery having very low voltage will shock your tongue, becoz tongue has very low resistance)
Edit: I did not intend to erase previous answers. My apologies as I misunderstood the nature of the editing tool.
CommentVoltage is not another term for potential. Voltage is another term for potential difference!
.7 volts
Yes, 2.5 million volts is more than enough to kill a person. Injuries resulting from such high voltage can cause cardiac arrest, severe burns, and other internal damage that can be fatal.
Around 40-60 volts of electricity is typically needed to kill a mouse. However, the exact voltage required can vary depending on factors such as the mouse's size, health, and the path the electricity travels through the body. It's important to prioritize humane methods of pest control to avoid causing unnecessary harm.
The human body typically produces around 0.1 to 1.0 volts of electricity. This is due to the electrical activity of cells, particularly in the nervous system and muscles.
There are a few things that determine the severity of an electric shock. How many amps flow through you, and where it passes through you. Although stepped up to a very high voltage, electric fences deliver only a very small current, and do so in pulses so you are receiving an intermitting, low amperage shock.
it doesn't matter how many volts pass through your body, its the amps as little as 0.1 amps can kill a human
The voltage needed to kill a human being is 10,000,000,000 volts. Ok im not the one who answerd this question i have a question of my on... you say its about 10,000,000,000 but how fast could that kill you and another question How fast could 2million volts kill you if it could kill you? please answer back
You will need a little more than 9 volts to kill a mosquito. It is recommended that you use about 2850 mAh of current to kill a mosquito.
YES, on the inside there are capacitors that hold thousands of volts. A crt monitor could easily kill a human.
Possibly, but it depends on the amperage available. Even 110 volts can kill with enough amps.
It can paralyze or kill you.
Yes.
69.
It could kill someone.
Kill it.
Electric eels can shock any animal that gets near it, and its volts can produce 600 volts that are strong enough to kill a human.
Very strong.Figure this,if a 120 volts can kill a human being then what would 650,000 do.Id say roughly this many volts could kill about 650 elephants.Does that tell you enough to stay away from it?