The energy of the radiation produced should be equivalent to the mass of matter converted, multiplied by the speed of light squared, as described by Einstein's famous equation E=mc^2. This represents the mass-energy equivalence principle, which shows that mass can be converted into energy and vice versa.
The famous equation is basically saying that mass is just a condensed form of energy. The 'c' part of the equation (the speed of light) is just the exchange rate (so to speak). For example, if we want to know how much energy we could make if we completely annihilated 1 kg of a substance, we can substitute our values into his equation. e=mc^2 e= 1 (c^2) e=c^2. So in 1kg of a substance, there are c squared joules of energy in it. This is a huge number, around 9*10^16. This number is 9 with 15 zeros after it!. So, why don't we use it to power nuclear stations? The reason is because one of the easiest ways of completely annihilating something is by mixing it with it's antimatter counterpart, which is unfortunately immensely difficult to synthesise in practical quantities.
When two atoms or matter and antimatter eliminate each other, there is a massive energy output. This is calculated using the most famous equation E=mc2. "Energy" equal the total "mass" of both atoms multiplied by c (the speed of light) squared.
Einstein's famous equation, E=mc2, basically means that energy and mass are interchangeable - that under the right conditions, mass can turn into pure energy, and energy can turn into mass. So, in essence, it can be said that matter can turn into pure energy if it is travelling at the speed of light.
e=mc^2 pretty much is a relation between mass (m) and energy (e) where c = speed of light. Pretty much, as something goes faster, it gains slightly more mass. It really has no visible effect when you're going like 60 mph, but when you go the speed of light the mass becomes almost infinite. We would have to generate an infinite amount of energy to propel this thing (which is pretty much impossible) so we can never really go the speed of light. Light travels at the top speed in the universe, but it's still finite. The equation ends up being: (c=mc^2) divide by c so that (1=mc) so the mass is very small.
Einstein's famous equation E=mc^2 represents the equivalence of energy and mass. When mass is converted into energy, the speed of light squared (c^2) is used as a conversion factor to illustrate the vast amount of energy that can be produced even from a small amount of mass.
For his famous equation of: E = MC squared
Scientists used it to develop Nuclear Power
E = mc2 is Albert Einstein's famous equation
Small problems quickly multiplied as each new part of the computer program was introduced. In the famous equation by Einstein, mass is multiplied by the speed of light squared, a very large value.
Einstein's famous equation E=mc^2 states that energy (E) is equal to mass (m) times the speed of light squared (c^2). This equation shows the equivalence between energy and mass, highlighting the potential for matter to be converted into energy and vice versa.
That equation is the equation that Albert Einstein came up with to describe how to calculate the speed of light. E = energy m = mass c = speed of light
e=mc squared the energy mass equivalence formula.
relativity
for the automatic bom
E=mc^2 states that mass and energy are interchangeable, and that a little bit of mass creates a lot of energy.
Very much so. The incorrect ones never became famous.