What does the c represent in E=mc2?
544447
c represents the speed of light in a vacuum.\n\nc = exactly 299,792,458 m/s
545787
E = mC^2. Therefore, Energy
679306
ITS [E=MC^2] - THE CONSERVATION OF MATTER AS ENERGY.. IT MEANS IF WE PUSH AN OBJECTS WITH A SPEED OF SQUARE OF SPEED OF LIGHT THEN THE ENERGY PRODUCED IN THE COVERAGE OF THE DISTANCE WITHOUT RETARDING OF 1 GM OF ANY MATTER OF DENSITY ABOVE 5GM/CM^3 WILL BE EQUAL TO THE ENERGY PRODUCED BY 10000KG OF U235 USED IN NUCLEAR REACTOR...
250875
All the protons and neutrons are not bound equally strongly to the nucleus.\nI don't think the second or third law of thermodynamics are  involved. It is only a matter of binding energy and E=mc2.
639238
e=mc^2 \n(energy equals mass times the speed of light squared).
697038
This is kinda hard to draw on here...\n......_\nK--Br|\n......_\n\nThe lines around Br represent 2 electrons, and the -- represents a bond...ignore the periods
755161
The heat energy Q  that must be absorbed by a mass m with specific heat c raises the temperature of the mass from temperature T1 to temperature T2: \n\nQ = mc(T2-T1)\n\nThis assumes there are no other energy losses or gains to the system.
809521
E=MC2, so universe = infintie mass, Energy= infinite times. \n\nSpeed of light squared is will power.
798483
Here it is:\n\n(98,42)Mo + (1,0)n ---> (99,42)Mo
1138290
Look up stuff like Arrhenius equations. I don't have my phys chem text book to hand.\n\nFor part two, I think it's D, as I'm fairly certain it's not any of the others.
294096
The theoretical physics equation E = mc2 states a relationship between energy (E) and mass (m) first formulated by Albert Einstein in his 1905 paper "Ist die Trägheit eines Körpers von seinem Energieinhalt abhängig?" ("Does the Inertia of a Body Depend Upon Its Energy Content?", published in Annalen der Physik on September 27), one of the articles now known as his Annus Mirabilis Papers. \n\nIn the context of special relativity theory, the implication is that energy and mass are, in some sense, equivalent. In practical terms, it led to the atomic bomb. It is one of the best-known equations of all time. Even those who may not explicitly know what it means may have some idea of its meaning through culture. Background and consequencesThe equation resulted from Albert Einstein's inquiry into the dependence of mass on its energy content. The famous result of this inquiry is that the mass of a body is actually a measure of its energy content. To understand the significance of this relationship, compare the electromagnetic force with the gravitational force. In electromagnetism, energy is contained in the fields (electric and magnetic) associated with the force and not in the charges. In gravitation, the energy is contained in the matter itself. It is not a coincidence that mass bends spacetime, while the charges of the other three fundamental forces do not. \n\nRest energy = mass X (speed of light)2\n\n\nAccording to the equation, the total amount of energy obtainable from an object is equivalent to the mass of the object multiplied by the square of the speed of light. \n\nThis equation was crucial in the development of the atomic bomb. By measuring the mass of different atomic nuclei and comparing that number with the mass of the individual protons and neutrons, one can obtain an estimate of the binding energy available within an atomic nucleus. This not only showed that it was possible to release energy by fusion of light nuclei or fission of heavy nuclei, but also to estimate the amount of energy which can be released. \n\nIt is a little known piece of trivia that Einstein originally wrote the equation in the form m = L/c² (with an "L", instead of an "E", representing energy). \n\nA kilogram of mass completely converts into \n89,875,517,873,681,764 joules or \n24,965,421,632 kilowatt-hours or \n21.48076431 megatons of TNT \napproximately 0.0851900643 Quads (quadrillion British thermal units) \n\n\nIt is important to note that practical conversions of mass to energy are seldom 100 percent efficient. One theoretically perfect conversion would result from a collision of matter and antimatter; for most cases, byproducts are produced instead of energy, and therefore very little mass is actually converted. In the equation, mass is energy, but for the sake of clarity, the word converted is used. \n\nAccording to Umberto Bartocci (University of Perugia historian of mathematics), the equation was first published two years earlier by Olinto De Pretto, an industrialist from Vicenza, Italy, though this is not generally regarded as true or important by mainstream historians. Even if De Pretto introduced the formula, it was Einstein who connected it with the theory of relativity. Applicability of the equation E=mc² applies to all objects with mass, as it is a statement that mass is energy. Its applicability to moving objects depends on the definition of mass used in the equation.
401395
Way to go Arbitrage!  Oh to funny guy- yeah we get that E=MC2  IS a formula- but if you really want to "get it" Check out Maxwells equations. It's a great time to be a science nerd with all this info pouring in now! Figure it out & go up one on Albert!
414316
Hi,\nThe answer is C.\n\nYou could make a ray-diagram and see for yourself...
8321
The theoretical physics equation E = mc2 states a relationship between energy (E) and mass (m) first formulated by Albert Einstein in his 1905 paper "Ist die Trägheit eines Körpers von seinem Energieinhalt abhängig?" ("Does the Inertia of a Body Depend Upon Its Energy Content?", published in Annalen der Physik on September 27), one of the articles now known as his Annus Mirabilis Papers.
62455
Einstein's theory: e(energy)=m(mass)c(speed of light) squared so e=mc2
791590
E = m x c^2,\nso \n\nmass = Energy / c^2 (speed of light squared)
1001506
Dude! all you have to do is increase the velocity!\nOr Dude! I got it! E= MC2