E = M c2
M = (E) / (c2)
M = (9 x 1016) / (3 x 108)2
= (9 x 1016) / (9 x 1016)
= 1 kg
Amazing. That's a lotta energy. Like 2.85 gigawatt-years, according to my Casio !
Einstein's equation in it's simplest form is E=mc2 so to get 9*1016 J divide this by c2 which would give you the mass 'which in this case is 1, In these units I believe this is 1kg
it is the food that is produced in plants
If 1 mole of carbon reacts, 1 mole of CO is produced according to the balanced chemical equation for the reaction. Therefore, if 1.4 moles of carbon react, 1.4 moles of CO will be produced.
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The balanced chemical equation for the reaction is: C + 2SO2 → CS2 + 2O2. From the equation, 1 mole of carbon produces 1 mole of CS2. Therefore, if 5.9 moles of carbon react, 5.9 moles of CS2 are produced.
Albert Einstein
1.2 Moles
In most cases, if matter seems to disappear during a chemical reaction it is because there is an invisible gas produced by the reaction that you did not see or measure.
CH4 + 2O2 --> CO2 + 2H2O
Einstein's equation, (E=mc^2), can be used to calculate the energy (E) equivalent of a mass (m) at rest, where (c) represents the speed of light in a vacuum (approximately (3 \times 10^8) meters per second). This relationship illustrates the principle of mass-energy equivalence, indicating that mass can be converted into energy and vice versa. It has applications in nuclear physics, such as in the calculations of energy released in nuclear reactions or the energy produced by particle-antiparticle annihilation.
The equation for the reaction of iron oxide and metal oxide is: Fe2O3(s) + 2M(s) → 2Fe(s) + MO(s) The gas produced in this reaction could depend on the metal oxide being used, but commonly oxygen gas (O2) is produced as a byproduct.
Mesopotamis would ave less people in its population and would eventually disappear.