If radon-210 undergoes alpha decay, it will produce the alpha particle (which is a helium-4 nucleus) and polonium-206. The equation looks like this: 86210Ra => 24He + 84206Po You'll note that in the balanced nuclear equation, the atomic numbers, which are the subscripts, balance on both sides of the equation (86 = 2 + 84). The atomic masses, which are the superscripts, also balance on both sides of the equation (210 = 4 + 206).
In a balanced nuclear equation, the sum of the mass numbers on the right must equal the sum on the left
The balanced nuclear equation for the beta decay of potassium-42 is: ^42K -> ^42Ca + e^- + νe
Boron-10 (^10B) undergoing neutron capture forms boron-11 (^11B), followed by the emission of an alpha particle (helium-4 atom). The balanced nuclear equation would be: ^10B + n → ^11B + ^4He
The balanced nuclear equation for the fission of uranium-235 is: U-235 + n-1 -> Ba-141 + Kr-92 + 3 n-1 This equation shows the uranium-235 nucleus absorbing a neutron and splitting into barium-141, krypton-92, and three neutrons.
Nuclear notations are used to represent the decay of one element into another. The generic formula for a radioactive element is X-M = X-(M-4) + He-4 where X is the symbol for the element, M represents the mass number for the element. An equation for gold-191 may be Au-191 = Au-187 + He-4.
A nuclear equation is balanced when the sum of atomic numbers and mass numbers on each side of the equation is the same.
In a balanced nuclear equation, the sum of the mass numbers on the right must equal the sum on the left
The balanced nuclear equation for the beta decay of potassium-42 is: ^42K -> ^42Ca + e^- + νe
Boron-10 (^10B) undergoing neutron capture forms boron-11 (^11B), followed by the emission of an alpha particle (helium-4 atom). The balanced nuclear equation would be: ^10B + n → ^11B + ^4He
The balanced nuclear equation for the alpha decay of thorium-230 is: ^230Th → ^226Ra + ^4He
Po-216- -----------------> Pb-212
The balanced nuclear equation for the fission of uranium-235 is: U-235 + n-1 -> Ba-141 + Kr-92 + 3 n-1 This equation shows the uranium-235 nucleus absorbing a neutron and splitting into barium-141, krypton-92, and three neutrons.
For nuclear decay, you must also specify what isotope you are talking about. Just saying "Sulfur" simply isn't enough information.
The equation for the beta decay of 137Cs:55137Cs --> 56137Ba + -10e where the e is a negative beta particle or electron.
What is the equation that calculates in nuclear reaction?
The law of conservation of mass states that in any chemical reaction, matter is neither created nor destroyed. Therefore, in a balanced chemical equation you must have the same number of atoms of each element 1) on either side of the equation.1) ImprovementAlso the conservation of 'Elements' comes into my mind: it is necessarily for a well balanced equation. If we sort out 'Nuclear Reactions' then this is a true case!
The law of conservation of mass is obeyed when a chemical equation is balanced. This law states that the total mass of the reactants must equal the total mass of the products in a chemical reaction. Balancing an equation ensures that the number of atoms of each element is the same on both sides of the equation, thus conserving mass.