a. 25 1H1 + 30 0n1 ----> 25Mn55
b. The change in mass (m) = (25*1.0078 + 30*1.0087) u - 54.9380 u
= 55.456 u - 54.9380 u
= 0.518 u
c. The binding energy for one atom of manganese (E) = mc2
= (0.518 u/nucleus * 1.6606*10-27 kg/u) * (2.9979*108 m/s)2
= 7.7309*10-11 J/nucleus
d. 1 g of manganese = 1 g/54.9380 g.mol-1 = 0.0182 mol = 0.0182 * 6.023*1023 nuclei = 1.0963*1022 nuclei
Therefore, the binding energy for 1 g of manganese = 1.0963*1022 nuclei * 7.7309*10-11 J/nucleus = 8.4756*1011 J
18. Given that the mass of manganese-55 is 54.9380 u, calculate the total binding energy a. Write the nuclear react...
Calculate the nuclear binding energy of 55/25 Mn in joules.Constants and conversion factorsThe atomic mass of 55/25 Mn is 54.938 .The speed of light is c= 3.00×10^8 M/S .The mass of a proton is 1.0078 amu .The mass of a neutron is 1.0087 amu .The mass of an electron is 5.4858×10^-4 amu .. 1kg=6.022*10^26 amu. 1 J= 1 Kg* m^2/s^2. 1 MeV= 1.602*10^-13 Joules
18) Calculate the nuclear binding energy in joules and in J/nucleon for Li-7 nucleus with a mass of 7.01600 amu. (Mass of a proton: 1.00782 amu Mass of a neutron: 1.00866 amu 1 amu = 1.6605 x 1027 Kg, C = 3.0 x 108 m/s )
Calculating Mass Defect and Nuclear Binding Energy Learning Goal: To learn how to calculate the binding energy of a nucleus. The measured masses of nuclei are consistently lower than predicted by the sum of their particles. This discrepancy is called the mass defect, and it can be used to calculate the nuclear binding energy according to Einstein's famous equationΔE = Δmc2 where ΔE is the energy produced, Δm is the mass lost, and c 3.00 x 108 m/s. Nuclear binding energy is the energy holding the...
The most stable nucleus in terms of binding energy per nucleon is ⁵⁶Fe. If the atomic mass of ⁵⁶Fe is 55.9349 amu, calculate the binding energy per nucleon for ⁵⁶Fe. The mass of a hydrogen atom is 1.0078 amu, and the mass of a neutron is 1.0087 amu. (1 J = 1 kg・m²/s², 1 amu = 1.66 × 10⁻²⁷ kg)
24. Calculate the nuclear binding energy per nucleon, in joules, for Cu-63 (nuclear mass 62.91367 amu). Additional data: mass of proton= 1.00728 amu, mass of neutron= 1.00867 annu; 1 g-6.022x 10 amu; c-3.00x 108 m/s.
3- Calculate the Binding energy in Joules and in joules/nucleon for Xe-129 with a nuclear mass of 128.9048 amu (Mass: (proton): 1.00782 amu, (neutron): 1.00866 amu) (1 amu= 1.6605 x 10-27 Kg, C-3.0 x 108 m/s).
In the plot of binding energy per nucleon versus mass number, you will note that the plot peaks around A 60. Nuclei below and above this value have a smaller binding energy. To prove this point determine the binding energy (in MeV) of 28 Ni, 626Fe with an A number of one less than 628Ni, and 639Cu with an A number of one greater than 638 Ni. (Let the mass of a proton be 1.0078 u, the mass of a...
Calculate the mass defect and the nuclear binding energy per nucleon for Ti-48 (atomic mass = 47.947947 amu). The mass of a proton is 1.00728 amu, the mass of a neutron is 1.008665 amu, and the mass of an electron is 0.00055 amu. A. Nuclear binding energy per nucleon = 5.6062 MeV/nucleon B. Nuclear binding energy per nucleon = 7.0754 MeV/nucleon C. Nuclear binding energy per nucleon = 8.0534 MeV/nucleon D. Nuclear binding energy per nucleon = 8.7204 MeV/nucleon E....
Stars generate energy through nuclear fusion. A fusion reaction is exoergic (i.e., it gives off energy) if the product has a lower rest energy than the original nuclei. The binding energy of a nucleus is defined as the difference between the rest energy that the individual particles would have if they were not bound in a nucleus and the rest energy of the nucleus itself. So, stated another way, fusion reactions are exoergic if the binding energy of the product...
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