SUMMARY
The binding energy per nucleon for Helium-4 (4He) is calculated using the mass defect and Einstein's equation E=Δmc². The mass defect (Δm) is determined to be 0.02928u, which must be converted to kilograms (1u = 1.66x10^-27kg) for accurate energy calculations. The total binding energy of the nucleus is found to be -2.6352x10^15 J, leading to a binding energy per nucleon of -1.13x10^-12 J/nucleon. This calculation illustrates the average energy required to remove a nucleon from the nucleus.
PREREQUISITES
- Understanding of mass defect in nuclear physics
- Familiarity with Einstein's equation E=Δmc²
- Knowledge of atomic mass units (u) and their conversion to kilograms
- Basic concepts of nucleons, including protons and neutrons
NEXT STEPS
- Learn how to convert atomic mass units to kilograms accurately
- Study the concept of nuclear binding energy in different isotopes
- Explore the implications of binding energy on nuclear stability
- Investigate the calculation of binding energy for other elements using similar methods
USEFUL FOR
Students in nuclear physics, educators teaching atomic structure, and researchers interested in nuclear binding energy calculations.