SUMMARY
The half-life of a radioisotope can be calculated using the decay constant (\lambda) derived from the decay equation. In this discussion, the initial activity (A₀) was 3000 counts per minute, and the activity after 48 hours (Aₜ) was 2736 counts per minute. The decay equation used was \ln{\frac {[A]_{0}}{[A]_{t}}} = kt, leading to the half-life formula t_{\frac {1}{2}} = \frac {\ln{2}}{k}. The final calculated half-life was 21661 minutes, equivalent to 361 hours.
PREREQUISITES
- Understanding of radioactive decay and half-life concepts
- Familiarity with logarithmic functions and their applications
- Knowledge of the decay constant (\lambda) and its significance
- Basic algebra skills for manipulating equations
NEXT STEPS
- Study the derivation of the half-life equation in nuclear physics
- Learn about the applications of decay constants in different radioisotopes
- Explore the implications of half-life in radiometric dating techniques
- Investigate the relationship between half-life and radioactive decay series
USEFUL FOR
Students studying nuclear physics, educators teaching radioactivity concepts, and professionals working in fields involving radioisotopes and their applications.