The energy released in the decay process involves the conversion of mass into energy according to Einstein's relation \( E = mc^2 \). Given the mass number 236 and the energy \( E \) of the alpha particle, the ratio can be calculated based on the energy equivalence and decay mechanism.
Step 1: The total energy released during the process of an $\alpha$-particle decay can be related to the ratio of mass numbers and energy based on decay theory. Using the formula derived from the decay laws, we calculate the total energy as: \[ E_{total} = \frac{59E}{58} \] Thus, the correct answer is \( \frac{59E}{58} \).
Match the LIST-I with LIST-II
| LIST-I (Type of decay in Radioactivity) | LIST-II (Reason for stability) | ||
|---|---|---|---|
| A. | Alpha decay | III. | Nucleus is mostly heavier than Pb (Z=82) |
| B. | Beta negative decay | IV. | Nucleus has too many neutrons relative to the number of protons |
| C. | Gamma decay | I. | Nucleus has excess energy in an excited state |
| D. | Positron Emission | II. | Nucleus has too many protons relative to the number of neutrons |
Choose the correct answer from the options given below: