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To find the Q-value of the given nuclear reaction, we need to understand the concept of binding energy and how it relates to the energy released or absorbed in a nuclear reaction.
The given reaction is:
\(^{298}_{94}X → ^{294}_{92}Y + ^{4}_{2}ɑ + Q\)
In a nuclear reaction, the Q-value is the difference between the total initial binding energy and the total final binding energy. It is defined as:
\(Q = (\text{Initial binding energy}) - (\text{Final binding energy})\)
The binding energy for a nucleus is given as the product of the binding energy per nucleon and the number of nucleons. Therefore:
Thus, the Q-value of the reaction is:
\(Q = (294b + 4c) - 298a\)
This simplifies to:
\(Q = 294b + 4c - 298a\)
Therefore, the correct answer is 294b + 4c - 298a.
The electric potential at the surface of an atomic nucleus \( (z = 50) \) of radius \( 9 \times 10^{-13} \) cm is \(\_\_\_\_\_\_\_ \)\(\times 10^{6} V\).
In a nuclear fission reaction of an isotope of mass \( M \), three similar daughter nuclei of the same mass are formed. The speed of a daughter nuclei in terms of mass defect \( \Delta M \) will be: