When a deuterium is bombarded on \({}_{8}^{16}\mathrm{O}\) nucleus, an \(\alpha\text-\)particle is emitted, then the product nucleus is:
1. \({}_{7}^{13}\mathrm{N}\)
2. \({}_{5}^{10}\mathrm{B}\)
3. \({}_{4}^{9}\mathrm{Be}\)
4. \({}_{7}^{14}\mathrm{N}\)

The mass of \({}_{7}^{15}\mathrm{N}\) is \(15.00011\) amu, mass of \({}_{8}^{16}\mathrm{O}\) is \(15.99492\) amu and \(m_p = 1.00783\) amu. Determine the binding energy of the last proton of \({ }_{8}^{16}\mathrm{O}\).
1. \(2.13\) MeV
2. \(0.13\) MeV 
3. \(10\) MeV 
4. \(12.13\) MeV

The power obtained in a reactor using \(\mathrm{U}^{235}\) disintegration is \(1000\) kW. The mass decay of \(\mathrm{U}^{235}\) per hour is:
1. \(1\) microgram
2. \(10\) microgram
3. \(20\) microgram
4. \(40\) microgram

In the nuclear reaction: \(\mathrm{X}\left(n,\alpha\right){}_{3}^{7}\mathrm{Li}\) the term \(\mathrm{X}\) will be:
1. \({}_{5}^{10}\mathrm{B}\)
2. \({}_{5}^{9}\mathrm{B}\)
3. \({}_{5}^{11}\mathrm{B}\)
4. \({}_{2}^{4}\mathrm{He}\)

In a radioactive decay process, the negatively charged emitted $\beta$-particles are: