363679 The mass of proton, neutron and helium nucleus are respectively \(1.0073\,u,\,\,1.0087\,u\) and \(4.0015\,u.\) The binding energy of helium nucleus is

363680 The above is a plot of binding energy per nucleon \({E_b},\) against the nuclear mass \(M;A,\,B,\,C,\,D,\,E\,\& \,F\) correspond to different nuclei. Consider four reactions
\((i)A + B \to C + \varepsilon \,\,\,\,\,\,\,\,\,\,(ii)C \to A + B + \varepsilon \)
\((iii){\rm{ }}D + E \to F + \varepsilon {\rm{ }}\,\,(iv){\rm{ }}F \to D + E + \varepsilon \)
Where \(\varepsilon \) is the energy released? In which reactions is \(\varepsilon \) positive?

363681 A nucleus \({}_Z^AX\) has mass represented by \(m(A,Z)\). If \({m_p}\) and \({m_n}\) denote the mass of proton and neutron respectively and \(BE\) the binding energy (in \(MeV\)), then

363682 When two nuclei (with \(A=8\) ) join to form a heavier nucleus, the Binding Energy \((BE)\) per nucleon of the heavier nuclei is

363683 If \({M_0}\) is the mass of an oxygen isotope \(_8{O^{17}},{m_p}\,and\,{m_n}\) are the masses of a proton and a neutron respectively the nuclear binding energy of the isotope is:

363679 The mass of proton, neutron and helium nucleus are respectively \(1.0073\,u,\,\,1.0087\,u\) and \(4.0015\,u.\) The binding energy of helium nucleus is

363680 The above is a plot of binding energy per nucleon \({E_b},\) against the nuclear mass \(M;A,\,B,\,C,\,D,\,E\,\& \,F\) correspond to different nuclei. Consider four reactions
\((i)A + B \to C + \varepsilon \,\,\,\,\,\,\,\,\,\,(ii)C \to A + B + \varepsilon \)
\((iii){\rm{ }}D + E \to F + \varepsilon {\rm{ }}\,\,(iv){\rm{ }}F \to D + E + \varepsilon \)
Where \(\varepsilon \) is the energy released? In which reactions is \(\varepsilon \) positive?

363681 A nucleus \({}_Z^AX\) has mass represented by \(m(A,Z)\). If \({m_p}\) and \({m_n}\) denote the mass of proton and neutron respectively and \(BE\) the binding energy (in \(MeV\)), then

363682 When two nuclei (with \(A=8\) ) join to form a heavier nucleus, the Binding Energy \((BE)\) per nucleon of the heavier nuclei is

363683 If \({M_0}\) is the mass of an oxygen isotope \(_8{O^{17}},{m_p}\,and\,{m_n}\) are the masses of a proton and a neutron respectively the nuclear binding energy of the isotope is:

363679 The mass of proton, neutron and helium nucleus are respectively \(1.0073\,u,\,\,1.0087\,u\) and \(4.0015\,u.\) The binding energy of helium nucleus is

363680 The above is a plot of binding energy per nucleon \({E_b},\) against the nuclear mass \(M;A,\,B,\,C,\,D,\,E\,\& \,F\) correspond to different nuclei. Consider four reactions
\((i)A + B \to C + \varepsilon \,\,\,\,\,\,\,\,\,\,(ii)C \to A + B + \varepsilon \)
\((iii){\rm{ }}D + E \to F + \varepsilon {\rm{ }}\,\,(iv){\rm{ }}F \to D + E + \varepsilon \)
Where \(\varepsilon \) is the energy released? In which reactions is \(\varepsilon \) positive?

363681 A nucleus \({}_Z^AX\) has mass represented by \(m(A,Z)\). If \({m_p}\) and \({m_n}\) denote the mass of proton and neutron respectively and \(BE\) the binding energy (in \(MeV\)), then

363682 When two nuclei (with \(A=8\) ) join to form a heavier nucleus, the Binding Energy \((BE)\) per nucleon of the heavier nuclei is

363683 If \({M_0}\) is the mass of an oxygen isotope \(_8{O^{17}},{m_p}\,and\,{m_n}\) are the masses of a proton and a neutron respectively the nuclear binding energy of the isotope is:

363679 The mass of proton, neutron and helium nucleus are respectively \(1.0073\,u,\,\,1.0087\,u\) and \(4.0015\,u.\) The binding energy of helium nucleus is

363680 The above is a plot of binding energy per nucleon \({E_b},\) against the nuclear mass \(M;A,\,B,\,C,\,D,\,E\,\& \,F\) correspond to different nuclei. Consider four reactions
\((i)A + B \to C + \varepsilon \,\,\,\,\,\,\,\,\,\,(ii)C \to A + B + \varepsilon \)
\((iii){\rm{ }}D + E \to F + \varepsilon {\rm{ }}\,\,(iv){\rm{ }}F \to D + E + \varepsilon \)
Where \(\varepsilon \) is the energy released? In which reactions is \(\varepsilon \) positive?

363681 A nucleus \({}_Z^AX\) has mass represented by \(m(A,Z)\). If \({m_p}\) and \({m_n}\) denote the mass of proton and neutron respectively and \(BE\) the binding energy (in \(MeV\)), then

363682 When two nuclei (with \(A=8\) ) join to form a heavier nucleus, the Binding Energy \((BE)\) per nucleon of the heavier nuclei is

363683 If \({M_0}\) is the mass of an oxygen isotope \(_8{O^{17}},{m_p}\,and\,{m_n}\) are the masses of a proton and a neutron respectively the nuclear binding energy of the isotope is:

363679 The mass of proton, neutron and helium nucleus are respectively \(1.0073\,u,\,\,1.0087\,u\) and \(4.0015\,u.\) The binding energy of helium nucleus is

363680 The above is a plot of binding energy per nucleon \({E_b},\) against the nuclear mass \(M;A,\,B,\,C,\,D,\,E\,\& \,F\) correspond to different nuclei. Consider four reactions
\((i)A + B \to C + \varepsilon \,\,\,\,\,\,\,\,\,\,(ii)C \to A + B + \varepsilon \)
\((iii){\rm{ }}D + E \to F + \varepsilon {\rm{ }}\,\,(iv){\rm{ }}F \to D + E + \varepsilon \)
Where \(\varepsilon \) is the energy released? In which reactions is \(\varepsilon \) positive?

363681 A nucleus \({}_Z^AX\) has mass represented by \(m(A,Z)\). If \({m_p}\) and \({m_n}\) denote the mass of proton and neutron respectively and \(BE\) the binding energy (in \(MeV\)), then

363682 When two nuclei (with \(A=8\) ) join to form a heavier nucleus, the Binding Energy \((BE)\) per nucleon of the heavier nuclei is

363683 If \({M_0}\) is the mass of an oxygen isotope \(_8{O^{17}},{m_p}\,and\,{m_n}\) are the masses of a proton and a neutron respectively the nuclear binding energy of the isotope is: