Home
Class 12
PHYSICS
The neutron separation energy is defined...

The neutron separation energy is defined to be the energy required to remove a neutron form nucleus. Obtain the neutron separation energy of the nuclei `._(20)Ca^(41)` and `._(13)Al^(27)` from the following data : `m(._20Ca^(40))=39.962591u` and `m(._(20)Ca^(41))=40.962278u`
`m(._(13)Al^(26))=25.986895u` and `m(._(13)Al^(27))=26.981541u`

Text Solution

AI Generated Solution

To find the neutron separation energy (NSE) for the nuclei \( _{20}^{41}\text{Ca} \) and \( _{13}^{27}\text{Al} \), we will follow these steps: ### Step 1: Calculate the mass defect for \( _{20}^{41}\text{Ca} \) The mass defect (\( \Delta m \)) is calculated using the formula: \[ \Delta m = m(\text{Ca}^{41}) - \left( m(\text{Ca}^{40}) + m(\text{neutron}) \right) \] ...
Promotional Banner

Topper's Solved these Questions

  • NUCLEI

    NCERT ENGLISH|Exercise Exercise|31 Videos
  • MOVING CHARGES AND MANGNETISM

    NCERT ENGLISH|Exercise Exercise|28 Videos
  • RAY OPTICS AND OPTICAL INSTRUMENTS

    NCERT ENGLISH|Exercise Exercise|32 Videos

Similar Questions

Explore conceptually related problems

Obtain the binding energy of the nuclei ._26Fe^(56) and ._83Bi^(209) in units of MeV from the following data: m(._26Fe^(56))=55.934939a.m.u. , m=(._83Bi^(209))=208.980388 a m u . Which nucleus has greater binding energy per nucleon? Take 1a.m.u =931.5MeV

Calculate the energy required to remove the least tightly neutron form .^20(Ca^(40)) . Given that Mass of .^20(Ca^(40)) = 39.962589 amu Mass of .^20(Ca^(39)) = 38.970691 amu Mass of neutron = 1.008665 amu

(a) Find the energy needed to remove a neutron from the nucleus of the calcium isotopes ._(20)^(42)Ca (b) Find the energy needed to remove a proton from this nucleus (c ) Why are these energies different ? Atomic masses of ._(20)^(41)Ca and ._(20)^(42)Ca are 40.962278 u and 41.958622 u respectively.

(a) Find the energy needed to remove a neutron from the nucleus of the calcium isotope ._(20)^(42)Ca . (b) Find the energy needed to remove a proton from this nucleus. (c ) Why are these energies different? Mass of ._(20)^(40)Ca =40.962278u , mass of proton =1.007825 u .

Calculate binding energy of oxygen nucleus (""_(8)^(16)O) from the data given below: Mass of a proton m_(p) = 1.007825u Mass of neutron m_(n) = 1.008665u Mass of (""_(8)^(16)O)m_(o) = 15.994915 u

Nuclei with magic no. of proton Z=2,8,20,28,50,52 and magic no. of neutrons N=2,8,20,28,50,82 and 126 are found to be stable. (i) Verify this by calculating the proton separation energy S_(p) for .^(120)Sn (Z=50) and .^(121)Sb =(Z=51) . The proton separation energy for a nuclide is the minimum energy required to separated the least tightly bound proton form a nucleus of that nuclide. It is given by S_(p)=(M_(z-1,N)+M_(H)-M_(Z,N))c^(2) . given .^(119)Sn_49 =118.9058u, .^(120) Sn_50 =119.902199u, .^(121)Sb_51=120.903824u, .^(1)H=1.0078252u (ii) what does the existence of magic number indicate?

Suppose, we think of fission of a ._26Fe^(56) nucleus into two equal fragments ._13Al^(28) . Is the fission energetically possible? Argue by working out Q of the process. Given m(._26Fe^(56))=55.93494u, m(._13Al^(28))=27.98191 u.

If m_(p) is the mass of proton. m_(n) that of a neutron, M_(1) that of _(10)Ne^(20) nucleus and M_(2) that of _(20)Ca^(40) nucleus, then which of the following relations is//are not true?

Obtain the binding energy of a nitrogen nucleus from the following data: m_H=1.00783u ,m_N=1.00867u ,m( _7^14N)=14.00307u Give your answer in units of MeV. [Remember 1u=931.5MeV//c^2 ]

Calculate the average energy required to extract a nucleon from the nucleus of an alpha - particle. the mass of 'alpha' -particle , proton and neutron are 4.00150 a.m.u 1.00728 a.m.u and 1.00867 amu respectively .

NCERT ENGLISH-NUCLEI-Exercise
  1. Consider the following nuclear fission reaction .(88)Ra^(226) to ....

    Text Solution

    |

  2. The radionuclide .6C^(11) decays according to .6C^(11)to .5B^(11) +e^(...

    Text Solution

    |

  3. The nucleus .^(23)Ne deacays by beta-emission into the nucleus .^(23)...

    Text Solution

    |

  4. The Q value of a nuclear reaction A+b=C+d is defined by Q=[mA+mb-mC-...

    Text Solution

    |

  5. Suppose, we think of fission of a .26Fe^(56) nucleus into two equal fr...

    Text Solution

    |

  6. The fission properties of .84Pu^(239) are very similar to those of .92...

    Text Solution

    |

  7. A 1000 MW fission reactor consumes half of its fuel in 5.00yr. How muc...

    Text Solution

    |

  8. How long can an electric lamp of 100W be kept glowing by fusion of 2.0...

    Text Solution

    |

  9. Calculate the height of potential barrier for a head on collision of t...

    Text Solution

    |

  10. from the relation R=R0A^(1//3), where R0 is a constant and A is the ma...

    Text Solution

    |

  11. for the beta^(+) (positron) emission from a nucleus, there is another ...

    Text Solution

    |

  12. In a periodic table, the average atomic mass of magnesium is given as ...

    Text Solution

    |

  13. The neutron separation energy is defined to be the energy required to ...

    Text Solution

    |

  14. A source contains two phosphorus radionuclides .(15)P^(35) (T(1//2)=14...

    Text Solution

    |

  15. Under certain circumstances, a nucleus can decay by emitting a particl...

    Text Solution

    |

  16. Consider the fission .(92)U^(238) by fast neutrons. In one fission eve...

    Text Solution

    |

  17. Consider the so called D-T reaction (deuterium-tritium fusion) .1H^2+....

    Text Solution

    |

  18. Obtain the maximum kinetic energy of beta-particles, and the radiation...

    Text Solution

    |

  19. Calculate and compare the energy released by (a) fusion of 1.0kg of hy...

    Text Solution

    |

  20. Suppose India has a target of producing by 2020 AD, 200,000 MW of elec...

    Text Solution

    |