Home
Class 12
PHYSICS
A hydrogen like atom (atomic number Z) i...

A hydrogen like atom (atomic number Z) is in a higher excited state of quantum number 'n' this excited atom can make a transition to the first excited state by emitting a photon of first `27.2eV`. Alternatively the atom from the same excited state can make a transition to the 2nd excited state by emitting photon of energy `10.20eV` the value of `n` and `z` are given (ionization energy of hydrogen atom is 13.6eV)

A

n=6 and z=3

B

n=3 and z=6

C

n=8 and z=4

D

n=4 and z=8

Text Solution

Verified by Experts

The correct Answer is:
A

`Delta E_(1) =27.2 =(13.6)[(1)/(4)-(1)/(n^2)]z^(2)`
`Delta E_(2) =10.2 =(13.6) [(1)/(9)-(1)/(n^2)]z^(2)` .
Promotional Banner

Topper's Solved these Questions

Similar Questions

Explore conceptually related problems

A hydrogen like atom (atomic number Z) is in a higher excited state of quantum number 'n' this excited atom can make a transition to the first excited state by emitting a photon of first 27.2eV . Alternatively the atom from the same excited state can make a transition of energy 10.20eV the value of n and z are given (ionization energy of hydrogen atom is 13.6eV)

A hydrogen like atom (atomic number Z) is in a higher excited satte of quantum number n .This excited atom can make a transition to the first excited state by succesively emitting two photon of energies 10.20 eV and 17.00 eV .Alternatively, the atom from the same excited state can make a transition to the second excited state by successively emitting twio photon of energy 4.25 ev and 5.95 eV Determine the followings: The value of atomic number (Z) is

A hydrogen like atom (atomic number Z) is in a higher excited satte of quantum number n .This excited atom can make a transition to the first excited state by succesively emitting two photon of energies 10.20 eV and 17.00 eV .Alternatively, the atom from the same excited state can make a transition to the second excited state by successively emitting twio photon of energy 4.25 ev and 5.95 eV Determine the followings: The excited sate (n) of the atom is

A hydrogen like atom (atomic number Z) is in a higher excited satte of quantum number n .This excited atom can make a transition to the first excited state by succesively emitting two photon of energies 10.20 eV and 17.00 eV .Alternatively, the atom from the same excited state can make a transition to the second excited state by successively emitting twio photon of energy 4.25 ev and 5.95 eV Determine the followings: The hydrogen -like atom in the question is

A hydrogen like atom (atomic number Z) is in a higher excited satte of quantum number n .This excited atom can make a transition to the first excited state by succesively emitting two photon of energies 10.20 eV and 17.00 eV .Alternatively, the atom from the same excited state can make a transition to the second excited state by successively emitting twio photon of energy 4.25 ev and 5.95 eV Determine the followings: The atom during transition from n = 1 to n = 2 emit radiation in the region of

A hydrogen like atom (atomic number z ) is in a higher excited state of quantum number n . This excited atom can make a transition to the first excited state by successively emitting two photons of energies 10.2 eV and 17.0 eV respectively. Alternatively the atom from the same excited state can make a transition to the second excited state by successively emitting 2 photons of energy 4.25 eV and 5.95 eV respectively. Determine the value of (n+z)

A hydrogen like atom (atomic number Z) is in a higher excited state of quantum number n. The excited atom can make a transition ot the first excited state by successively emitting two photons of energy 10.2 eV and 17.0 eV, respectively. Alternatively, the atom from the same excited state can make a transition to the second excited state by successively emitting two photons of energies 4.25 eV and 5.95 eV, respectivley Determine the values of n and Z. (lonization energy of H-atom = 13.6 eV)

A hydrogen like atom (atomic number = Z) is in higher excited state of quantum number n. This excited atom can make a transition to first excited state by successively emitting two photons of energy 22.94 eV and 5.15 eV . The atom from the same state n can make transition to second excited state by successively emitting two photons of energies 2.4 eV and 8.7 eV . Find values of n and Z.

NARAYNA-ATOMS -EXERCISE -4
  1. In a Bohr atom the electron is replaced by a particle of mass 150 time...

    Text Solution

    |

  2. If the wavelength of the first member of Balmer series of hydrogen spe...

    Text Solution

    |

  3. A hydrogen like atom (atomic number Z) is in a higher excited state of...

    Text Solution

    |

  4. Photon from n=2 to n=1 in hydrogen atom is made to fall on a metal su...

    Text Solution

    |

  5. Let nu(1) be the frequency of the series limit of the lyman series n...

    Text Solution

    |

  6. (a) (i) Find the wavelength of the radiation required to excite thye e...

    Text Solution

    |

  7. Find the wavelength in a hydrogen spectrum between the range 500nm to ...

    Text Solution

    |

  8. The largest wavelength in the ultraviolet region of the hydrogen spect...

    Text Solution

    |

  9. The electric potential between a proton and as electron is given by V=...

    Text Solution

    |

  10. If elements of quantum number greater than n were not allowed , the nu...

    Text Solution

    |

  11. Magnetic field at the center (at nucleus) of the hydrogen like atom ("...

    Text Solution

    |

  12. The recoil speed of a hydrogen atom after it emits a photon in going f...

    Text Solution

    |

  13. The binding energy of an electron in the ground state of He atom is E(...

    Text Solution

    |

  14. In hydrogen atom, the radius of n^(th) Bohr orbit is r(n). The graph B...

    Text Solution

    |

  15. In hydrogen atom, the area enclosed by n^(th) orbit is A(n). The graph...

    Text Solution

    |

  16. An electron in the ground state of hydrogen atom is revolving in antic...

    Text Solution

    |

  17. if we assume only gravitational attraction between proton and electro...

    Text Solution

    |

  18. Taking the Bohr radius a(0) = 53 pm, the radius of Li^(++) ion in its ...

    Text Solution

    |

  19. The simple Bohr model cannot be directly ap-plied to calculate the ene...

    Text Solution

    |

  20. Two H atoms in the ground state collide in elastically. The maximum am...

    Text Solution

    |