[" to ionise the hydrogen atom."],[" then energy required to "],[" remove an electron from "n=2],[" is "],[0.102ev]

If 13.6 ev energy is required to ionize the hydrogen atom, then the energy required to remove an electron from n=2 is

If 13.6 eV energy is required to lonize the hydrogen atom, then the energy required to remove an electron from n =2 is

If 13.6 eV energy is required to ionized the hydrogen atom, then the energy required to remove an electron from n = 2 is

If 13.6 eV energy is required to ionized the hydrogen atom, then the energy required to remove an electron from n = 2 is

If 13.6 eV energy is required to ionized the hydrogen atom then , then the energy required to remove an electron from n = 2 is

If 13.6 eV energy is required to ionized the hydrogen atom then the energy required to ionize the hydrogen atom , then the energy required to remove an electron from n = 2 is

If 13.6 eV energy is required to ionized the hydrogen atom then the energy required to ionize the hydrogen atom , then the energy required to remove an electron from n = 2 is

Bohr's model of hydrogen atom In order to explain the stability of atom and its line spectra, Bohr gave a set of postulates: An electron in an atom revolves in certain circular orbit around the nucleus. These are the orbits for which mvr=(nh)/(2pi) In these allowed orbits, the electron does not radiate energy. When an electron jumps from higher energy level E_(n_2) to lower energy orbit E_(n_1) , radiation is emittd and frequency of emitted electron is given by v=(E_(n_2)-E_(n_1))/h . Further the radius of the n^(th) orbit of hydrogen atom is r=(n^2h^24piepsilon_0)/(4pi^2me^2) and energy of the n^(th) orbit is given by E_n=-13.6/n^2 eV . If 13.6 eV energy is required to ionise the hydrogen atom, then enegy required to remove an electron from n=2 is:

If 13.6 eV energy is required to 10ise the hydrogen atom, then energy required to remove an electron from n = 2 is