(B) The Balmer series corresponds to transitions where the final orbit is $n_1 = 2$.For any spectral series,the $k$-th line corresponds to a transitio

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Fifth Bohr orbit to the second Bohr orbit

(B) The Balmer series corresponds to transitions where the final orbit is $n_1 = 2$.For any spectral series,the $k$-th line corresponds to a transition from $n_2 = n_1 + k$.For the Balmer series,$n_1 = 2$.The third line $(k = 3)$ corresponds to the transition from $n_2 = 2 + 3 = 5$.Therefore,the transition is from the $5^{th}$ Bohr orbit to the $2^{nd}$ Bohr orbit.

Class 12 Physics Atoms Spectral Series of Hydrogen Atom

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The third line of the Balmer series in the emission spectrum of the hydrogen atom is due to the transition of an electron from the:

A
Fourth Bohr orbit to the first Bohr orbit
B
Fifth Bohr orbit to the second Bohr orbit
C
Sixth Bohr orbit to the second Bohr orbit
D
Seventh Bohr orbit to the second Bohr orbit

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Spectral Series of Hydrogen Atom

The ratio of longest wavelengths of the spectral lines in the Lyman and Balmer series of hydrogen spectrum is

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The ratio of maximum to minimum wavelength in the Balmer series of a hydrogen atom is

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Find the ratio of the wavelength of the first line of the Lyman series for a doubly ionized lithium atom $(Li^{2+})$ to the wavelength of the first line of the Lyman series for deuterium $(D)$.

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The shortest wavelength in the Balmer series of a hydrogen atom is equal to the shortest wavelength in the Brackett series of a hydrogen-like atom of atomic number $Z$. The value of $Z$ is:

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In the Lyman series,the series limit of wavelength is $\lambda_1$. The wavelength of the first line of the Lyman series is $\lambda_2$ and in the Balmer series,the series limit of wavelength is $\lambda_3$. Then the relation between $\lambda_1$,$\lambda_2$,and $\lambda_3$ is

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The third line of the Balmer series in the emission spectrum of the hydrogen atom is due to the transition of an electron from the:

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The ratio of longest wavelengths of the spectral lines in the Lyman and Balmer series of hydrogen spectrum is

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