(C) Transition $A$ is from $n = \infty$ to $n = 1$,which represents the series limit of the Lyman series.Transition $B$ is from $n = 5$ to $n = 2$,whi

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The series limit of Lyman series,third member of Balmer series and second member of Paschen series.

(C) Transition $A$ is from $n = \infty$ to $n = 1$,which represents the series limit of the Lyman series.Transition $B$ is from $n = 5$ to $n = 2$,which is the third member of the Balmer series (1st: $3 \rightarrow 2$,2nd: $4 \rightarrow 2$,3rd: $5 \rightarrow 2$).Transition $C$ is from $n = 5$ to $n = 3$,which is the second member of the Paschen series (1st: $4 \rightarrow 3$,2nd: $5 \rightarrow 3$).

Class 12 Physics Atoms Spectral Series of Hydrogen Atom

In the given figure,the energy levels of a hydrogen atom have been shown along with some transitions marked $A, B, C, D$ and $E$. The transitions $A, B$ and $C$ respectively represent:

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A
The ionization potential of hydrogen,second member of Balmer series and third member of Paschen series.
B
The first member of the Lyman series,third member of Balmer series and second member of Paschen series.
C
The series limit of Lyman series,third member of Balmer series and second member of Paschen series.
D
The series limit of Lyman series,second member of Balmer series and second member of Paschen series.

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Spectral Series of Hydrogen Atom

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Let $F_1$ be the frequency of the second line of the Lyman series and $F_2$ be the frequency of the first line of the Balmer series. Then,the frequency of the first line of the Lyman series is given by:

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The energy levels of the hydrogen spectrum are shown in the figure. There are some transitions $A, B, C, D$ and $E$. Transitions $A, B$ and $C$ respectively represent:

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In the hydrogen spectrum,the ratio of the wavelengths of the last line of the Lyman series and that of the last line of the Balmer series is:

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$A$ hydrogen atom is excited from the ground state to the energy level $n = 3$. According to Bohr's model,the number of spectral lines emitted is:

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$A$ hydrogen atom in its ground state absorbs a photon and the electron transitions to the $5^{th}$ orbit. When the excited atom returns to its ground state,it emits photons of various energies. What is the maximum number of spectral lines that can be obtained in this process?

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In the given figure,the energy levels of a hydrogen atom have been shown along with some transitions marked $A, B, C, D$ and $E$. The transitions $A, B$ and $C$ respectively represent:

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Let $F_1$ be the frequency of the second line of the Lyman series and $F_2$ be the frequency of the first line of the Balmer series. Then,the frequency of the first line of the Lyman series is given by:

The energy levels of the hydrogen spectrum are shown in the figure. There are some transitions $A, B, C, D$ and $E$. Transitions $A, B$ and $C$ respectively represent:

In the hydrogen spectrum,the ratio of the wavelengths of the last line of the Lyman series and that of the last line of the Balmer series is:

$A$ hydrogen atom is excited from the ground state to the energy level $n = 3$. According to Bohr's model,the number of spectral lines emitted is:

$A$ hydrogen atom in its ground state absorbs a photon and the electron transitions to the $5^{th}$ orbit. When the excited atom returns to its ground state,it emits photons of various energies. What is the maximum number of spectral lines that can be obtained in this process?

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