The Line Spectra of the Hydrogen Atom
PHXII12:ATOMS

356569 The energy levels of an hydrogen atom are shown below. The transition corresponding to emission of shortest wavelength is
supporting img

1 \(D\)
2 \(B\)
3 \(C\)
4 \(A\)
PHXII12:ATOMS

356570 The frequencies for series limit of Balmer and Paschen series respectively are \('{v_1}'\) and \('{v_3}'\). If frequency of first line of Balmer series is then the relation between \('{v_1}','{v_2}'\) and \('{v_3}'\) is

1 \({v_1} - {v_2} = {v_3}\)
2 \({v_1} + {v_3} = {v_2}\)
3 \({v_1} + {v_2} = {v_3}\)
4 \({v_1} - {v_3} = 2{v_1}\)
PHXII12:ATOMS

356571 The spectral series of the hydrogen spectrum that lies in the ultraviolet region is the

1 P fund series
2 Balmer series
3 Lyman series
4 Paschen series
PHXII12:ATOMS

356572 Spectrum of sunlight is an example for

1 Band emission spectrum
2 Line absorption spectrum
3 Continuous emission spectrum
4 Continuous absorption spectrum
PHXII12:ATOMS

356569 The energy levels of an hydrogen atom are shown below. The transition corresponding to emission of shortest wavelength is
supporting img

1 \(D\)
2 \(B\)
3 \(C\)
4 \(A\)
PHXII12:ATOMS

356570 The frequencies for series limit of Balmer and Paschen series respectively are \('{v_1}'\) and \('{v_3}'\). If frequency of first line of Balmer series is then the relation between \('{v_1}','{v_2}'\) and \('{v_3}'\) is

1 \({v_1} - {v_2} = {v_3}\)
2 \({v_1} + {v_3} = {v_2}\)
3 \({v_1} + {v_2} = {v_3}\)
4 \({v_1} - {v_3} = 2{v_1}\)
PHXII12:ATOMS

356571 The spectral series of the hydrogen spectrum that lies in the ultraviolet region is the

1 P fund series
2 Balmer series
3 Lyman series
4 Paschen series
PHXII12:ATOMS

356572 Spectrum of sunlight is an example for

1 Band emission spectrum
2 Line absorption spectrum
3 Continuous emission spectrum
4 Continuous absorption spectrum
PHXII12:ATOMS

356569 The energy levels of an hydrogen atom are shown below. The transition corresponding to emission of shortest wavelength is
supporting img

1 \(D\)
2 \(B\)
3 \(C\)
4 \(A\)
PHXII12:ATOMS

356570 The frequencies for series limit of Balmer and Paschen series respectively are \('{v_1}'\) and \('{v_3}'\). If frequency of first line of Balmer series is then the relation between \('{v_1}','{v_2}'\) and \('{v_3}'\) is

1 \({v_1} - {v_2} = {v_3}\)
2 \({v_1} + {v_3} = {v_2}\)
3 \({v_1} + {v_2} = {v_3}\)
4 \({v_1} - {v_3} = 2{v_1}\)
PHXII12:ATOMS

356571 The spectral series of the hydrogen spectrum that lies in the ultraviolet region is the

1 P fund series
2 Balmer series
3 Lyman series
4 Paschen series
PHXII12:ATOMS

356572 Spectrum of sunlight is an example for

1 Band emission spectrum
2 Line absorption spectrum
3 Continuous emission spectrum
4 Continuous absorption spectrum
NEET Test Series from KOTA - 10 Papers In MS WORD WhatsApp Here
PHXII12:ATOMS

356569 The energy levels of an hydrogen atom are shown below. The transition corresponding to emission of shortest wavelength is
supporting img

1 \(D\)
2 \(B\)
3 \(C\)
4 \(A\)
PHXII12:ATOMS

356570 The frequencies for series limit of Balmer and Paschen series respectively are \('{v_1}'\) and \('{v_3}'\). If frequency of first line of Balmer series is then the relation between \('{v_1}','{v_2}'\) and \('{v_3}'\) is

1 \({v_1} - {v_2} = {v_3}\)
2 \({v_1} + {v_3} = {v_2}\)
3 \({v_1} + {v_2} = {v_3}\)
4 \({v_1} - {v_3} = 2{v_1}\)
PHXII12:ATOMS

356571 The spectral series of the hydrogen spectrum that lies in the ultraviolet region is the

1 P fund series
2 Balmer series
3 Lyman series
4 Paschen series
PHXII12:ATOMS

356572 Spectrum of sunlight is an example for

1 Band emission spectrum
2 Line absorption spectrum
3 Continuous emission spectrum
4 Continuous absorption spectrum