Emission transitions in the Paschen series end at orbit n=3 and start from orbit n and can be represented as v=`3.29xx10^(15)(Hz)[1//3^(2)-1//n^(2)]`. Calculate the value of n if the transition is observed at 1285 nm. Find the region of the spectrum.

Emission transitions in the Paschen series end at orbit n = 3 and start from orbit n and can be represented as v = 3.29 xx 10^(15) (Hz) [1//3^2 - 1//n^2] . Calculate the value of n if the transition is observed at 1285 nm. Find the region of the spectrum.

Emission transition in the Paschen series end at orbit n=3 and start from orbit n and can be represented as v=3.29 xx 10^(15) (Hz) [1//3^2-1//n^2] Calculate the value of n if the transition is observed at 1285nm Find the region of the spectrum.

Emission transition in the Paschen series end at orbit n = 3 and start from orbit n and can be represented as nu = 3.29 xx 10^15 (Hz) [1//3^2 - 1//n^2] Calculate the value of n if the transition is observed at 1285nm. Find the region of the spectrum.

Emission transitions in the Paschen series end at orbit n=3 and start from orbit n and can be represented as v=3.29 xx 10^(15) (H z) [1 / 3^2-1/ n^2] : Calculate the yalue of 'n' if the transition is observed at 1285nm. Find the region of the spectrum.

Calculate the wavelength for the emission transition if it starts from the orbit having radius 1.3225 nm and ends at 211.6 pm. Name the series to which this transition belongs and the region of the spectrum.

Calculate the wavelength for the emission transition if it starts from the orbit having radius 1.3225 nm and ends at 211.6 pm. Name the series to which this transition belongs and the region of the spectrum.

Calculate the wavelength for the emission transition if it starts from the orbit having radius 1.3225 nm and ends at 211.6 pm . Name the series to which this transition belongs and the region of the spectrum.