UPDATE: 12/30/2017 4:25:AM
Raw data;
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Png image of Holmium oxide spectrum;
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Raw data both reference spectrum and sample spectrum;
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Absorbance %;
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Transmission %;
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This figure is arrived at by averaging the 5 major peaks wavelength values; 1) 413.39
2) 447.9 3) 483.4 4) 534.67 5) 640.18 and inserting them into this equation;
1 X slit width X ln/mm (diffraction grating) = spectral band width
R = wavelength / spectral bandwidth
= Resolution
So, we work this equation for each of our peak wavelengths and average it out to get our spectral resolution.
Example;
1st peak; 413.39nm
1 X .10 X 1540 = 154
R = 413.39/ 154 =2.68
R = 2.68nm
We do this for the rest of our peaks and then average them out to get our final result
R = 3.2nm
:)
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