Loading FuncRegistry/UserFunctions/GetExtinctions.m +8 −6 Original line number Original line Diff line number Diff line Loading @@ -61,7 +61,7 @@ function [exs,varargout] = GetExtinctions( lambda,WhichSpectrum ) % To convert this data to absorption coefficient in (cm-1), multiply % To convert this data to absorption coefficient in (cm-1), multiply % by the molar concentration and 2.303, % by the molar concentration and 2.303, % % % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % where x is the number of grams per liter. A typical value of x % where x is the number of grams per liter. A typical value of x % for whole blood is x=150 g Hb/liter. % for whole blood is x=150 g Hb/liter. % % Loading Loading @@ -117,6 +117,8 @@ function [exs,varargout] = GetExtinctions( lambda,WhichSpectrum ) %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% lambda = double(lambda); % Cast to double num_lambda = length(lambda); num_lambda = length(lambda); Loading Loading @@ -152,7 +154,7 @@ switch(WhichSpectrum) % using 66,500 as the gram molecular weight of hemoglobin. % using 66,500 as the gram molecular weight of hemoglobin. % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % % % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. % where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. vLambdaHbOHb = [ vLambdaHbOHb = [ Loading Loading @@ -309,7 +311,7 @@ switch(WhichSpectrum) %using 66,500 as the gram molecular weight of hemoglobin. %using 66,500 as the gram molecular weight of hemoglobin. %To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, %To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % % %µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) %µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) %where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. %where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. vLambdaHbOHb = [ vLambdaHbOHb = [ Loading Loading @@ -717,7 +719,7 @@ switch(WhichSpectrum) % using 66,500 as the gram molecular weight of hemoglobin. % using 66,500 as the gram molecular weight of hemoglobin. % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % % % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) vLambdaHbOHb = [ 630 680 4280; vLambdaHbOHb = [ 630 680 4280; 640 440 3640; 640 440 3640; Loading Loading @@ -779,7 +781,7 @@ switch(WhichSpectrum) % using 66,500 as the gram molecular weight of hemoglobin. % using 66,500 as the gram molecular weight of hemoglobin. % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % % % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. % where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. vLambdaHbOHb = [450 68000 58000; vLambdaHbOHb = [450 68000 58000; Loading Loading @@ -857,7 +859,7 @@ end % % % ABSORPTION SPECTRUMOF H20 % ABSORPTION SPECTRUMOF H20 % FROM G. M. Hale and M. R. Querry, "Optical constants of water in the 200nm to % FROM G. M. Hale and M. R. Querry, "Optical constants of water in the 200nm to % 200µm wavelength region," Appl. Opt., 12, 555--563, (1973). % 200µm wavelength region," Appl. Opt., 12, 555--563, (1973). % % % ON THE WEB AT % ON THE WEB AT % http://omlc.ogi.edu/spectra/water/abs/index.html % http://omlc.ogi.edu/spectra/water/abs/index.html Loading Loading
FuncRegistry/UserFunctions/GetExtinctions.m +8 −6 Original line number Original line Diff line number Diff line Loading @@ -61,7 +61,7 @@ function [exs,varargout] = GetExtinctions( lambda,WhichSpectrum ) % To convert this data to absorption coefficient in (cm-1), multiply % To convert this data to absorption coefficient in (cm-1), multiply % by the molar concentration and 2.303, % by the molar concentration and 2.303, % % % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % where x is the number of grams per liter. A typical value of x % where x is the number of grams per liter. A typical value of x % for whole blood is x=150 g Hb/liter. % for whole blood is x=150 g Hb/liter. % % Loading Loading @@ -117,6 +117,8 @@ function [exs,varargout] = GetExtinctions( lambda,WhichSpectrum ) %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% lambda = double(lambda); % Cast to double num_lambda = length(lambda); num_lambda = length(lambda); Loading Loading @@ -152,7 +154,7 @@ switch(WhichSpectrum) % using 66,500 as the gram molecular weight of hemoglobin. % using 66,500 as the gram molecular weight of hemoglobin. % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % % % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. % where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. vLambdaHbOHb = [ vLambdaHbOHb = [ Loading Loading @@ -309,7 +311,7 @@ switch(WhichSpectrum) %using 66,500 as the gram molecular weight of hemoglobin. %using 66,500 as the gram molecular weight of hemoglobin. %To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, %To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % % %µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) %µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) %where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. %where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. vLambdaHbOHb = [ vLambdaHbOHb = [ Loading Loading @@ -717,7 +719,7 @@ switch(WhichSpectrum) % using 66,500 as the gram molecular weight of hemoglobin. % using 66,500 as the gram molecular weight of hemoglobin. % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % % % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) vLambdaHbOHb = [ 630 680 4280; vLambdaHbOHb = [ 630 680 4280; 640 440 3640; 640 440 3640; Loading Loading @@ -779,7 +781,7 @@ switch(WhichSpectrum) % using 66,500 as the gram molecular weight of hemoglobin. % using 66,500 as the gram molecular weight of hemoglobin. % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % To convert this data to absorption coefficient in (cm-1), multiply by the molar concentration and 2.303, % % % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % µa = (2.303) e (x g/liter)/(66,500 g Hb/mole) % where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. % where x is the number of grams per liter. A typical value of x for whole blood is x=150 g Hb/liter. vLambdaHbOHb = [450 68000 58000; vLambdaHbOHb = [450 68000 58000; Loading Loading @@ -857,7 +859,7 @@ end % % % ABSORPTION SPECTRUMOF H20 % ABSORPTION SPECTRUMOF H20 % FROM G. M. Hale and M. R. Querry, "Optical constants of water in the 200nm to % FROM G. M. Hale and M. R. Querry, "Optical constants of water in the 200nm to % 200µm wavelength region," Appl. Opt., 12, 555--563, (1973). % 200µm wavelength region," Appl. Opt., 12, 555--563, (1973). % % % ON THE WEB AT % ON THE WEB AT % http://omlc.ogi.edu/spectra/water/abs/index.html % http://omlc.ogi.edu/spectra/water/abs/index.html Loading
