Hey guess what I did find one:
https://cdn.shopify.com/s/files/1/1385/8945/files/210_manual_090607.pdf?4556440520457788278
24
SECTION 3.2: Sensitivity Check / Optimizing the Flame
Sensitivity check
However, for elements requiring richer flames (including those requiring nitrous oxide), or if you are having
trouble achieving the sensitivity check, optimizing the flame may improve your results. Starting with the
burner head 4mm below the beam, light the flame and let the burner warm up a few minutes while aspirating
de-ionized water. Zero the instrument then aspirate your high standard. Slowly increase the fuel (turn the fuel
adjust counter clockwise) while watching the absorbance reading until you reach the best absorbance.
There it is. Of course the Darwin award winners can`t get it what the manual stated.
A fuel rich flame is cooler and the absorbance you get is better than at higher temperatures. Of course you also need a temperature high enough to atomize the substance you want to analyze
https://cdn.shopify.com/s/files/1/1385/8945/files/210_manual_090607.pdf?4556440520457788278
24
SECTION 3.2: Sensitivity Check / Optimizing the Flame
Sensitivity check
However, for elements requiring richer flames (including those requiring nitrous oxide), or if you are having
trouble achieving the sensitivity check, optimizing the flame may improve your results. Starting with the
burner head 4mm below the beam, light the flame and let the burner warm up a few minutes while aspirating
de-ionized water. Zero the instrument then aspirate your high standard. Slowly increase the fuel (turn the fuel
adjust counter clockwise) while watching the absorbance reading until you reach the best absorbance.
There it is. Of course the Darwin award winners can`t get it what the manual stated.
A fuel rich flame is cooler and the absorbance you get is better than at higher temperatures. Of course you also need a temperature high enough to atomize the substance you want to analyze