Final answer:
The stoichiometric factor for converting moles of NH3 to moles of H2O is determined by the coefficients in a balanced chemical equation, illustrating the molar ratio between these two compounds. Without the specific reaction, general principles of stoichiometry and understanding of mole ratios must be applied to find the conversion factor.
Step-by-step explanation:
To convert from moles of NH3 to moles of H2O, the stoichiometric factor needed can be found by examining the coefficients in a balanced chemical equation. Without the full equation involving NH3 and H2O, we can't provide the specific ratio, but we can use a general understanding of stoichiometry to guide us.
In any balanced chemical equation, the coefficients represent the molar ratios of the reactants and products involved. For example, in the synthesis of ammonia, N2 (g) + 3H2 (g) → 2NH3 (g), we see that one mole of N2 reacts with three moles of H2 to produce two moles of NH3. These coefficients can form the basis of mole ratios used as conversion factors in stoichiometric calculations.
Therefore, to answer which stoichiometric factor is utilized to convert from moles of NH3 to moles of H2O, we would look at the balanced chemical equation involving these two compounds, identify the coefficient in front of NH3 and H2O, and use the appropriate mole ratio that has NH3 in the numerator and H2O in the denominator.