Answer:
Hence, C121H199O100 represents the compound's empirical formula.
Step-by-step explanation:
We must ascertain the ratio of the number of atoms of each element in the compound in order to derive the empirical formula. To accomplish this, we can divide the mole ratio by the least number of moles after converting the masses of each element to moles.
The elements' molar masses are as follows:
12.01 g/mol for carbon
1.01 g/mol for hydrogen
16.00 g/mol for oxygen
When we convert the masses to moles, we obtain:
48.38 g / 12.01 g/mol = 4.03 mol of carbon
6.74 g / 1.01 g/mol of hydrogen equals 6.67 mol
53.5 g / 16.00 g/mol = 3.34 mol for oxygen
3.34 mol of oxygen is the least amount of moles. If you divide the total moles of each element by 3.34 mol, you get:
Carbon: 4.03 mol/3.3 mol = 1.21 mol Hydrogen:6.67 moles/3.34 moles equals 1.99
3.34 mol / 3.34 mol = 1.00 for oxygen.
By multiplying each ratio by 100 to obtain whole integers, we may simplify the ratios, which are around 1.21:1.99:1.00. This results in a ratio of roughly 121:199:100.
We divide each number in the ratio by their greatest common factor (GCF) to arrive at the empirical formula. 121, 199, and 100 have a GCF of 1. By dividing by 1, we get:
Carbohydrate: 121 / 1 = 121
199 / 1 = 199 for hydrogen.
100 / 1 Equals 100 for oxygen.
Hence, C121H199O100 represents the compound's empirical formula.