Final answer:
To calculate the maximum grams of product in the reaction, construct a BCA table and determine the maximum grams of the possible product. The limiting reactant is Ca3(PO4)2, and the maximum moles of product formed is 6457.152 mol H3PO4. This corresponds to a maximum mass of 632,661.696 g.
Step-by-step explanation:
To determine the maximum grams of product in the reaction, we need to first construct a BCA (Before-Change-After) table. In this reaction, 1.00 kg of Ca3(PO4)2 and 1.00 kg of H2SO4 are reacted. Since the molar masses of Ca3(PO4)2 and H2SO4 are known, we can convert the masses to moles using their respective molar masses:
Ca3(PO4)2: 1.00 kg × (1000 g/kg) ÷ (310.177 g/mol) = 3228.576 mol
H2SO4: 1.00 kg × (1000 g/kg) ÷ (98.09 g/mol) = 10,184.103 mol
Next, we determine the stoichiometric ratios from the balanced chemical equation (3Ca3(PO4)2 + 10H2SO4 → 5CaSO4 + 6H3PO4).
Using the ratios, we find that the limiting reactant is Ca3(PO4)2, with a stoichiometric ratio of 3:1. Therefore, the maximum moles of product formed will be 3228.576 mol × (6 mol H3PO4 ÷ 3 mol Ca3(PO4)2) = 6457.152 mol H3PO4.
Finally, we convert the moles of H3PO4 to grams using the molar mass of H3PO4 (98.0 g/mol):
6457.152 mol × 98.0 g/mol = 632,661.696 g.