Respuesta :
Reaction:
3A+4B→2C
Stoichiometrial proportions:
3A : 4B : 2C
initial quantities:
9 mol A and 4 mol B.
actual ratio, 9A / 4B > theoretical ratio 3A/4B => A is in excess and B is the limiting reagent.
Initial moles Consumed moles produced moles Final moles
A 9 3 0 9 - 3 = 6
B 4 4 0 4 - 4 = 0
C 0 0 2 2
That table contains all the answers:
1) how many moles of A will be in the reaction vessel once the reactants have reacted as much as possible? (Assume 100% actual yield.)
6.0 moles
2) How many moles of B will be in the reaction vessel once the reactants have reacted as much as possible? (Assume 100% actual yield.)
0.0 moles
3) How many moles of C will be in the reaction vessel once the reactants have reacted as much as possible? (Assume 100% actual yield.)
2.0 moles
3A+4B→2C
Stoichiometrial proportions:
3A : 4B : 2C
initial quantities:
9 mol A and 4 mol B.
actual ratio, 9A / 4B > theoretical ratio 3A/4B => A is in excess and B is the limiting reagent.
Initial moles Consumed moles produced moles Final moles
A 9 3 0 9 - 3 = 6
B 4 4 0 4 - 4 = 0
C 0 0 2 2
That table contains all the answers:
1) how many moles of A will be in the reaction vessel once the reactants have reacted as much as possible? (Assume 100% actual yield.)
6.0 moles
2) How many moles of B will be in the reaction vessel once the reactants have reacted as much as possible? (Assume 100% actual yield.)
0.0 moles
3) How many moles of C will be in the reaction vessel once the reactants have reacted as much as possible? (Assume 100% actual yield.)
2.0 moles