Data Result Mass of hydrated metal salt used 4.000 g Volume of oxalic acid used (assume its concentration is, 4.000 g oxalic acid/50.00 mL soln) 50.00 mL Mass of oxalic acid used 4.000 g Mass of weigh dish + contents (after reaction) 5.320 g Mass of empty weigh dish 1.881 g Mass of filter paper 0.101 g Actual yield of hydrated metal oxalate ppt (A) 3.862 g Limiting reactant (B) metal salt ♥ Theoretical yield of hydrated metal oxalate product (C) g Percent yield of hydrated metal oxalte product (D)
Data Result Mass of hydrated metal salt used 4.000 g Volume of oxalic acid used (assume its concentration is, 4.000 g oxalic acid/50.00 mL soln) 50.00 mL Mass of oxalic acid used 4.000 g Mass of weigh dish + contents (after reaction) 5.320 g Mass of empty weigh dish 1.881 g Mass of filter paper 0.101 g Actual yield of hydrated metal oxalate ppt (A) 3.862 g Limiting reactant (B) metal salt ♥ Theoretical yield of hydrated metal oxalate product (C) g Percent yield of hydrated metal oxalte product (D)
Chemistry
10th Edition
ISBN:9781305957404
Author:Steven S. Zumdahl, Susan A. Zumdahl, Donald J. DeCoste
Publisher:Steven S. Zumdahl, Susan A. Zumdahl, Donald J. DeCoste
Chapter4: Types Of Chemical Reactions And Solution Stoichiometry
Section: Chapter Questions
Problem 138CP: Polychlorinated biphenyls (PCBs) have been used extensively as dielectric materials in electrical...
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Question
Find the theoretical yield of hydrated metal oxalate product

Transcribed Image Text:3. Balance the molecular equation that shows your metal salt, MNSO4.H20, reacting with oxalic acid (H2C204) to form MnC204.3H20 (enter a 1 if a stoichiometric coefficient is one).
1 MnSO4.H20 +
1 H2C204+
2 H20 =
1 MnC204.3H20+
1 H2SO4
correct, 1/1
4. Pyrolysis of MnC204.3H20 will follow one of the following molecular equations. Balance each molecular equation,
2|MnC204.3H2O +
102 =
2 MnO
6 H20 +
4co,
4 CO2
a.
b.
3 MnC204.3H2O +
202=
1 Mn304 +
9 H20 +
6 CO2
1 MnC204.3H2O
1 MNCO3 +
3 H20 +
1co
1 CO
С.
(a)correct, 1/1
(b)correct, 1/1
(c)correct, 1/1
5. For pyrolysis reaction (4a) (above), calculate the theoretical yield (in grams) of the solid product, if you use 1.0 g MnC204.3H20 and that oxygen is the excess reactant
0.36 g
correct 1/1
6. For pyrolysis reaction (4b) (above), calculate the theoretical yield (in grams) of the solid product, if you use 1.0 g MnC204.3H20 and that oxygen is the excess reactant
0.39 g
correct 1/1
7. For pyrolysis reaction (4c) (above), calculate the theoretical yield (in grams) of the solid product, if you use 1.0 g MnC204.3H20 and that oxygen is the excess reactant
0.58 g
correct 1/1

Transcribed Image Text:Data
Result
Mass of hydrated metal salt used
4.000 g
Volume of oxalic acid used (assume its concentration is, 4.000 g oxalic acid/50.00 mL soln)
50.00 mL
Mass of oxalic acid used
4.000 g
Mass of weigh dish + contents (after reaction)
5.320 g
Mass of empty weigh dish
1.881 g
Mass of filter paper
0.101 g
Actual yield of hydrated metal oxalate ppt
(A)
3.862 g
Limiting reactant
(B) metal salt v
Theoretical yield of hydrated metal oxalate product
(C)
Percent yield of hydrated metal oxalte product
(D)
%
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