Copper Electrolysis
Current (I): 2 Amperes (A); Time (t): 3,600 Seconds (s); Molar Mass (M): 63.55 grams/mol (g/mol); Number of Electrons Transferred (n): 2 electrons
Total Charge (Q): 7,200 Coulombs (C); Mass Deposited (m): 2.371145774 grams (g)
Calculates the mass of a substance deposited or liberated during electrolysis, based on Faraday's laws of electrolysis.
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Enter Current (I), Time (t), Molar Mass (M), and Number of Electrons Transferred (n) in the units shown.
Read Total Charge (Q) and Mass Deposited (m) in the results panel. Results update as you change the inputs.
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Current (I): 2 Amperes (A); Time (t): 3,600 Seconds (s); Molar Mass (M): 63.55 grams/mol (g/mol); Number of Electrons Transferred (n): 2 electrons
Total Charge (Q): 7,200 Coulombs (C); Mass Deposited (m): 2.371145774 grams (g)
Current (I): 0.5 Amperes (A); Time (t): 1,800 Seconds (s); Molar Mass (M): 107.87 grams/mol (g/mol); Number of Electrons Transferred (n): 1 electrons
Total Charge (Q): 900 Coulombs (C); Mass Deposited (m): 1.006197855 grams (g)
Current (I): 0.25 Amperes (A); Time (t): 7,200 Seconds (s); Molar Mass (M): 196.97 grams/mol (g/mol); Number of Electrons Transferred (n): 3 electrons
Total Charge (Q): 1,800 Coulombs (C); Mass Deposited (m): 1.224874333 grams (g)
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