Given two reduction half-reactions: Au3+(aq) + 3 e− ⟶ Au(s) Eo = 1.50 V Tl+(aq) + e− ⟶ Tl(s) Eo = −0.34 V Use the electrode potentials above to calculate Eocell and ∆Gorxn for the reaction below, and determine if it is the reaction for a voltaic cell or an electrolytic cell. Click here for a copy of Final Exam cover sheet. Au(s) + 3 Tl+(aq) ⟶ Au3+(aq) + 3 Tl(s) Eocell for the reaction above is [1.84V, -1.84V, 1.16V, -1.16V] , ∆Gorxn is [533kj, -533kj, 178kj, -178kj] , and the cell is a/an [voltaic cell, electrolytic cell]
Given two reduction half-reactions: Au3+(aq) + 3 e− ⟶ Au(s) Eo = 1.50 V Tl+(aq) +...
Consider the two reduction half-reactions: Br2(l) + 2 e− ⟶ 2 Br−(aq) Eo = 1.09 V Ag+(aq) + e− ⟶ Ag(s) Eo = 0.337 V Use the electrode potentials above to calculate Eocell and ∆Gorxn for the reaction below, and determine if it is the reaction for a voltaic cell or an electrolytic cell.
Design a voltaic cell with the following two reduction half-reactions: Ag+(aq) + e− ⟶ Ag(s) Eo = 0.80 V Pb2+(aq) + 2 e− ⟶ Pb(s) Eo = −0.13 V Calculate Eocell and the equilibrium constant K for the voltaic cell at 298 K. Click here for a copy of Final Exam cover sheet.
Design a voltaic cell with the following two reduction half
-reactions :
Design a voltaic cell with the following two reduction half-reactions Ag+(aq) + e-→ Ag(s) Zn2+(aq) + 2 e-→Zn(s) E 0.80 V Eo = 0.76 V Calculate Eocell and the equilibrium constant K for th copy of Final Exam cover sheet. e voltaic cell at 298 K. Click here for a E° cell -0.04 V and K-4.7 E cell-0.04 V and K-0.21 O Eocel =-0.04 V and K =...
If the following half-reactions are used in an electrolytic cell: Ag+(aq) + e− ⟶ Ag(s) Eo = 0.80 V Ca2+(aq) + 2 e− ⟶ Ca(s) Eo = −2.76 V Click here for a copy of Final Exam cover sheet. 1) The metal solid that is plated out at the cathode is [Ag(s), Ca(s)] 2) It would take [3, 8. 16] hours to deposit 60 g of the solid with a current of 5.0 A.
Standard Electrode Potentials at 25?C Reduction Half-Reaction E?(V) F2(g)+2e? ?2F?(aq) 2.87 Au3+(aq)+3e? ?Au(s) 1.50 Cl2(g)+2e? ?2Cl?(aq) 1.36 O2(g)+4H+(aq)+4e? ?2H2O(l) 1.23 Br2(l)+2e? ?2Br?(aq) 1.09 NO3?(aq)+4H+(aq)+3e? ?NO(g)+2H2O(l) 0.96 Ag+(aq)+e? ?Ag(s) 0.80 I2(s)+2e? ?2I?(aq) 0.54 Cu2+(aq)+2e? ?Cu(s) 0.16 2H+(aq)+2e? ?H2(g) 0 Cr3+(aq)+3e? ?Cr(s) -0.73 2H2O(l)+2e? ?H2(g)+2OH?(aq) -0.83 Mn2+(aq)+2e? ?Mn(s) -1.18 How can the table be used to predict whether or not a metal will dissolve in HCl? In HNO3? Drag the terms on the left to the appropriate blanks on the right to...
A voltaic cell consists of a Cu2+/Cu electrode (E°red = 0.34 V) and an Au3+/Au electrode (E°red = 1.50V). Calculate [Au3+] if [Cu2+] = 1.20 M and Ecell = 1.13 V
Calculate the cell potential for the galvanic cell in which the reaction Fe(s)+Au3+(aq)−⇀↽− Fe3+(aq)+Au(s) occurs at 25 ∘C , given that [Fe3+]=0.00150 M and [Au3+]=0.795 M . Refer to the table of standard reduction potentials. E= V
Given that Eo = -0.34 V for the reduction of Tl+ to Tl, find the voltage developed by a cell consisting of Tl metal dipping in an aqueous solution that is 0.37M in Tl+, connected by a porous bridge to a 0.61 M aqueous solution of HCl in contact with a Pt electrode over which H2 gas is bubbling at p = 0.75 bar.
Given that Eo = -0.34 V for the reduction of Tl+ to Tl, find the voltage developed by a cell consisting of Tl metal dipping in an aqueous solution that is 0.59 M in Tl+, connected by a porous bridge to a 0.53 M aqueous solution of HCl in contact with a Pt electrode over which H2 gas is bubbling at p = 0.81 bar..
Given that Eo = -0.34 V for the reduction of Tl+ to Tl, find the voltage developed by a cell consisting of Tl metal dipping in an aqueous solution that is 0.58 M in Tl+, connected by a porous bridge to a 0.42 M aqueous solution of HCl in contact with a Pt electrode over which H2 gas is bubbling at p = 0.78 bar. V The number of significant digits is set to 2; the tolerance is +/-4%