20070 A solution containing one mole per litre of each \(Cu{(N{O_3})_2},\,\,AgN{O_3},\,\,H{g_2}{(N{O_3})_2}\) and \(Mg{(N{O_3})_2},\) is being electrolysed by using inert electrodes. The values of standard electrode potentials in volts (reduction potentials) are \(Ag/A{g^ + } = + 0.80,\,\,2Hg/Hg_2^{2 + } = + 0.79,\,\,Cu/C{u^{2 + }} = + 0.34,\)\(Mg/M{g^{2 + }} = - 2.37\)with increasing voltage, the sequence of deposition of metals on the cathode will be

20071 The standard reduction electrode potentials of four elements are\(A = - 0.250\,V\)\(B = - 0.136\,V\)\(C = - 0.126\,V\)\(D = - 0.402\,V\)The element that displaces \(A\) from its compounds is

20072 The standard oxidation potential of zinc and silver in water at  \(298\,K\) are \(Zn\,\,(s)\,\, \to \,\,Z{n^{2 + }} + 2{e^ - }\,;\,E = 0.76\,V\)\(Ag\,\,(s)\,\, \to \,A{g^{2 + }} + 2{e^ - }\,;\,E =  - 0.80\,V\)  Which of the following reactions actually take place

20073 Beryllium is placed above magnesium in the second group. Beryllium dust, therefore when added to \(MgC{l_2}\) solution will

20074 The name of equation showing relation between electrode potential \((E)\)standard electrode potential \(({E^o})\) and concentration of ions in solution is

20070 A solution containing one mole per litre of each \(Cu{(N{O_3})_2},\,\,AgN{O_3},\,\,H{g_2}{(N{O_3})_2}\) and \(Mg{(N{O_3})_2},\) is being electrolysed by using inert electrodes. The values of standard electrode potentials in volts (reduction potentials) are \(Ag/A{g^ + } = + 0.80,\,\,2Hg/Hg_2^{2 + } = + 0.79,\,\,Cu/C{u^{2 + }} = + 0.34,\)\(Mg/M{g^{2 + }} = - 2.37\)with increasing voltage, the sequence of deposition of metals on the cathode will be

20071 The standard reduction electrode potentials of four elements are\(A = - 0.250\,V\)\(B = - 0.136\,V\)\(C = - 0.126\,V\)\(D = - 0.402\,V\)The element that displaces \(A\) from its compounds is

20072 The standard oxidation potential of zinc and silver in water at  \(298\,K\) are \(Zn\,\,(s)\,\, \to \,\,Z{n^{2 + }} + 2{e^ - }\,;\,E = 0.76\,V\)\(Ag\,\,(s)\,\, \to \,A{g^{2 + }} + 2{e^ - }\,;\,E =  - 0.80\,V\)  Which of the following reactions actually take place

20073 Beryllium is placed above magnesium in the second group. Beryllium dust, therefore when added to \(MgC{l_2}\) solution will

20074 The name of equation showing relation between electrode potential \((E)\)standard electrode potential \(({E^o})\) and concentration of ions in solution is

20070 A solution containing one mole per litre of each \(Cu{(N{O_3})_2},\,\,AgN{O_3},\,\,H{g_2}{(N{O_3})_2}\) and \(Mg{(N{O_3})_2},\) is being electrolysed by using inert electrodes. The values of standard electrode potentials in volts (reduction potentials) are \(Ag/A{g^ + } = + 0.80,\,\,2Hg/Hg_2^{2 + } = + 0.79,\,\,Cu/C{u^{2 + }} = + 0.34,\)\(Mg/M{g^{2 + }} = - 2.37\)with increasing voltage, the sequence of deposition of metals on the cathode will be

20071 The standard reduction electrode potentials of four elements are\(A = - 0.250\,V\)\(B = - 0.136\,V\)\(C = - 0.126\,V\)\(D = - 0.402\,V\)The element that displaces \(A\) from its compounds is

20072 The standard oxidation potential of zinc and silver in water at  \(298\,K\) are \(Zn\,\,(s)\,\, \to \,\,Z{n^{2 + }} + 2{e^ - }\,;\,E = 0.76\,V\)\(Ag\,\,(s)\,\, \to \,A{g^{2 + }} + 2{e^ - }\,;\,E =  - 0.80\,V\)  Which of the following reactions actually take place

20073 Beryllium is placed above magnesium in the second group. Beryllium dust, therefore when added to \(MgC{l_2}\) solution will

20074 The name of equation showing relation between electrode potential \((E)\)standard electrode potential \(({E^o})\) and concentration of ions in solution is

20070 A solution containing one mole per litre of each \(Cu{(N{O_3})_2},\,\,AgN{O_3},\,\,H{g_2}{(N{O_3})_2}\) and \(Mg{(N{O_3})_2},\) is being electrolysed by using inert electrodes. The values of standard electrode potentials in volts (reduction potentials) are \(Ag/A{g^ + } = + 0.80,\,\,2Hg/Hg_2^{2 + } = + 0.79,\,\,Cu/C{u^{2 + }} = + 0.34,\)\(Mg/M{g^{2 + }} = - 2.37\)with increasing voltage, the sequence of deposition of metals on the cathode will be

20071 The standard reduction electrode potentials of four elements are\(A = - 0.250\,V\)\(B = - 0.136\,V\)\(C = - 0.126\,V\)\(D = - 0.402\,V\)The element that displaces \(A\) from its compounds is

20072 The standard oxidation potential of zinc and silver in water at  \(298\,K\) are \(Zn\,\,(s)\,\, \to \,\,Z{n^{2 + }} + 2{e^ - }\,;\,E = 0.76\,V\)\(Ag\,\,(s)\,\, \to \,A{g^{2 + }} + 2{e^ - }\,;\,E =  - 0.80\,V\)  Which of the following reactions actually take place

20073 Beryllium is placed above magnesium in the second group. Beryllium dust, therefore when added to \(MgC{l_2}\) solution will

20074 The name of equation showing relation between electrode potential \((E)\)standard electrode potential \(({E^o})\) and concentration of ions in solution is

20070 A solution containing one mole per litre of each \(Cu{(N{O_3})_2},\,\,AgN{O_3},\,\,H{g_2}{(N{O_3})_2}\) and \(Mg{(N{O_3})_2},\) is being electrolysed by using inert electrodes. The values of standard electrode potentials in volts (reduction potentials) are \(Ag/A{g^ + } = + 0.80,\,\,2Hg/Hg_2^{2 + } = + 0.79,\,\,Cu/C{u^{2 + }} = + 0.34,\)\(Mg/M{g^{2 + }} = - 2.37\)with increasing voltage, the sequence of deposition of metals on the cathode will be

20071 The standard reduction electrode potentials of four elements are\(A = - 0.250\,V\)\(B = - 0.136\,V\)\(C = - 0.126\,V\)\(D = - 0.402\,V\)The element that displaces \(A\) from its compounds is

20072 The standard oxidation potential of zinc and silver in water at  \(298\,K\) are \(Zn\,\,(s)\,\, \to \,\,Z{n^{2 + }} + 2{e^ - }\,;\,E = 0.76\,V\)\(Ag\,\,(s)\,\, \to \,A{g^{2 + }} + 2{e^ - }\,;\,E =  - 0.80\,V\)  Which of the following reactions actually take place

20073 Beryllium is placed above magnesium in the second group. Beryllium dust, therefore when added to \(MgC{l_2}\) solution will

20074 The name of equation showing relation between electrode potential \((E)\)standard electrode potential \(({E^o})\) and concentration of ions in solution is