The reduction potentials for Au 3+ and Ni 2+ are as follows: Au 3+ + 3e - $\to$ Au,$\varepsilon$ $\circ$ = +1.50 V Ni 2+ + 2e - $\to$Ni,$\varepsilon$ $\circ$ = -0.229 V Calculate $\Delta$G° (at 25°C)for the reaction: 2Au 3+ + 2Ni $\to$3Ni 2+ + 2Au

The Answer of The reduction potentials for Au 3+ and Ni 2+ are as follows: Au 3+ + 3e - $\to$ Au,$\varepsilon$ $\circ$ = +1.50 V Ni 2+ + 2e - $\to$Ni,$\varepsilon$ $\circ$ = -0.229 V Calculate $\Delta$G° (at 25°C)for the reaction: 2Au 3+ + 2Ni $\to$3Ni 2+ + 2Au

The reduction potentials for Au 3+ and Ni 2+ are as follows: Au 3+ + 3e - $\to$ Au,$\varepsilon$ $\circ$ = +1.50 V Ni 2+ + 2e - $\to$Ni,$\varepsilon$ $\circ$ = -0.229 V Calculate $\Delta$G° (at 25°C)for the reaction: 2Au 3+ + 2Ni $\to$3Ni 2+ + 2Au

The Answer of The reduction potentials for Au 3+ and Ni 2+ are as follows: Au 3+ + 3e - $\to$ Au,$\varepsilon$ $\circ$ = +1.50 V Ni 2+ + 2e - $\to$Ni,$\varepsilon$ $\circ$ = -0.229 V Calculate $\Delta$G° (at 25°C)for the reaction: 2Au 3+ + 2Ni $\to$3Ni 2+ + 2Au

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The Reduction Potentials for Au³⁺ and Ni²⁺ Are as Follows $\to$

Question 68

Multiple Choice

The reduction potentials for Au³⁺ and Ni²⁺ are as follows: Au³⁺ + 3e^- $\to$ Au, $\varepsilon$ ^$\circ$ = +1.50 V
Ni²⁺ + 2e^- $\to$ Ni, $\varepsilon$ ^$\circ$ = -0.229 V
Calculate $\Delta$ G° (at 25°C) for the reaction:
2Au³⁺ + 2Ni $\to$ 3Ni²⁺ + 2Au

A) $The reduction potentials for Au3+ and Ni2+ are as follows: Au3+ + 3e- \to Au, \varepsilon \circ = +1.50 V Ni2+ + 2e- \to Ni, \varepsilon \circ = -0.229 V Calculate \Delta G° (at 25°C) for the reaction: 2Au3+ + 2Ni \to 3Ni2+ + 2Au A) kJ B) kJ C) kJ D) kJ E) kJ$ kJ
B) $The reduction potentials for Au3+ and Ni2+ are as follows: Au3+ + 3e- \to Au, \varepsilon \circ = +1.50 V Ni2+ + 2e- \to Ni, \varepsilon \circ = -0.229 V Calculate \Delta G° (at 25°C) for the reaction: 2Au3+ + 2Ni \to 3Ni2+ + 2Au A) kJ B) kJ C) kJ D) kJ E) kJ$ kJ
C) $The reduction potentials for Au3+ and Ni2+ are as follows: Au3+ + 3e- \to Au, \varepsilon \circ = +1.50 V Ni2+ + 2e- \to Ni, \varepsilon \circ = -0.229 V Calculate \Delta G° (at 25°C) for the reaction: 2Au3+ + 2Ni \to 3Ni2+ + 2Au A) kJ B) kJ C) kJ D) kJ E) kJ$ kJ
D) $The reduction potentials for Au3+ and Ni2+ are as follows: Au3+ + 3e- \to Au, \varepsilon \circ = +1.50 V Ni2+ + 2e- \to Ni, \varepsilon \circ = -0.229 V Calculate \Delta G° (at 25°C) for the reaction: 2Au3+ + 2Ni \to 3Ni2+ + 2Au A) kJ B) kJ C) kJ D) kJ E) kJ$ kJ
E) $The reduction potentials for Au3+ and Ni2+ are as follows: Au3+ + 3e- \to Au, \varepsilon \circ = +1.50 V Ni2+ + 2e- \to Ni, \varepsilon \circ = -0.229 V Calculate \Delta G° (at 25°C) for the reaction: 2Au3+ + 2Ni \to 3Ni2+ + 2Au A) kJ B) kJ C) kJ D) kJ E) kJ$ kJ

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The Reduction Potentials for Au³⁺ and Ni²⁺ Are as Follows $\to$