For Ni(s) + 4CO(g) - Ni(CO)4(g), take Delta H deg = -161.0 kJ mol^-1 and Delta S deg = -396 J K^-1 mol^-1, independent

Question

For Ni(s) + 4CO(g) -> Ni(CO)4(g), take Delta H deg = -161.0 kJ mol^-1 and Delta S deg = -396 J K^-1 mol^-1, independent of temperature. The values of Delta G deg at 330 K and at 460 K, and what they imply for the Mond process, are

Accepted Answer

-30.3 kJ at 330 K and +21.2 kJ at 460 K; carbonyl forms at the lower temperature and decomposes at the higher temperature

Answer

-160.9 kJ at 330 K and -160.8 kJ at 460 K; carbonyl is stable at both temperatures

Answer

+30.3 kJ at 330 K and -21.2 kJ at 460 K; carbonyl forms at the higher temperature

Answer

-291.7 kJ at 330 K and -343.2 kJ at 460 K; carbonyl is stable at both temperatures

For $Ni (s) + 4 CO (g) Ni (CO) X_{4} (g)$ , take $Δ H^{\circ} = - 161.0 kJ mo l^{- 1}$ and $Δ S^{\circ} = - 396 J K^{- 1} mo l^{- 1}$ , independent of temperature. The values of $Δ G^{\circ}$ at 330 K and at 460 K, and what they imply for the Mond process, are

Answer: B

More questions on Refining methods: zone refining, van Arkel, Mond process, electrolytic refining

For Ni(s)+4CO(g)​Ni(CO)X4​(g), take ΔH∘=−161.0 kJmol−1 and ΔS∘=−396 JK−1mol−1, independent of temperature. The values of ΔG∘ at 330 K and at 460 K, and what they imply for the Mond process, are

Answer: B

More questions on Refining methods: zone refining, van Arkel, Mond process, electrolytic refining

For $Ni (s) + 4 CO (g) Ni (CO) X_{4} (g)$ , take $Δ H^{\circ} = - 161.0 kJ mo l^{- 1}$ and $Δ S^{\circ} = - 396 J K^{- 1} mo l^{- 1}$ , independent of temperature. The values of $Δ G^{\circ}$ at 330 K and at 460 K, and what they imply for the Mond process, are