Water (H2O) and carbon tetrachloride (CCI4) are poured into a piece of glassware called a separatory funnel (see below). The result is that two distinct layers are formed: water on top and CCI4 on the bottom. Solid, purple iodine (I2) is added to the funnel. After the funnel is shaken and the mixture is allowed to settle, the upper layer in the funnel is much lighter in colour than the bottom layer. Please explain why this occurs. ) The polar iodine is much more soluble in the polar carbon tetrachloride than in the nonpolar water. Thus, the intense colouring of the iodine shows up in the bottom carbon tetrachloride layer. | The nonpolar iodine is much more soluble in the nonpolar carbon tetrachloride than in the polar water. Thus, the intense colouring of the iodine shows up in the bottom carbon tetrachloride layer. | The nonpolar iodine is much more soluble in the polar carbon tetrachloride than in the polar water. Thus, the intense colouring of the iodine shows up in the bottom carbon tetrachloride layer. | The polar iodine is much more soluble in the nonpolar carbon tetrachloride than in the polar water. Thus, the intense colouring of the iodine shows up in the bottom carbon tetrachloride layer.

Water (H2O) and carbon tetrachloride (CCI4) are poured into a piece of glassware called a separatory funnel (see below). The result is that two distinct layers are formed: water on top and CCI4 on the bottom. Solid, purple iodine (I2) is added to the funnel. After the funnel is shaken and the mixture is allowed to settle, the upper layer in the funnel is much lighter in colour than the bottom layer. Please explain why this occurs. ) The polar iodine is much more soluble in the polar carbon tetrachloride than in the nonpolar water. Thus, the intense colouring of the iodine shows up in the bottom carbon tetrachloride layer. | The nonpolar iodine is much more soluble in the nonpolar carbon tetrachloride than in the polar water. Thus, the intense colouring of the iodine shows up in the bottom carbon tetrachloride layer. | The nonpolar iodine is much more soluble in the polar carbon tetrachloride than in the polar water. Thus, the intense colouring of the iodine shows up in the bottom carbon tetrachloride layer. | The polar iodine is much more soluble in the nonpolar carbon tetrachloride than in the polar water. Thus, the intense colouring of the iodine shows up in the bottom carbon tetrachloride layer.

Chemistry & Chemical Reactivity

10th Edition

ISBN:9781337399074

Author:John C. Kotz, Paul M. Treichel, John Townsend, David Treichel

Publisher:John C. Kotz, Paul M. Treichel, John Townsend, David Treichel

Chapter20: Environmental Chemistry-earth's Environment, Energy, And Sustainability

Section: Chapter Questions

Problem 41PS

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