In the solid state, iodine molecules are held together by intermolecular forces, which create a larger average distance between the atoms compared to when they are in the gaseous state and are free to move independently of one another. The intermolecular forces in the solid, such as Van der Waals forces, result in a longer bond distance between the iodine atoms.
i think in the gaseous phase there are other forces acting atoms of iodine like inter moleculer forces due to wich bond distance increases. in case of gasous state there are no other force acting on the molecule of iodine axcept electrostatic force between two atoms of iodine . so in case of gase elctrostatic force is more than in the case of solid.. if my answer is true please inform me on my cell numbar 00923456744580
No, iodine is a dark purple, shiny solid at room temperature. It has a characteristic metallic luster and can sublimate directly from a solid to a gaseous state.
Iodine typically has a shiny appearance, especially in its solid crystalline form. However, when iodine is in a gaseous state, it appears as a purple vapor.
No, iodine is not a conductor in its molten state. Iodine is a non-metal and does not conduct electricity, whether in solid, liquid or gaseous state.
Entropy increases in the reaction.
think in the gaseous phase there are other forces acting atoms of iodine like inter moleculer forces due to wich bond distance increases. in case of gasous state there are no other force acting on the molecule of iodine axcept electrostatic force between two atoms of iodine . so in case of gase elctrostatic force is more than in the case of solid..
In the gaseous state, iodine molecules exist as diatomic molecules (I2) that are more spatially separated, allowing for greater bond lengths due to reduced intermolecular interactions. In contrast, in the solid state, iodine atoms are packed closely together in a crystalline arrangement, which can lead to increased interactions between neighboring molecules, effectively shortening the bond length. Thus, the bond length in the gaseous state is greater due to less steric hindrance and weaker interactions compared to the solid state.
Iodine molecule has covalent bonds.
i think in the gaseous phase there are other forces acting atoms of iodine like inter moleculer forces due to wich bond distance increases. in case of gasous state there are no other force acting on the molecule of iodine axcept electrostatic force between two atoms of iodine . so in case of gase elctrostatic force is more than in the case of solid.. if my answer is true please inform me on my cell numbar 00923456744580
No, iodine is a dark purple, shiny solid at room temperature. It has a characteristic metallic luster and can sublimate directly from a solid to a gaseous state.
Bluish-Black Solid, and Purple in Gaseous state
Deposition examples: gaseous iodine, and the water in snow clouds.
in the solid state the molecules of iodine align in the form of layer lattics. I-I bond distance is 271.5pm and it is appreciably longer than in gaseous iodin which is 266.6 pm and iodine is poor conductor of electricity/
Iodine typically has a shiny appearance, especially in its solid crystalline form. However, when iodine is in a gaseous state, it appears as a purple vapor.
No, iodine is not a conductor in its molten state. Iodine is a non-metal and does not conduct electricity, whether in solid, liquid or gaseous state.
In the transition from solid iodine (I2(s)) to gaseous iodine (I2(g)), entropy increases. This is because the gaseous state has a higher degree of disorder and greater molecular motion compared to the solid state, where the molecules are more closely packed and organized. The increase in volume and freedom of movement in the gas phase contributes to this rise in entropy.
In the reaction ( \text{I}_2(s) \rightarrow \text{I}_2(g) ), the entropy increases. This is because the transition from solid iodine to gaseous iodine involves a change from a more ordered state (solid) to a more disordered state (gas), where the molecules have greater freedom of movement. As a result, the number of possible microstates increases, leading to higher entropy in the gaseous phase compared to the solid phase.