Iodine is a poor conductor of electricity because it is a molecular solid consisting of diatomic iodine (I₂) molecules held together by weak van der Waals forces. In this structure, there are no free-moving charged particles, such as ions or electrons, that can carry an electrical current. Additionally, when iodine is in its solid state, the lack of a metallic or ionic lattice further inhibits electrical conductivity. Thus, due to the absence of free charge carriers, iodine does not conduct electricity well.
In a lattice structure, the arrangement of atoms or molecules is held together by strong chemical bonds between neighboring particles. These bonds provide the necessary force to prevent the lattice from collapsing or breaking apart, helping to maintain the integrity and stability of the structure.
Water is primarily molecular, consisting of individual H₂O molecules held together by hydrogen bonds. In its solid form, ice, water can exhibit a lattice structure due to these hydrogen bonds, forming a crystalline arrangement. However, in its liquid state, water exists as a dynamic collection of molecules rather than a fixed lattice.
Ice particles are held together by strong hydrogen bonds. Water molecules in ice lattice structures are connected by these hydrogen bonds, which are bonds between the hydrogen atoms of one water molecule and the oxygen atoms of neighboring water molecules. This bond network gives ice its solid and stable structure.
The lattice is held in place by the intermolecular forces between the atoms or molecules that make up the lattice structure. These forces can include ionic, covalent, metallic, or van der Waals interactions, depending on the type of lattice.
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 is made from diatomic iodine molecules,the two iodine atoms are covalently bonded with each other.the iodine molecules have dispersion forces so,the crystal is made from the dispersion forces between the iodine molecule.
Iodine gas exists as diatomic molecules in the form of I2, held together by a covalent bond.
Iodine is a diatomic molecule consisting of two iodine atoms (I-I), while diamond is a giant covalent structure made up of carbon atoms bonded in a tetrahedral lattice structure. Iodine molecules are held together by weak van der Waals forces, while diamond's carbon atoms are strongly bonded through covalent bonds in a three-dimensional network.
Iodine has a simple covalent structure. It consists of diatomic molecules (I2) held together by a single covalent bond between the two iodine atoms.
Iodine is a molecular solid composed of diatomic molecules of I2, held together by weak van der Waals forces. Naphthalene is a covalent molecular solid made of individual naphthalene molecules held together by London dispersion forces.
Simple molecular; covalently bonded intramolecular forces.
Yes, in a sample of NaCl, individual molecules are not present. Instead, it consists of a lattice structure of Na+ and Cl- ions held together by ionic bonds.
Iodine is a molecular solid, the large sized molecules are held together through weak Vander waal's forces so I2 molecules easily become sublimed,
In solid iodine, the bonding is primarily covalent. Iodine atoms form diatomic molecules held together by weak van der Waals forces. The electrons are shared between the iodine atoms, creating a stable structure.
Iodine is a poor conductor of electricity because it is a molecular solid consisting of diatomic iodine (I₂) molecules held together by weak van der Waals forces. In this structure, there are no free-moving charged particles, such as ions or electrons, that can carry an electrical current. Additionally, when iodine is in its solid state, the lack of a metallic or ionic lattice further inhibits electrical conductivity. Thus, due to the absence of free charge carriers, iodine does not conduct electricity well.
In a lattice structure, the arrangement of atoms or molecules is held together by strong chemical bonds between neighboring particles. These bonds provide the necessary force to prevent the lattice from collapsing or breaking apart, helping to maintain the integrity and stability of the structure.