It is a dipole compound. Because of n atom has a lone pair.
HCN is a linear molecule and as nitrogen is the most electronegative atom a small negative charge builds on the nitrogen atom and a small positive charge on the hydrogen. This forms a dipole (dipole means two oppositely charged ends). The intermolecular forces between HCN molecules are electrostatic and are caused by the dipole on one molecule interacting with one on another molecule. This is called dipole -dipole interaction.
polar covalent compound, although the difference in electronegativity is not enough to form dipole, the assymetry of the compound structure causes it to gain polarity.
This is not a naturally occuring compound. If it exists, it would not have a dipole moment as it would be a linear molecule.
Dipole dipole forces
The compound NH4CH3CO2 is considered a type of polar compound. This is because it is a type of water-soluble salt.
It is a dipole compound. Because of n atom has a lone pair.
HCN is a linear molecule and as nitrogen is the most electronegative atom a small negative charge builds on the nitrogen atom and a small positive charge on the hydrogen. This forms a dipole (dipole means two oppositely charged ends). The intermolecular forces between HCN molecules are electrostatic and are caused by the dipole on one molecule interacting with one on another molecule. This is called dipole -dipole interaction.
In bromine molecules there aren't any dipole-dipole dispersal forces, but in any other compound including bromine, there is.
polar covalent compound, although the difference in electronegativity is not enough to form dipole, the assymetry of the compound structure causes it to gain polarity.
This is not a naturally occuring compound. If it exists, it would not have a dipole moment as it would be a linear molecule.
This compound, called propane, is nonpolar.
Dipole dipole forces
Nonpolar compounds do not have dipole moments. Dipole moments are polar forces. If the compound is nonpolar then there is no polarity within that molecule.
Dipole - dipole and London Force
Dipole Dipole and London Dispersion forces
The molecule CH3Cl has covalent bonds. In all chemical bonds, the type of force involved is electromagnetic.