hydrogen bonding
Oxygen attracts electrons much more strongly than hydrogen, resulting in a net positive charge on the hydrogen atoms, and a net negative charge on the oxygen atom. The presence of a charge on each of these atoms gives each water molecule a net dipole moment,. Electrical attraction between water molecules due to this dipole pulls individual molecules closer together. This attraction is known as hydrogen bonding. The molecules of water are constantly moving in relation to each other, and the hydrogen bonds are continually breaking and reforming very very fast in nanoseconds..
Water is H2O, thus there are 2 hydrogen atoms present and one oxygen atom.
phosopholipid
A diatomic molecule for example oxygen gas (O2)
water
The molecule of butan-1- ol (n-butanol), C4H9OH, is bonded with covalent bonds. The C-O bond is polar covalent. Intermolecular forces between butanol molecules are:- dipole-dipole van der walls hydrogen bonds
A molecule.
Hydrogen selenide primarily exhibits covalent bonding, where electrons are shared between hydrogen and selenium atoms. This sharing of electrons allows for the formation of a stable molecule.
The atoms in an ammonia molecule are covalently bonded.
Water is H2O, thus there are 2 hydrogen atoms present and one oxygen atom.
Water molecules are held together by polar covalent bonds. These bonds are formed when oxygen shares electrons with two hydrogen atoms, resulting in a slight negative charge on the oxygen atom and a slight positive charge on the hydrogen atoms.
phosopholipid
A diatomic molecule for example oxygen gas (O2)
covalent
A water molecule is considered to be V(or bent) shape.
Hydrogen bonding is usually formed between one lone pair of electrons of the oxygen atom of one water molecule and the hydrogen atom of another water molecule. Hydrogen bonding forms as a result of electro-negativity difference between oxygen atom and hydrogen, with oxygen being more electro-negative.
Covalent bonding
Dipole forces and London forces are present between these molecules.