Water is a polar molecule whereas methane is a non-polar molecule.
The intra- molecular force in water molecule is much stronger compared top the intra- molecular force between a carbon and a hydrogen in methane.
Water molecule have hydrogen bonding as its intra molecular force.
Hydrogen bonding is the strongest, then comes dipole-dipole and the least strong is the London dispersion force.
The molecular bonding of water is higher than that of methane (binding energy), and the intermolecular bonding of water is higher than that of methane (boiling point).
Water has a stronger attraction between its particles compared to methane. This is evident in the higher boiling point of water, as the stronger intermolecular forces require more energy to break the bonds between water molecules. Methane, being a lighter molecule, has weaker intermolecular forces which results in a lower boiling point.
The reaction between methane and oxygen is exothermic, meaning it releases energy in the form of heat. This is because the bonds formed in the products (water and carbon dioxide) are stronger than the bonds in the reactants (methane and oxygen), resulting in a release of energy.
The chemical formula of methane is CH4; if you think to atoms methane has 5 atoms.
The C3H8O molecules will have a greater attraction in liquid rubbing alcohol than ch4 molecules in methane gas. This is due to the hydrogen bonding and dipole intermolecular forces that would occur between the polar alcohols. The nonpolar methane and methane gas will only experience London dispersion forces.
There are no neutrons in a molecule of methane. Neutrons are subatomic particles found in the nucleus of atoms, whereas methane is a molecule composed of one carbon atom and four hydrogen atoms.
Water has a stronger attraction between its particles compared to methane. This is evident in the higher boiling point of water, as the stronger intermolecular forces require more energy to break the bonds between water molecules. Methane, being a lighter molecule, has weaker intermolecular forces which results in a lower boiling point.
Any link exist between methane and subatomic particles.
The reaction between methane and oxygen is exothermic, meaning it releases energy in the form of heat. This is because the bonds formed in the products (water and carbon dioxide) are stronger than the bonds in the reactants (methane and oxygen), resulting in a release of energy.
Ion
The chemical formula of methane is CH4; if you think to atoms methane has 5 atoms.
The high melting point of methane is due to its molecular structure. Methane molecules are held together by strong covalent bonds, making it difficult to break the bonds and transition from solid to liquid phase. Additionally, methane molecules are spherical and have a symmetrical shape, which contributes to the strong intermolecular forces between molecules.
The C3H8O molecules will have a greater attraction in liquid rubbing alcohol than ch4 molecules in methane gas. This is due to the hydrogen bonding and dipole intermolecular forces that would occur between the polar alcohols. The nonpolar methane and methane gas will only experience London dispersion forces.
There are no neutrons in a molecule of methane. Neutrons are subatomic particles found in the nucleus of atoms, whereas methane is a molecule composed of one carbon atom and four hydrogen atoms.
In methane molecules, the primary force of attraction holding the atoms together is covalent bonding. Specifically, in methane, a carbon atom shares its four valence electrons with four hydrogen atoms to form strong covalent bonds. These bonds result in a stable arrangement of electrons around each atom, effectively holding the molecule together.
water has very high intermolecular forces called hydrogen bonding, methane is nearly unaffected by it's neighbor methanes. oxgyen has a high electronegativity value, making the water molecule mostly negative near the oxgyen and positive near the hydrogen atoms. this causes a polar molecule, which are attracted to nearby molecules of water. that's why water has such a high boiling point for being such a small mass molecule. methane has carbon central, four hydrogen's at the "corners". carbon's electronegativity is about 2.6 to hydrogen's 2.1. net the carbon gains these electrons mostly in the covalent bonds, but all four hydrogens become a sort of "positive" zone since they "lose" their bonding electron most of the time to carbon. since all the outer atoms (the hydrogens) for all of the local methane molecules are the same, all this positive charge repels from each other, making for much lower boiling points, little intermolecular attraction. linus pauling won the noble prize in chemistry for his work in this bonding phenomenon.
van der Vaals forces of attraction and dipole-dipole interaction
Ammonia (NH3) has hydrogen bonding intermolecular forces, whereas methane (CH4) does not. In addition, ammonia is polar, and so also has dipole-dipole forces and methane does not. Thus, it takes more energy (higher temperature) to boil and melt ammonia than it does methane.