The hydrogen bond is not strong.
There is no electro-static repulsion for neutral particles like neutrons. Baryons -- such as protons and neutrons -- experience an attractive force between each that is very strong but short-ranged. Its name (a not very clever one) is the strong nuclear force. Without this strong force, no elements beyond hydrogen could exist.
When hydrogen atoms fuse to form a new nucleus, typically helium, the strong nuclear force is what holds the newly formed nucleus together. This force operates at very short distances and is significantly stronger than the electromagnetic force that would otherwise cause the positively charged protons to repel each other. The strong nuclear force binds protons and neutrons tightly within the nucleus, overcoming their electrostatic repulsion.
Water molecules are very cohesive due to the relative positive charge of their hydrogen atoms compared to their oxygen atoms, this allows them to form strong hydrogen bonds in a tetrahedral configuration.
Particles of matter are held together by very strong electric forces, specifically the electromagnetic force. This force is responsible for keeping atoms and molecules bonded together in various forms of matter.
pH 1 is considered strong because it indicates a highly acidic solution. pH measures the concentration of hydrogen ions in a solution, and a pH of 1 means there is a high concentration of hydrogen ions, making the solution very acidic.
a hydrogen bond
A molecule with a polar covalent bond, such as hydrogen fluoride (HF) or hydrogen chloride (HCl), will have a very strong dipole-dipole force due to the difference in electronegativity between the bonded atoms. This creates a significant imbalance in charge distribution within the molecule, resulting in a strong attraction between the positive and negative ends of neighboring molecules.
When the range of electronegativity between the atoms are really high. For example, hydrogen has 2.20 elctronegativity and fluorine has 3.98 and the range between them is 1.78. Compared to like nitrogen (3.04) and oxygen (3.44), whose range is 0.4, the hydrogen and fluorine will have a strong dipole-dipole force.
A Hydrogen Bond. -Apex
it is a very very strong force
The strong nuclear force is very strong across short distances. It is responsible for holding protons and neutrons together in an atomic nucleus.
There is no electro-static repulsion for neutral particles like neutrons. Baryons -- such as protons and neutrons -- experience an attractive force between each that is very strong but short-ranged. Its name (a not very clever one) is the strong nuclear force. Without this strong force, no elements beyond hydrogen could exist.
When hydrogen atoms fuse to form a new nucleus, typically helium, the strong nuclear force is what holds the newly formed nucleus together. This force operates at very short distances and is significantly stronger than the electromagnetic force that would otherwise cause the positively charged protons to repel each other. The strong nuclear force binds protons and neutrons tightly within the nucleus, overcoming their electrostatic repulsion.
Water molecules are very cohesive due to the relative positive charge of their hydrogen atoms compared to their oxygen atoms, this allows them to form strong hydrogen bonds in a tetrahedral configuration.
Water molecules have polar characteristics. They have strong intermolecular bonds, namely, hydrogen bonds. But the only intermolecular force present between petrol molecules is London forces which is relatively very weak than hydrogen bonding.
Hydrogen sulfate would be an alternate name for sulfuric acid, H2SO4. It is a very strong acid.
The predominant intermolecular force in ammonia (NH3) is hydrogen bonding. Hydrogen bonding occurs between the hydrogen atom of one ammonia molecule and the lone pair of electrons on the nitrogen atom of another ammonia molecule. This results in relatively strong interactions between the molecules.