In solid iodine, the dominant force holding the units together is the weak van der Waals forces. These forces are the result of temporary dipoles formed by the movement of electrons, leading to a slight attraction between the iodine molecules.
Iodine (I2) is a solid at 25°C because it has a melting point of 113.7°C. At temperatures below this, iodine exists in a solid state due to its intermolecular forces holding its molecules together in a crystalline structure.
The force holding two atoms together is called a chemical bond. It is the attraction between the positively charged atomic nucleus of one atom and the negatively charged electrons of another atom.
The force that holds unlike particles of matter together is called the electromagnetic force. This force is responsible for holding atoms together and is crucial for the formation of molecules and the structure of matter.
The strong nuclear force is the force that affects changes of particles in the nucleus. It is responsible for holding protons and neutrons together in the nucleus, overcoming the repulsive electromagnetic force between positively charged protons.
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.
The dispersion force is responsible for holding nitrogen crystals together
Strong force
No it is the force holding the atomic nuclei together.
Iodine (I2) is a solid at 25°C because it has a melting point of 113.7°C. At temperatures below this, iodine exists in a solid state due to its intermolecular forces holding its molecules together in a crystalline structure.
The force responsible for holding the nucleus of an atom together is called the strong nuclear force. It overcomes the electrostatic repulsion between positively charged protons in the nucleus, keeping the protons and neutrons bound together.
I'm going to presume your question should have been phrased, "Is there any way to prevent the strong nuclear force from holding protons and neutrons together?" The answer is that this force is active whenever nucleons are close together, and there is no way to interfere with this force.
The Strong Force.
chemical bond
protons
No, why should it? There is a powerful gravitational force holding it together.
a set of obligations and the teachings of the church.
The gravitational force is the greatest force in the universe. It is responsible for holding together galaxies, stars, planets, and all celestial bodies.