The force between the two positively charged nuclei of the two atoms
both chlorint atoms has equal and apposite repulsive force
A group of atoms held together by energy is called a molecule. The atoms are bound together by chemical bonds, which are formed by the sharing or transfer of electrons between the atoms. The energy that holds the atoms together is the result of these bonds.
when multiple atoms come together what is the result
In a covalent bond, atoms are held together by the sharing of electron pairs between them. The shared electrons creates a stable arrangement that satisfies the octet rule for both atoms, resulting in a strong bond that holds the atoms together.
Atoms are bound together by interactions between their electrons. The sharing or transfer of electrons between atoms creates chemical bonds that hold them together. These bonds can be covalent, ionic, or metallic depending on the way electrons are shared or transferred between atoms.
Oppositely charged atoms will stick together when forming an ionic bond which is a bond between a metal and nonmetal which makes them good conductors. The positive charge of a nonmetal will use its force to pull in the electrons of other atoms (metals) which is called electronegativity,"The ability to be able to pull in new electrons." hope i helped you:)
yes
Atoms move closer together when attractive forces, such as van der Waals forces or hydrogen bonding, are stronger than the repulsive forces between them. This can occur, for example, when molecules are cooled down or when pressure is applied to a substance.
both chlorint atoms has equal and apposite repulsive force
Electric forces are responsible for holding atoms and molecules together. Atoms and molecules are the building blocks of matter, and require both attractive and repulsive forces to maintain balance. Therefore, electric forces are the foundation for the existence of all matter.
Electric forces are responsible for holding atoms and molecules together. Atoms and molecules are the building blocks of matter, and require both attractive and repulsive forces to maintain balance. Therefore, electric forces are the foundation for the existence of all matter.
Protons and electrons are the two subatomic particles that cause atoms to be pushed apart due to their like charges repelling each other. Neutrons do not have a charge and do not contribute to the electrostatic forces between atoms. The attraction between the positively charged protons in the nucleus and the negatively charged electrons around the nucleus causes atoms to be pulled together.
The bond length in atoms is determined by the balance between attractive and repulsive forces acting on the atoms. It is influenced by factors such as the types of atoms involved, the number of shared electrons, and the arrangement of the atoms in the molecule. Generally, shorter bond lengths indicate stronger bonds.
When two atoms come into contact, it is their electron clouds that interact. Electrons from each atom repel each other due to their negative charge, creating a repulsive force that prevents the atoms from physically touching.
Bond distance is the compromise distance between two atoms because it represents the point at which the attractive forces holding the atoms together are balanced by the repulsive forces pushing them apart. At shorter distances, the repulsive forces dominate, causing the atoms to push away from each other. At longer distances, the attractive forces weaken, leading to a loss of stability in the bond. The bond distance is therefore the optimal distance where the bonding forces are strongest and the system is at its lowest energy state.
A group of atoms held together by energy is called a molecule. The atoms are bound together by chemical bonds, which are formed by the sharing or transfer of electrons between the atoms. The energy that holds the atoms together is the result of these bonds.
Intramolecular forces are the attractive or repulsive forces that occur within a single molecule. These forces are responsible for holding the atoms together within the molecule and determining its structure and stability. Examples include covalent bonds, ionic bonds, and metallic bonds.