The distance between molecules of a gas range depending upon the gas concentration. Higher gas concentration signifies closer molecules, while the inverse applies to a lower gas concentration.
When two atoms are too close, their electron clouds may start to repel each other, due to the negative charges. This can result in a strong electrostatic force pushing the atoms apart, preventing them from getting any closer. Additionally, if the atoms get too close, their electron shells may start to overlap, leading to the repulsion between the negatively charged electrons, preventing the atoms from bonding.
Metallic bond is formed by atoms in metals packing electrons close together. This bond involves the delocalization of electrons among a network of metal atoms, leading to properties such as electrical conductivity and malleability.
When atoms are pushed close together, they experience repulsion due to the electrostatic forces between their positively charged nuclei. This repulsion increases as the distance between atoms decreases, making it difficult to compress them further. If the force pushing the atoms together is too strong, it can lead to the atoms overcoming this repulsion and bonding together in a chemical reaction.
Yes, atoms that are held closely together in a regular arrangement form a solid. The strong forces of attraction between the atoms keep them in a fixed position, giving solids a definite shape and volume.
the atoms are close together and vibrate very close to each other. there is not enough kinetic energy for the atoms to spread very far. if you were to heat it, you would increase the energy and it would become a liquid, but at room temperature, the atoms are close together. -Akilae
The forces of attraction between liquid atoms and liquid are more therefore they are close to another. This is what that keeps them close to each other.
yes because the atoms are close but not very close so then the atoms vibrate against each other and let the electricity flow through.
solid state
When two atoms are too close, their electron clouds may start to repel each other, due to the negative charges. This can result in a strong electrostatic force pushing the atoms apart, preventing them from getting any closer. Additionally, if the atoms get too close, their electron shells may start to overlap, leading to the repulsion between the negatively charged electrons, preventing the atoms from bonding.
solid state
yes, it is because atoms of bread are close together and it has a shape.
gas pressure
When atoms get close to one another the magnetic force repels each other or attracts each other.
Another way of describing the arrangement of atoms is by identifying layers. In the hexagonal close pack, the base layer consists of six atoms in a hexagon around a central atom. The next layer is the same, but it is stacked above the first layer by having the atoms nestle in the spaces between atoms. The third layer is like the first, and so on. This structure allows the atoms to fill the available volume very effectively, much more so than the simple cubic structure. This is why very few atoms form solids with simple cubic unit cells but very many have the hexagonal close pack structure. cobalt is an example of a hexagonal close pack solid.
Metallic bond is formed by atoms in metals packing electrons close together. This bond involves the delocalization of electrons among a network of metal atoms, leading to properties such as electrical conductivity and malleability.
When atoms are pushed close together, they experience repulsion due to the electrostatic forces between their positively charged nuclei. This repulsion increases as the distance between atoms decreases, making it difficult to compress them further. If the force pushing the atoms together is too strong, it can lead to the atoms overcoming this repulsion and bonding together in a chemical reaction.
Another way of describing the arrangement of atoms is by identifying layers. In the hexagonal close pack, the base layer consists of six atoms in a hexagon around a central atom. The next layer is the same, but it is stacked above the first layer by having the atoms nestle in the spaces between atoms. The third layer is like the first, and so on. This structure allows the atoms to fill the available volume very effectively, much more so than the simple cubic structure. This is why very few atoms form solids with simple cubic unit cells but very many have the hexagonal close pack structure. cobalt is an example of a hexagonal close pack solid.