Atoms stick together to form molecules through the sharing or transfer of electrons in order to achieve a more stable electron configuration. This stability is achieved by filling their outer electron shells, following the octet rule. Atoms can form bonds by sharing electrons (covalent bonds) or by transferring electrons (ionic bonds), which allows them to achieve a lower energy state and increase their overall stability. The type of bond formed between atoms depends on their electronegativity and the difference in their electron affinities. **

Atoms stick together through the electromagnetic force, which is the attraction between positively charged protons and negatively charged electrons. This force holds the electrons in orbit around the nucleus of the atom and also holds atoms together in molecules and compounds. When atoms share or transfer electrons, they can form chemical bonds, such as covalent or ionic bonds, which allow them to stick together and form larger structures. Additionally, the arrangement of atoms in a crystal lattice can also cause them to stick together through intermolecular forces. **

Atoms from different elements can form a molecule together through chemical bonding. This typically occurs when atoms share, gain, or lose electrons to achieve a stable electron configuration. Atoms from the same element can also form molecules, such as in the case of diatomic molecules like oxygen (O2) and nitrogen (N2). In general, atoms with incomplete outer electron shells are more likely to form molecules through bonding with other atoms. **

Yes, atoms can be compressed and squeezed together under extreme conditions of pressure and temperature. When atoms are compressed, their electron clouds can overlap, leading to repulsive forces between the electrons. However, if the pressure is high enough, the atoms can be forced closer together, overcoming the repulsive forces and allowing the atoms to be compressed. This can result in changes to the physical and chemical properties of the material. **

Yes, atoms can be condensed and compressed together. When atoms are brought closer together, they can be compressed into a smaller volume, increasing their density. This can occur under high pressure and low temperature conditions, such as in the core of a star or during the formation of a solid material. The compression of atoms can lead to the formation of new structures and properties, such as in the case of diamond, where carbon atoms are compressed into a tightly-packed crystal lattice. **

Oxygen atoms are the building blocks of the element oxygen, which is essential for life and makes up a large portion of the Earth's atmosphere. Oxygen atoms have 8 protons and typically 8 neutrons, giving them a total atomic mass of 16. They are known for their ability to form strong bonds with other elements, making them crucial for the formation of molecules such as water and carbon dioxide. Carbon atoms are the building blocks of the element carbon, which is a fundamental component of all known life on Earth. Carbon atoms have 6 protons and typically 6 neutrons, giving them a total atomic mass of 12. They are known for their ability to form long chains and complex structures, making them essential for the formation of organic molecules such as proteins, carbohydrates, and DNA. **

Atoms come together to form molecules through chemical bonding. This can occur through the sharing of electrons (covalent bonding), the transfer of electrons (ionic bonding), or the attraction between positive and negative charges (ionic bonding). The type of bonding that occurs depends on the elements involved and their electron configurations. Once atoms are bonded together, they form stable molecules with unique properties based on their composition and structure. **

No, adding protons to atoms will not create different atoms. The number of protons in an atom determines its identity as a specific element. Adding protons to an atom will change its identity and create a different element. However, adding protons to an atom can create a different isotope of the same element, which will have a different atomic mass but the same chemical properties. **