No. What you describe is called a molecule. An ion is an atom or group of atoms with a net electrical charge.
Molecular and covalent bonds aren't really the same. It is chemical bonds that hold molecules together. These chemical bonds might be called molecular bonds, and they come in two basic flavors: ionic bonds and covalent bonds. A molecular bond might be covalent, but it might be ionic, and that's the difference.
Primary bond structures in chemistry refer to the strong chemical bonds that hold atoms together in a molecule or a solid. These include covalent bonds, ionic bonds, and metallic bonds. Covalent bonds involve the sharing of electrons between atoms, ionic bonds involve the transfer of electrons from one atom to another, and metallic bonds involve a "sea" of electrons shared between metal atoms.
Indeed they can. A common example of Carbon covalently bonding with carbon is in what we refer to as Giant Covalent Structures, which are multiple of an atom bonded together in a set, lattice-like shape. Examples of giant covalent structures made from carbon are diamond where the atoms are arranged in a pyramid shape, and graphite, where they are arranged in flat layers.
In KCN, bonds refer to the connections between the atoms in a molecule, which are typically covalent bonds involving the sharing of electrons. These bonds determine the structure and properties of the compound. For example, in potassium cyanide (KCN), there is a covalent bond between the potassium (K) and the cyanide (CN) group.
Intramolecular bonds refer to the bonds that hold atoms together within a molecule. These bonds are typically covalent or ionic. Intermolecular forces are forces of attraction between different molecules and are weaker than intramolecular bonds. Examples of intermolecular forces include hydrogen bonding, van der Waals forces, and dipole-dipole interactions.
Molecules typically refer to atoms that are bound together by covalent bonds. This is the sharing of an electron pair between two nonmetal atoms.
Molecular and covalent bonds aren't really the same. It is chemical bonds that hold molecules together. These chemical bonds might be called molecular bonds, and they come in two basic flavors: ionic bonds and covalent bonds. A molecular bond might be covalent, but it might be ionic, and that's the difference.
Primary bond structures in chemistry refer to the strong chemical bonds that hold atoms together in a molecule or a solid. These include covalent bonds, ionic bonds, and metallic bonds. Covalent bonds involve the sharing of electrons between atoms, ionic bonds involve the transfer of electrons from one atom to another, and metallic bonds involve a "sea" of electrons shared between metal atoms.
quite simply, bonds. The strength of these bonds depends on the type of element or compound that forms the solid. These 'particles' you refer to are best known as 'atoms' and the atoms that form a solid are held together by these bonds.
Indeed they can. A common example of Carbon covalently bonding with carbon is in what we refer to as Giant Covalent Structures, which are multiple of an atom bonded together in a set, lattice-like shape. Examples of giant covalent structures made from carbon are diamond where the atoms are arranged in a pyramid shape, and graphite, where they are arranged in flat layers.
quite simply, bonds. The strength of these bonds depends on the type of element or compound that forms the solid. These 'particles' you refer to are best known as 'atoms' and the atoms that form a solid are held together by these bonds.
In KCN, bonds refer to the connections between the atoms in a molecule, which are typically covalent bonds involving the sharing of electrons. These bonds determine the structure and properties of the compound. For example, in potassium cyanide (KCN), there is a covalent bond between the potassium (K) and the cyanide (CN) group.
Intramolecular bonds refer to the bonds that hold atoms together within a molecule. These bonds are typically covalent or ionic. Intermolecular forces are forces of attraction between different molecules and are weaker than intramolecular bonds. Examples of intermolecular forces include hydrogen bonding, van der Waals forces, and dipole-dipole interactions.
The words "covalent" and "ionic" refer to bonds between atoms, and not atoms themselves. If you are referring to O2 and F2, the forms in which we find oxygen and fluorine, respectively, then the bond between the two oxygens is considered to be non-polar and covalent. The same can be said of the bond between the two fluorine atoms in F2. If you are referring to the bonds in the compound formed by oxygen and fluorine, you must first identify that compound. It is OF2, and is named "fluorine oxide". The bonds between the oxygen and fluorine in fluorine oxide are slightly polar and covalent. The determining property is "electronegativity", which you should look up and review. By convention, when the electronegativity difference between atoms is: < about 0.4, the bond between them is non-polar and covalent between about 0.4 - 1.7, then bond between them is polar and covalent > 1.7, then bond between them is ionic.
The covalent bonds between the carbon atom and chlorine atoms gives each atom 8 valence electrons. Refer to the related link for a Lewis dot structure for CCl4.
No, cyclohexane is a cycloalkane and not an aromatic compound. Aromatic compounds have a specific type of stability due to resonance in their pi electron system, while cyclohexane does not possess this type of stability.
Sodium chloride is an ionic compound made up of sodium ions and chloride ions, not molecules. A molecule is a group of atoms bonded together, but in ionic compounds, ions are held together by electrostatic forces, not covalent bonds. This is why the term "molecule" is not used to describe sodium chloride.