You can have multiple bonds by multiple electrons, e. g. in cyclohexane. I would be surprised if removing all but one electrons from those bonds works - the molecule gets charged a lot which probably breaks the molecule.Higgsono said:But is it possible for one single elctron to create two bonds or more?
mfb said:You can have multiple bonds by multiple electrons, e. g. in cyclohexane. I would be surprised if removing all but one electrons from those bonds works - the molecule gets charged a lot which probably breaks the molecule.
The Schrödinger Equation is a fundamental equation in quantum mechanics that describes the behavior and properties of a quantum system. It is used to determine the wave function, which contains all the information about the system's energy, position, and momentum. The equation is used to study the bonding of two Hydrogen atoms to form a Hydrogen molecule.
The Schrödinger Equation predicts that the electrons in a Hydrogen molecule will have lower energy levels when they are bonded together compared to when they are separated. This lower energy state makes the Hydrogen molecule more stable, resulting in the formation of a covalent bond between the two atoms.
Yes, the Schrödinger Equation can be applied to any quantum system, including more complex molecules. However, as the number of atoms in a molecule increases, the mathematical complexity of the equation also increases, making it difficult to solve. Therefore, approximations and simplifications are often used to study larger molecules.
The quantum numbers in the Schrödinger Equation for Hydrogen molecule bonding represent the energy levels and spatial distribution of the electrons in the molecule. These numbers determine the shape and stability of the molecule, as well as the energy required to break the covalent bond.
The Schrödinger Equation includes a term for the Coulomb repulsion between the two positively charged nuclei. This term contributes to the overall energy of the molecule, and its magnitude depends on the distance between the two nuclei. As the two nuclei move closer together, the repulsion term increases, making the molecule less stable. This is why there is a preferred distance between the two nuclei in a Hydrogen molecule.