## Why does symmetric orbital wave function lead to binding in the h2 molecule?

The actual electron charge density is given by the square of the magnitude of the wavefunction, and it can be seen that the symmetric wavefunction gives a high electron density between the nuclei, leading to a net attractive force between the atoms (a bond).

**Is a hydrogen molecule an electron?**

hydrogen molecule. This molecule has two electrons circling two protons. It will turn out that in the ground state, the protons share the two electrons, rather than each being assigned one. This is typical of covalent bonds.

**How do you find the Hamiltonian?**

The Hamiltonian is a function of the coordinates and the canonical momenta. (c) Hamilton’s equations: dx/dt = ∂H/∂px = (px + Ft)/m, dpx/dt = -∂H/∂x = 0.

### Is the Hamiltonian operator Hermitian?

Since we have shown that the Hamiltonian operator is hermitian, we have the important result that all its energy eigenvalues must be real. In fact the operators of all physically measurable quantities are hermitian, and therefore have real eigenvalues.

**What does a Hamiltonian operator do?**

The Hamiltonian operator, when used to operate on an appropriate quantity (namely the wavefunction in the context of quantum mechanics) gives you the total energy of the system—the sum of the kinetic (written as K, or sometimes as T) and the potential (U or V) energy.

**What does hydrogen molecule do?**

Hydrogen molecules are oxidized to obtain protons and electrons on the anode, the electrons reach the cathode through an external circuit, allowing oxygen molecules reduction and the formation of oxygen-based anions.

## Why is hydrogen a molecule?

A molecule of hydrogen is the simplest possible molecule. It consists of two protons and two electrons held together by electrostatic forces. Like atomic hydrogen, the assemblage can exist in a number of energy levels.

**What is the Hamiltonian operator of the molecule ion H2+?**

The Hamiltonian operator of the molecule ion H 2+ is: H = − h ² / 2m Δ + e / 4πε o [ – 1 /r A – 1 /r B + 1 / R] or, in the so-called atomic unit au: H = − ½Δ − 1 /r A – 1 /r B + 1 / R

**What is the Hamiltonian of the energy operator?**

The Hamiltonian operator (=total energy operator) is a sum of two operators: the kinetic energy operator and the potential energy operator Kinetic energy requires taking into account the momentum operator The potential energy operator is straightforward. 4. The Hamiltonian becomes:

### What is Hamiltonian for helium atom?

Hamiltonian for helium atom. kinetic energy of nucleus kinetic energy of electron 1 kinetic energy of electron 2 attraction of electron 1 by nucleus attraction of electron 2 by nucleus repulsion between electrons 1 and 2.

**What is the HAA value for the Hamiltonian operator?**

Now examine the details of H AA after inserting Equation 10.4.1 for the Hamiltonian operator. HAA = ⟨1sA | − ℏ2 2m∇2 − e2 4πϵ0rA | 1sA⟩ + e2 4πϵ0R⟨1sA | 1sA⟩ − ⟨1sA | e2 4πϵ0rB | 1sA⟩ The first term is just the integral for the energy of the hydrogen atom, EH.