Questions

What is the molecular orbital structure of O2?

What is the molecular orbital structure of O2?

The molecular orbital theory is a widely accepted theory for describing the electronic structure of molecules. One atom of oxygen has 8 electrons. Thus, two atoms will possess 16 electrons i.e. Oxygen molecules will have 16 electrons.

What is the bond order in O2 and F2?

order 1
F2 and O2^2 – have bond order 1 while N2, CO and NO^+ have bond order 3 .

What is Moed of O2?

The molecular orbital energy level diagram of oxygen molecule is given as follows : Bond order 2Nb​−Na​​=28−4​=2. Thus, oxygen molecule has two bonds. i.e., one is bond and one p bond. The last two electrons in p2px∙​ and p2py∙​ orbitals will remain unpaired.

How is O2 paramagnetic?

Based on molecular orbital theory, orbitals are formed by overlapping atomic orbitals of oxygen atoms. Due to the presence of two unpaired electrons, we can say that the oxygen molecule is paramagnetic in nature. The reason why oxygen is paramagnetic is because of the presence of two unpaired electrons.

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Is F2 2 paramagnetic or diamagnetic?

Recall that paramagnetic means it contains at least one unpaired electron and diamagnetic is the lack thereof. Fluorine gas F2 is diamagnetic; fluorine atoms with an unpaired electron are paramagnetic. In contrast, paramagnetic and ferromagnetic materials are attracted by a magnetic field.

How O2 2 is diamagnetic?

Lastly, in case of $O_2^{2 + }$, two electrons are removed from the outermost orbitals. One from $2{p_x}$ orbital and one from $2{p_y}$ orbital. Hence, the two orbitals are empty and all the other orbitals have paired electrons. Thus, this molecule is diamagnetic.

How do you draw Mo diagrams?

FUNDAMENTAL STEPS IN DERIVING MO DIAGRAMS

  1. Find the valence electron configuration of each atom in the molecule.
  2. Decide if the molecule is homonuclear of heteronuclear.
  3. Fill molecular orbitals using energy and bonding properties of the overlapping atomic orbitals.
  4. Use the diagram to predict properties of the molecule.