Drawing and predicting the XeF4 molecular geometry is very easy by following the given method. Here in this post, we described step by step to construct XeF4 molecular geometry. Xenon comes from the noble gas family in the periodic table. Xenon is almost inert chemically at normal temperature and pressure.
Key Points To Consider When drawing The XeF4 Molecular Geometry
A three-step approach for drawing the XeF4 molecular can be used. The first step is to sketch the molecular geometry of the XeF4 molecule, to calculate the lone pairs of the electron in the central xenon atom; the second step is to calculate the XeF4 hybridization, and the third step is to give perfect notation for the XeF4 molecular geometry.
The XeF4 molecular geometry is a diagram that illustrates the number of valence electrons and bond electron pairs in the XeF4 molecule in a specific geometric manner. The geometry of the XeF4 molecule can then be predicted using the Valence Shell Electron Pair Repulsion Theory (VSEPR Theory) and molecular hybridization theory, which states that molecules will choose the XeF4 geometrical shape in which the electrons have from one another in the specific molecular structure.
Finally, you must add their bond polarities characteristics to compute the strength of the Xe-F bond (dipole moment properties of the XeF4 molecular geometry). The xenon-fluorine bonds in the xenon tetrafluoride(XeF4), for example, are polarised toward the more electronegative value fluorine atom, and because all (Xe-F) bonds have the same size and polarity, their sum is zero due to the XeF4 molecule’s bond dipole moment due to it oppose to each other in the square planar geometry, and the XeF4 molecule is classified as a polar molecule.
The molecule of xenon tetrafluoride (with square planar shape XeF4 molecular geometry) is tilted at 90 degrees. It has a difference in electronegativity values between xenon and fluorine atoms, with fluorine’s pull the electron cloud being greater than xenon’s. As a result, it has no permanent dipole moment in its molecular structure. The XeF4 molecule has no dipole moment due to an equal charge distribution of negative and positive charges.
Overview: XeF4 electron and molecular geometry
According to the VSEPR theory, XeF4 possesses square planar molecular geometry. Because the center atom, xenon, has three Xe-F bonds with the fluorine atoms surrounding it. The F-Xe-F bond angle is 90 degrees in the square planar molecular geometry. The XeF4 molecule has a square planar geometry shape because it contains four fluorine atoms.
There are four Xe-F bonds at the XeF4 molecular geometry. After linking the four fluorine atoms and two lone pairs of electrons in the square planar form, it maintains the planar-like structure. In the XeF4 molecular geometry, the Xe-F bonds have stayed in the four terminals and two lone pairs of electrons in the top and bottom of the square planar molecule.
The center xenon atom of XeF4 has two lone pairs of electrons, resulting in square planar electron geometry. However, the molecular geometry of XeF4 looks like a square planar and two lone pairs on the top and bottom of the XeF4 geometry. It’s the XeF4 molecule’s symmetrical geometry. As a result, the XeF4 molecule is nonpolar.
How to find XeF4 hybridization and molecular geometry
Calculating lone pairs of electrons on xenon in the XeF4 geometry:
1.Determine the number of lone pairs on the core xenon atom of the XeF4 Lewis structure. Because the lone pairs on xenon are mostly responsible for the XeF4 molecule geometry distortion, we need to calculate out how many there are on the central xenon atom of the Lewis structure.
Use the formula below to find the lone pair on the xenon atom of the XeF4 molecule.
L.P(Xe) = V.E(Xe) – N.A(Xe-F)/2
Lone pair on the central xenon atom = L.P(Xe)
The core central xenon atom’s valence electron = V.E(Xe)
Number of Xe-F bonds = N.A (Xe-F)calculation for xenon atom lone pair in XeF4 molecule
For instance of XeF4, the central atom, xenon, has five electrons in its outermost valence shell, four Xe-F bond connections.
As a result of this, L.P(Xe) = (8 –4)/2=2
In the XeF4 electron geometry structure, the lone pair on the central xenon atom is two. It means there are two lone pairs of electrons in the core xenon atom. These lone pairs of electrons on the central xenon atom are responsible for the XeF4 molecular geometry distortion.
If you imagine, there is two lone pair on the xenon atom of the XeF4 molecule. Then, electronic repulsion of Xe-F bonds pair and two lone pair of electrons in the XeF4. That gives stable square planar geometry. The lone pairs of electrons are located on the top and bottom of the geometry. It makes a stable square planar structure.
But in reality, the XeF4 molecule undergoes distortion in its geometry due to the polarity of the Xe-F bond and lone pairs of electrons in the square planar geometry. This leads to a square planar for the XeF4 molecule.
Calculate the number of molecular hybridizations of the XeF4 molecule
What is XeF4 hybrizidation? This is a very fundamental question in the field of molecular chemistry. All the molecules made by atoms. In chemistry, atoms are the fundamental particles. There are four different types of orbitals in chemistry. They are named as s, p, d, and f orbitals.
The entire periodic table arrangement are based on these orbital theory. Atoms in the periodic table are classified as follows:
s- block elements
p- block elements
f-block elementsAtoms are classified in the periodic table
XeF4 molecule is made of one xenon and four fluorine atoms. The xenon atom has s, p, and d orbitals. Fluorine comes as the first element from the halogen family in the periodic table. The fluorine atom has s and p orbitals.
When these atoms combine to form the XeF4 molecule, its atomic orbitals mixed and form unique molecular orbitals due to hybridization.
How do you find the XeF4 molecule’s hybridization? We must now determine the molecular hybridization number of XeF4.
The formula of XeF4 molecular hybridization is as follows:
No. Hyb of XeF4= N.A(Xe-F bonds) + L.P(Xe)
No. Hy of XeF4= the number of hybridizations of XeF4
Number of Xe-F bonds = N.A (Xe-F bonds)
Lone pair on the central xenon atom = L.P(Xe)Calculation for hybridization number for XeF4 molecule
In the XeF4 molecule, xenon is a core central atom with four fluorine atoms connected to it and two lone pairs of electrons. The number of XeF4 hybridizations (No. Hyb of XeF4) can then be estimated using the formula below.
No. Hyb of XeF4= 4+2 =6
The XeF4 molecule hybridization is six. Xenon atom has s, p, and d orbitals. The fluorine atom has s and p orbital. The sp3d2 hybridization of the XeF4 molecule is formed when one S orbital, three p orbital, and two d orbitals join together to form a molecular orbital.
Molecular Geometry Notation for XeF4 Molecule :
Determine the form of XeF4 molecular geometry using VSEPR theory. The AXN technique is commonly used when the VSEPR theory is used to calculate the shape of the XeF4 molecule.
The AXN notation of XeF4 molecule is as follows:
The center xenon atom in the XeF4 molecule is denoted by the letter A.
The bound pairs (four Xe-F bonds) of electrons to the core xenon atom are represented by X.
The lone pairs of electrons on the central xenon atom are denoted by the letter N.Notation for XeF4 molecular geometry
We know that xenon is the core atom, with four electron pairs bound (four Xe-F) and two lone pair of electrons. The general molecular geometry formula for XeF4 is AX4N2.
According to the VSEPR theory, if the XeF4 molecule has an AX4N2 generic formula, the molecular geometry and electron geometry will both be square planar forms.
|Name of Molecule||Xenon tetrafluoride|
|Chemical molecular formula||XeF4|
|Molecular geometry of XeF4||square planar|
|Electron geometry of XeF4||square planar|
|Hybridization of XeF4||sp3d2|
|Bond angle (F-Xe-F)||90º degree|
|Total Valence electron for XeF4||36|
|The formal charge of XeF4 on xenon||0|
In this post, we discussed the method to construct XeF4 molecular geometry, the method to find the lone pairs of electrons in the central xenon atom, XeF4 hybridization, and XeF4 molecular notation. Need to remember that, if you follow the above-said method, you can construct the XeF4 molecular structure very easily.
What is XeF4 Molecular geometry?
XeF4 Molecular geometry is electronic structural representation of molecule.
What is the molecular notation for XeF4 molecule?
XeF4 molecular notation is AX4N2.
The polarity of the molecules
Polarity of the molecules are listed as follows
- Polarity of BeCl2
- Polarity of SF4
- Polarity of CH2Cl2
- Polarity of NH3
- Polarity of XeF4
- Polarity of BF3
- Polarity of NH4+
- Polarity of CHCl3
- Polarity of BrF3
- Polarity of BrF5
- Polarity of SO3
- Polarity of SCl2
- Polarity of PCl3
- Polarity of H2S
- Polarity of NO2+
- Polarity of HBr
- Polarity of HCl
- Polarity of CH3F
- Polarity of SO2
- Polarity of CH4
Lewis Structure and Molecular Geometry
Lewis structure and molecular geometry of molecules are listed below
- CH4 Lewis structure and CH4 Molecular geometry
- BeI2 Lewis Structure and BeI2 Molecular geometry
- SF4 Lewis Structure and SF4 Molecular geometry
- CH2I2 Lewis Structure and CH2I2 Molecular geometry
- NH3 Lewis Structure and NH3 Molecular geometry
- XeF4 Lewis Structure and XeF4 Molecular geometry
- BF3 Lewis Structure and BF3 Molecular geometry
- NH4+ Lewis Structure and NH4+ Molecular geometry
- CHCl3 Lewis Structure and CHCl3 Molecular geometry
- BrF3 Lewis Structure and BrF3 Molecular geometry
- BrF5 Lewis Structure and BrF5 Molecular geometry
- SO3 Lewis Structure and SO3 Molecular geometry
- SI2 Lewis structure and SI2 Molecular Geometry
- PCl3 Lewis structure and PCl3 Molecular Geometry
- H2S Lewis structure and H2S Molecular Geometry
- NO2+ Lewis structure and NO2+ Molecular Geometry
- HBr Lewis structure and HBr Molecular Geometry
- CS2 Lewis structure and CS2 Molecular Geometry
- CH3F Lewis structure and CH3F Molecular Geometry
- SO2 Lewis structure and SO2 Molecular Geometry
- HCl Lewis structure and HCl Molecular Geometry
- HF Lewis structure and HF Molecular Geometry
- HI Lewis structure and HI Molecular Geometry
- CO2 Lewis structure and CO2 Molecular Geometry
- SF2 Lewis structure and SF2 Molecular Geometry
- SBr2 Lewis structure and SBr2 Molecular Geometry
- SCl2 Lewis structure and SCl2 Molecular Geometry
- PF3 Lewis structure and PF3 Molecular Geometry
- PBr3 Lewis structure and PBr3 Molecular Geometry
- CH3Cl Lewis structure and CH3Cl Molecular Geometry
- CH3Br Lewis structure and CH3Br Molecular Geometry
- CH3I Lewis structure and CH3I Molecular Geometry
- SCl4 Lewis structure and SCl4Molecular Geometry
- SBr4 Lewis structure and SBr4 Molecular Geometry
- CH2F2 Lewis structure and CH2F2 Molecular Geometry
- CH2Br2 Lewis structure and CH2Br2 Molecular Geometry
- XeCl4 Lewis structure and XeCl4 Molecular Geometry
- BCl3 Lewis structure and BCl3 Molecular Geometry
- BBr3 Lewis structure and BBr3 Molecular Geometry
- CHF3 Lewis structure and CHF3 Molecular Geometry
- CHBr3 Lewis structure and CHBr3 Molecular Geometry
- ClF3 Lewis structure and ClF3 Molecular Geometry
- IF3 Lewis structure and IF3 Molecular Geometry
- ICl3 Lewis structure and ICl3 Molecular Geometry
- IBr3 Lewis structure and IBr3 Molecular Geometry
- ClF5 Lewis structure and ClF5 Molecular Geometry
- IF5 Lewis structure and IF5 Molecular Geometry
- PH3 Lewis structure and PH3 Molecular Geometry
- AsH3 Lewis structure and AsH3 Molecular Geometry
- AsCl3 Lewis structure and AsCl3 Molecular Geometry
- AsF3 Lewis structure and AsF3 Molecular Geometry
- NCl3 Lewis structure and NCl3 Molecular Geometry
- NF3 Lewis structure and NF3 Molecular Geometry
- NBr3 Lewis structure and NBr3 Molecular Geometry
- AlCl3 Lewis structure and AlCl3 Molecular Geometry
- AlF3 Lewis structure and AlF3 Molecular Geometry
- AlBr3 Lewis structure and AlBr3 Molecular Geometry
- CCl4 Lewis structure and CCl4 Molecular Geometry