The approximate bond angle for a molecule with a trigonal planar shape is 120 degrees.
The approximate Cl-Si-Cl bond angle in SiCl2F2 is expected to be around 109.5 degrees. This is because the molecule adopts a tetrahedral geometry due to the presence of four electron pairs around the silicon atom, resulting in bond angles close to the ideal tetrahedral angle.
The approximate bond angle in carbon dioxide (CO2) is 180 degrees.
The approximate bond angle for OCS is around 178 degrees.
The bond angle of a hydrogen molecule is 180 degrees.
The approximate bond angle for a molecule with a trigonal planar shape is 120 degrees.
The approximate Cl-Si-Cl bond angle in SiCl2F2 is expected to be around 109.5 degrees. This is because the molecule adopts a tetrahedral geometry due to the presence of four electron pairs around the silicon atom, resulting in bond angles close to the ideal tetrahedral angle.
The approximate bond angle in carbon dioxide (CO2) is 180 degrees.
The water molecule's bond angle is about 104.45 degrees.
The approximate bond angle for OCS is around 178 degrees.
The bond angle of a hydrogen molecule is 180 degrees.
The approximate H-O-H bond angle in water is 104.5 degrees.
The question is nonsense. WHICH bond angle? There are many of them in a molecule the size of estradiol.
The bond angle in a linear molecule is 180 degrees. This means that the two atoms at either end of the molecule are directly across from each other, creating a straight line.
The approximate bond angles in CHClO are around 109.5 degrees for the H-C-Cl bond angle, 107 degrees for the C-Cl-O bond angle, and 104.5 degrees for the H-C-O bond angle, following the expected tetrahedral geometry around carbon.
The bond length is equal to the linear distance between the nuclei of the bonding atoms. The bond angle is equal to the angle between any two consecutive bonds in a molecule or ion. Bond angles of molecules and ions are usually determined by using the VSEPR theory.
SeF6 is a regular octahedron , all bond angles are 90 degrees