The molecular geometry of silane (SiH₄) is tetrahedral. This shape arises from the four hydrogen atoms bonded to the central silicon atom, with bond angles of approximately 109.5 degrees. The tetrahedral geometry is a result of the repulsion between the electron pairs in the silicon's valence shell, following VSEPR theory.
The molecular geometry is octahedral.
The molecular geometry of C2H2Br2 is trigonal planar.The molecular geometry of C2H2Br2 is trigonal planar.
The molecular geometry of secl2 is BENT.
See-saw is the molecular geometry, and trigonal bi-pyramidal is the orbital geometry.
Molecular geometry is tetrahedral has no lone pairs
The name for the molecular compound SiH4 is silane.
Silane has a tetrahedral molecular shape. It consists of a central silicon atom bonded to four hydrogen atoms, resulting in a shape similar to a regular tetrahedron.
The molecular geometry is octahedral.
The molecular geometry of C2H2Br2 is trigonal planar.The molecular geometry of C2H2Br2 is trigonal planar.
The molecular geometry of secl2 is BENT.
The molecular geometry of HClO is bent.
The molecular geometry of N2O2 is linear.
Silane (SiH4) is a pyramid-shaped molecule with a central silicon atom bonded to four hydrogen atoms. The geometry of silane is tetrahedral, where the hydrogen atoms are positioned at the four corners of the tetrahedron around the central silicon atom.
The molecular geometry of IF4- is square planar.
The molecular geometry of NHF2 is trigonal pyramidal.
See-saw is the molecular geometry, and trigonal bi-pyramidal is the orbital geometry.
The most probable formula for a compound of silicon and hydrogen is SiH₄, known as silane. In this compound, silicon forms four single covalent bonds with four hydrogen atoms, leading to a tetrahedral molecular geometry. Silane is a colorless gas at room temperature and is used in various applications, including in the production of silicon for electronics.