the shape is bent and the bond angle is approximately 120
In NOCl, the approximate bond angles are 107 degrees between the N-O bond and the N-Cl bond due to the lone pairs on the nitrogen causing repulsion and pushing the bonding pairs closer together, resulting in a slight compression of the angle from the ideal 120 degrees for trigonal planar geometry.
The shape of SO2 is bent or V-shaped, with a bond angle of approximately 119 degrees.
The bond angle in silicon disulfide (SiS2) is approximately 105 degrees, and the molecular shape is bent/angular.
The bond angle of the SO2 molecule is approximately 120 degrees, and its shape is bent or angular.
The sulfate ion is tetrahedral, bond angle around 109 0
In NOCl, the approximate bond angles are 107 degrees between the N-O bond and the N-Cl bond due to the lone pairs on the nitrogen causing repulsion and pushing the bonding pairs closer together, resulting in a slight compression of the angle from the ideal 120 degrees for trigonal planar geometry.
The shape of SO2 is bent or V-shaped, with a bond angle of approximately 119 degrees.
The bond angle in silicon disulfide (SiS2) is approximately 105 degrees, and the molecular shape is bent/angular.
the shape is linear and the bond angle is 180 degree
The bond angle of the SO2 molecule is approximately 120 degrees, and its shape is bent or angular.
The sulfate ion is tetrahedral, bond angle around 109 0
The molecular shape of SO2 is bent or V-shaped, with a bond angle of approximately 119 degrees.
It is a straight angle, in other words, 180 degrees.
The shape of the sulfate ion is tetrahedral and the bond angle between the oxygen atoms is approximately 109.5 degrees.
For a truly trigonal planar molecule the bond angles are 120 0 exactly.
The bond angle in propane is approximately 109.5 degrees. Propane has a tetrahedral molecular shape due to the arrangement of its carbon and hydrogen atoms around the central carbon atom.
The rate of formation of NOCl can be determined by measuring the change in concentration of NOCl over time. By monitoring how the concentration of NOCl changes over a specified time interval, the rate of formation can be calculated using the formula: rate = Δ[NOCl]/Δt, where Δ[NOCl] is the change in concentration of NOCl and Δt is the change in time.