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  1. Bent's Rule describes and explains the relationship between the orbital hybridisations of central atoms in molecules and the electro-negativities of substituents. The rule was stated by Henry Bent as follows: "Atomic s character concentrates in orbitals directed toward electro-positive substituents". For example - molecular geometry can be ...

  2. en.wikipedia.org › wiki › Bent's_ruleBent's rule - Wikipedia

    Bent's rule addresses disparities between the observed and idealized geometries. According to Bent's rule, a central atom bonded to multiple groups will rehybridize so that orbitals with more s character are directed towards electropositive groups, and orbitals with more p character will be directed towards groups that are more electronegative.

  3. 3 days ago · What is Bent's Rule? The link between the electronegative nature of substituents and the orbital hybridisations of the key atoms in molecules is described and explained by Bent's Rule.

  4. Bent ’s Rule and Energetic of Hybridization The success of the valence-shell-electron-pair-repulsion (VSEPR) theory in rationalizing various molecular geometries is quite remarkable as far as simplicity is concerned. However, the failure of VSEPR

  5. Through the consideration of structures Henry Bent suggested a rule: More electronegative substituents prefer hybrid orbitals with less s character, and conversely, more electropositive substituents prefer hybrid orbitals with greater s character.

  6. 1. What is Bent's rule? 2. How does Bent's rule affect the s and p character of the atomic orbitals? 3. How Bent's rule used to determine shape and bond angle in an compound? 4. Why does more elctronegative atom takes more p character leaving behind s character on central atom? 5. How s character affect the Coupling constant?

  7. Aug 27, 2014 · Bent's rule says that as we change the electronegativity of $\ce{X}$ and \ or $\ce{Y}$, $\ce{A}$ will tend to rehybridize its orbitals such that more s character will placed in those orbitals directed towards the more electropositive substituent.