The correct answer is A displacement of \(\sigma\) electron
The inductive effect helps spread the unequal sharing of the bonding electron through the atoms in a chain of the molecule. This leads to the formation of a dipole in a bond. This distribution of electrons is also called displacement of electrons.
In an inductive effect, the sigma (σ) electrons are getting displaced resulting in the polarization of the bond. The inductive effect is the polarization of a σ bond due to the presence of an electron-withdrawing or an electron-donating group or atoms in a molecule. During the inductive effect, shifting of electrons takes place due to which partial charges occur on the atom.
\(\overset{{+ \delta "}}{ {C }} - \overset{{+ \delta '}}{ {C }} - \overset{{+ \delta}}{ {C }} - \overset{{- \delta }}{ {C}1} -\)
List-I | List-II | ||
(A) | 1 mol of H2O to O2 | (I) | 3F |
(B) | 1 mol of MnO-4 to Mn2+ | (II) | 2F |
(C) | 1.5 mol of Ca from molten CaCl2 | (III) | 1F |
(D) | 1 mol of FeO to Fe2O3 | (IV) | 5F |
List-I | List-II | ||
(A) | [Co(NH3)5(NO2)]Cl2 | (I) | Solvate isomerism |
(B) | [Co(NH3)5(SO4)]Br | (II) | Linkage isomerism |
(C) | [Co(NH3)6] [Cr(CN)6] | (III) | Ionization isomerism |
(D) | [Co(H2O)6]Cl3 | (IV) | Coordination isomerism |
SN1 reaction mechanism takes place by following three steps –
The SN2 reaction mechanism involves the nucleophilic substitution reaction of the leaving group (which generally consists of halide groups or other electron-withdrawing groups) with a nucleophile in a given organic compound.
The mechanism of an electrophilic aromatic substitution reaction contains three main components which are:
The electrophilic substitution reaction mechanism is composed of three steps, which will be discussed more below.