The lone pairs of electrons of nitrogen atoms would alter the electronic properties of carbon, facilitating electron donation to Li ions.
The alkene ligand bonds to the metal centre by both electron donation and acceptance, similar to the situation with carbon monoxide.
The availability of the lone pair for complex formation (through electron donation) appears much less in the arsenic atom than in phosphorus and nitrogen, as evidenced by the chemistry of the element.
After electron donation, perylene gets adsorbed on the Lewis sites as radical cation [25, 26].
Thus, a very close pure p-type lone pair orbital participates in the electron donation in the compound.
Reducing power was measured by direct electron donation in the reduction of Fe3+ CN− 6 Fe2+ CN− 6 (Fig. 7).
The EDOT monomer was used to reduce the as-prepared GO by electron donation and oxygen consumption.
Dye regeneration takes place through electron donation from the electrolyte aided by the catalyst in the counter electrode.
Several analytical techniques are used to identify and characterise the electron donation from nitrogen to iodine atoms.
This is because electron donation increases the σ∗ antibonding between Pd and L in the transition structure.
Doping with carbon in the titanium oxide enables backward electron donation, making the supported platinum more electron negative and stable.
