Spontaneous resolution under supramolecular control

Area of Science:

• Chirality and supramolecular chemistry.
• Physical chemistry and materials science.

Background:

• Spontaneous resolution of enantiomers is a key phenomenon in stereochemistry.
• Non-covalent interactions are fundamental to molecular self-assembly and chiral recognition.
• Chirality transfer from molecular to bulk properties is an area of significant research interest.

Purpose of the Study:

• To explore the role of non-covalent interactions in the spontaneous resolution of enantiomers.
• To review the diverse systems where this phenomenon is observed.
• To elucidate the mechanisms of chirality transfer in self-assembled systems.

Main Methods:

• Literature review of studies on spontaneous enantiomer resolution.
• Analysis of non-covalent interactions in various self-assembled systems (crystals, liquid crystals, monolayers, fibers, solutions).
• Examination of evidence for chirality transfer from molecular to bulk levels.

Main Results:

• Non-covalent interactions are critical drivers for spontaneous enantiomer resolution.
• The phenomenon is not limited to crystals but occurs in diverse supramolecular architectures.
• Evidence supports the transfer of molecular chirality to macroscopic properties in self-assembled systems.

Conclusions:

• Non-covalent interactions are pivotal in enabling spontaneous enantiomer resolution across multiple material types.
• Understanding these interactions is key to controlling and utilizing chirality in advanced materials.
• The study highlights the broad applicability and importance of spontaneous resolution in chiral science.