Alcohol-alcohol cross-coupling enabled by S_H2 radical sorting

Area of Science:

• Organic Chemistry
• Catalysis
• Synthetic Methodology

Background:

• Alcohols are abundant and versatile building blocks in organic synthesis.
• Forming carbon-carbon bonds from alcohols is crucial for exploring chemical diversity.
• Existing methods often require multiple steps or specific alcohol types.

Purpose of the Study:

• To develop a direct cross-coupling method for two alcohol molecules.
• To enable the formation of C(sp3)-C(sp3) bonds using a single activation strategy.
• To achieve efficient synthesis of diverse molecular structures from alcohols.

Main Methods:

• Nickel-catalyzed radical cross-coupling reaction.
• Deoxygenation of two alcohol fragments.
• One-pot reaction procedure under open-air conditions.

Main Results:

• Successful direct coupling of two different alcohol subunits.
• Formation of new carbon-carbon bonds with high structural diversity.
• Demonstration of a robust and air-tolerant catalytic system.

Conclusions:

• The developed nickel-catalyzed cross-alcohol coupling is a powerful tool for organic synthesis.
• This method offers a streamlined approach to accessing complex molecules from simple alcohols.
• The reaction's efficiency and air tolerance open new avenues for chemical exploration.