Prodrugs design based on inter- and intramolecular chemical processes

Area of Science:

• Medicinal Chemistry
• Computational Chemistry
• Drug Design

Background:

• Prodrugs are crucial for improving drug physicochemical properties.
• Enzyme-catalyzed chemical approaches are widely used in prodrug design.
• Computational methods offer novel avenues for prodrug development.

Purpose of the Study:

• To provide an overview of prodrug approaches, emphasizing modern design strategies.
• To discuss the role of enzyme-catalyzed reactions in prodrug development.
• To highlight the application of computational chemistry in designing novel prodrugs.

Main Methods:

• Review of existing prodrug strategies.
• Discussion of enzyme-catalyzed prodrug activation mechanisms.
• Application of molecular orbital methods (DFT, semiempirical, ab initio) and molecular mechanics (MM2) for prodrug design.
• Correlation of computational data with experimental findings.

Main Results:

• Enzyme-catalyzed approaches effectively minimize undesirable drug properties.
• Computational methods, including DFT, enable the design of novel prodrugs.
• Enzyme models can mimic enzymatic catalysis for prodrug design.
• Understanding intramolecular processes aids in optimizing reaction rates and enzyme catalysis.

Conclusions:

• Modern prodrug design increasingly relies on computational approaches.
• The integration of computational chemistry and enzyme mimicry offers powerful tools for developing improved therapeutics.
• Further research into computational methods will enhance the understanding and application of prodrug strategies.