Chemically Triggered Reactive Coacervates Show Life-Like Budding and Membrane Formation

Area of Science:

• Supramolecular Chemistry
• Chemical Biology
• Materials Science

Background:

• Phase-separated coacervates are known to enhance reaction kinetics and guide self-assembly.
• Coacervates mimic early cellular evolution processes.
• Controlled self-assembly is crucial for advanced materials and understanding life's origins.

Purpose of the Study:

• To introduce and investigate "reactive" complex coacervates capable of self-immolative transformations.
• To demonstrate how these reactive coacervates direct the self-assembly of reaction products.
• To explore the emergence of life-like properties from these self-assemblies.

Main Methods:

• Design and synthesis of "reactive" complex coacervates.
• Induction of chemically triggered self-immolative transformations.
• Analysis of hierarchical self-assembly of reaction products within the coacervate matrix.
• Investigation of coacervate composition effects on reaction rates and product distribution.

Main Results:

• Reactive coacervates successfully undergo self-immolative transformations.
• The reaction products self-assemble hierarchically within the coacervate matrix.
• Emergence of life-like properties, including budding and membrane formation, was observed.
• Coacervate composition was found to critically influence reaction kinetics, product distribution, and self-assembly pathways.

Conclusions:

• "Reactive" coacervates provide a versatile platform for controlling chemical reactions and self-assembly.
• This approach enables controlled supramolecular synthesis and hierarchical self-organization in confined environments.
• The study offers insights into coacervate-mediated processes relevant to pre-biotic chemistry and materials science.