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Researchers developed a scalable method to create multicellular-like, multi-compartment (MC) structures using aqueous droplets. These synthetic structures mimic cellular organization and show potential for building molecular robots.

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Area of Science:

  • Biomolecular Engineering
  • Synthetic Biology
  • Materials Science

Background:

  • Evolution of multicellularity enabled complex functions through spatial separation of reactions.
  • Mimicking cellular spatial organization is key for creating synthetic cell-like systems.
  • Scalable methods are needed for constructing complex biomolecular architectures.

Purpose of the Study:

  • To develop a facile and scalable method for creating multicellular-like, multi-compartment (MC) structures.
  • To demonstrate the configurability and potential versatility of these synthetic structures.
  • To explore applications in areas like molecular robotics.

Main Methods:

  • Aqueous droplet compartments (50-400 μm) were stabilized and connected using hydrophobic layers of phospholipids and emulsifiers.
  • Planar, centimeter-scale MC structures were fabricated via droplet deposition on a water interface.
  • Spatially controlled deposition was used to achieve specific macroscopic shapes and magnetic heterogeneity (with nanoparticles).

Main Results:

  • A scalable method for creating multi-compartment (MC) structures was successfully established.
  • Configurable MC assemblies with homogeneous and mixed compartment types were demonstrated.
  • Magnetically functionalized MC structures exhibited actuated motion with directional control.

Conclusions:

  • The developed method offers a facile and scalable route to synthetic multicellular-like systems.
  • These functionalized MC structures show promise for advanced applications, including compartmentally assembled molecular robots.
  • The approach facilitates the creation of complex, biomimetic architectures for future technologies.