DNA origami nanosyringe actively transports molecules into synthetic cells

Researchers at the University of Stuttgart have developed a DNA origami nanosyringe capable of actively transporting molecules into synthetic cells. This device uses programmable mechanical motion to penetrate membranes, offering a more precise alternative to passive diffusion.
Why it matters
This advancement in nanotechnology could revolutionize targeted drug delivery and synthetic biology by allowing for controlled molecular transport.
by Lena Jauernig, University of Stuttgart
edited by Lisa Lock , reviewed by Robert Egan
This article has been reviewed according to Science X's editorial process and policies . Editors have highlighted the following attributes while ensuring the content's credibility:
Add as preferred source Left: Intracytoplasmic sperm injection at the microscale. Right: DNA origami nanosyringe at the nanoscale for directed membrane translocation. Credit: 2nd Physics Institute, University of Stuttgart Transporting molecules across biological membranes is essential for life. In nature, this can occur through passive transport, known as diffusion. "Biological systems often use mechanical motion to accomplish tasks that cannot be achieved by diffusion alone," says Professor Laura Na Liu, director of the 2nd Physics Institute at the University of Stuttgart. For example, certain bacteria use extracellular contractile injection systems. These molecular nanomachines puncture target cells and deliver molecular cargo.
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