Researchers design peptide nanofibrils with sequence-encoded hexagonal channel structures
A research team synthesized a series of short peptides—including DILT1 through DILT5 and related sequences—using automated solid-phase peptide synthesis to create multichannel nanofibrils. The peptides self-assemble into structures whose lattice geometry is dictated by their specific amino acid sequences, producing hexagonal channel arrangements at the nanoscale.
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This work demonstrates that peptide sequence alone can be used to program complex, multichannel nanostructures, which could inform future design of synthetic materials for filtration, catalysis or molecular transport. The approach suggests a route toward rationally engineered nanomaterials where structural features are dictated by sequence rather than post-synthesis processing, though practical applications would require further validation beyond the laboratory synthesis described.
- Peptides DILT1-5 and related variants were synthesized via automated Fmoc solid-phase peptide synthesis.
- The resulting peptide nanofibrils self-assemble into hexagonal lattice structures with multiple channels.
- Sequence variation appears to directly control the resulting nanostructure geometry, suggesting a programmable design strategy.
Source: nature.com — Gačanin, 2026-09-23
Published there as: “Sequence-encoded hexagonal lattices in multichannel peptide nanofibrils”
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