bioRxivBioengineeringPreprint
De novo design of inducibly assembling multi-component filaments
Hao SheniD, Eric M. LynchiD, Noel JamesoniD, Justin A. DecarreauiD, Chenyang ShiiD, Zibo CheniD, William SheffleriD, Miaomiao XuiD, James J. De YoreoiD, Jesse G. ZalataniD, Justin M. KollmaniD, David A. BakeriD
Abstract
The design of multi-component nanomaterials is an outstanding challenge. Here, we describe the computational design of protein filaments with two or three distinct structural components that assemble into micron-scale, well-ordered fibers when mixed. CryoEM structure determination of four fiber designs was close to the computational design models. Filament assembly can be initiated by mixing the components, and modulated by addition and/or phosphorylation of designed regulatory subunits. This work demonstrates that regulatable multi-component protein filament systems can now be designed, opening the door to a wide range of engineered materials.
- Citations
- 2
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Nucleation limited assembly and polarized growth of a de novo-designed allosterically modulatable protein filament
Hao Shen, Eric M. Lynch, … David A. Baker·bioRxiv·Sep 20, 2024
- Hierarchical design of multi-scale protein complexes by combinatorial assembly of oligomeric helical bundle and repeat protein building blocks
- Blueprinting expandable nanomaterials with standardized protein building blocks
T. F. Huddy, Y. Hsia, … D. Baker·bioRxiv·Jun 9, 2023
- Bond-centric modular design of protein assemblies
Shunzhi Wang, Andrew Favor, … David A. Baker·Nature MaterialsPeer-reviewed·Jul 31, 2025
- Protein design of two-component tubular assemblies like cytoskeletons
Masahiro Noji, Yukihiko Sugita, … Yuta Suzuki·bioRxiv·Apr 17, 2024
- Top-down design of protein nanomaterials with reinforcement learning
Isaac D. Lutz, Shunzhi Wang, … David A. Baker·bioRxiv·Sep 25, 2022