bioRxivBiophysics
The 3-D structure of fibrous material is fully restorable from its X-ray diffraction pattern
Abstract
X-ray fiber diffraction is potentially a powerful technique to study the structure of fibrous materials, such as DNA and synthetic polymers. However, only rotationally averaged diffraction patterns can be recorded, and it is difficult to correctly interpret them without the knowledge of esoteric diffraction theories. Here we demonstrate that, in principle, the non-rotationally averaged 3-D structure of the material can be restored from its fiber diffraction pattern. The method is a simple puzzle-solving process, and in ideal cases, it does not require any prior knowledge about the structure, such as helical symmetry. We believe that the proposed method has a potential to transform the fiber diffraction to a 3-D imaging technique, and will be useful for a wide field of life and materials sciences.
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
- Restoration of 3-D structure of insect flight muscle from a rotationally averaged 2-D X-ray diffraction pattern
Hiroyuki Iwamoto·Acta Crystallographica Section D Structural BiologyPeer-reviewed·Mar 19, 2025
- Small-angle x-ray microdiffraction from fibrils embedded in tissue thin sections
P. Nepal, A. A. Bashit, … L. Makowski·bioRxiv·May 10, 2022
- Trace_y: Software algorithms for structural analysis of individual helical filaments by three-dimensional contact point reconstruction atomic force microscopy
W.-F. Xue·bioRxiv·Jul 5, 2023
- Molecular packing structure of fibrin fibers resolved by X-ray scattering and molecular modeling
K. A. Jansen, A. Zhmurov, … G. H. Koenderink·Soft MatterPeer-reviewed·Jan 1, 2020
- Symmetry-Based Center and Rotation Refinement for Fiber Diffraction Patterns
Klein Irina, Gady Agam B, Thomas C. Irving·bioRxiv·Aug 25, 2026
- Multimodal X-ray imaging reveals hierarchical fibre mechanics
Elis Newham, Alissa Louise Parmenter, … Himadri S. Gupta·bioRxiv·Sep 19, 2025