Affiliation:
1. Physical Sciences Division Pacific Northwest National Laboratory Richland WA 99354 USA
2. Chemical Engineering University of Washington Seattle WA 98105 USA
3. Molecular Engineering and Sciences Institute University of Washington Seattle WA 98105 USA
4. Materials Science and Engineering University of Washington Seattle WA 98105 USA
Abstract
AbstractBiomolecular self‐assembly of hierarchical materials is a precise and adaptable bottom‐up approach to synthesizing across scales with considerable energy, health, environment, sustainability, and information technology applications. To achieve desired functions in biomaterials, it is essential to directly observe assembly dynamics and structural evolutions that reflect the underlying energy landscape and the assembly mechanism. This review will summarize the current understanding of biomolecular assembly mechanisms based on in situ characterization and discuss the broader significance and achievements of newly gained insights. In addition, we will also introduce how emerging deep learning/machine learning‐based approaches, multiparametric characterization, and high‐throughput methods can boost the development of biomolecular self‐assembly. The objective of this review is to accelerate the development of in situ characterization approaches for biomolecular self‐assembly and to inspire the next generation of biomimetic materials.