Research
Biological Exoskeletons
We study how hierarchical structure and spatial composition govern mechanical behavior in arthropod exoskeletons. These systems provide well-defined natural architectures in which strength, toughness, and damage tolerance emerge from the integration of structure across length scales.
Our approach combines mechanical testing with microscopy and compositional analysis to establish direct links between local structure and mechanical response. By probing these systems across scales, we aim to identify the underlying design principles that enable robust performance in biological materials.
Bioinspired Materials
We use synthetic materials as controlled platforms to translate and test biological design principles. By tuning architecture, composition, processing, and fabrication strategy, we create material systems in which structure–function relationships can be systematically examined.
These materials allow us to isolate specific design variables that are difficult to study independently in natural systems. This approach connects the study of biological materials with the development of synthetic analogues whose mechanical behavior can be understood and controlled across length scales.
Sustainable and Living Materials
We explore bio-based and emerging material systems in which composition and structure can be tuned to achieve targeted mechanical and functional behavior. These include polymer-based and biologically derived materials designed for processing, performance, and environmental compatibility.
Our work focuses on understanding how molecular interactions, structure, and processing conditions govern material response. This enables the development of materials that combine mechanical robustness with sustainability and, in some cases, adaptive or time-dependent behavior.
Illustrations created with BioRender.com