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Welcome to the Soft Active Materials Laboratory at Duke University.
Our research is to understand
the fundamental mechanics and physics of materials and phenomena
emerging on the interface between engineering and
biological systems and to design new materials and structures
capable of extraordinary functions. We are currently particularly
interested in soft materials which are easily deformed by multiple
thermodynamic forces such as mechanical stress, electric field,
magnetic field, and chemical potential and their applications in
various technologies such as energy storage, energy harvesting, biofouling, drug delivery, tissue engineering, robotics,
microfluidics, and water treatment.
Recent
News and
Opening
Recent
Papers
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Reversible Sliding in
Networks of Nanowires,
Nanoletters
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Composite
three-dimensional woven scaffolds with interpenetrating network
hydrogels to create functional synthetic articular cartilage,
Advanced Functional Materials
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Multifunctionality and Control of the
Crumpling and Unfolding of Large-Area Graphene, Nature Materials
(Discovery,
MRS)
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Bioinspired Surfaces with Dynamic
Topography for Active Control of Biofouling, Advanced Materials
(NBC,
MRS)
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Bursting Drops in Solid Dielectrics Caused by
High Voltages, Nature Communications (video,
Physics Today)
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Highly stretchable and tough hydrogels,
Nature (Nature
News)
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Dynamic
Electrostatic Lithography: Multiscale On-demand Patterning on
Large-Area Curved Surfaces, Advanced Materials (MRS Materials 360,
BBC Focus
Magzine)
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Creasing to
Cratering instability in polymers under ultrahigh electric
fields, Physical Review Letters (video)
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Mechanical
Constraints Enhance Electrical Energy Densities of Soft
Dielectrics, Applied Physics Letters
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A Theory for
Large Deformation and Damage of Interpenetrating Polymer
Networks, Journal of the Mechanics and Physics of Solids
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Localized
Ridge Wrinkling of Stiff Films on Compliant Substrates,
Journal of the Mechanics and Physics of Solids
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Active
Scaffolds for On-demand Drug and Cell Delivery,
Proceedings of the National Academy of Sciences (video
1, video 4,
Nature highlight,
Nature Materials highlight,
PNAS highlight)
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Theory of
Dielectric Elastomers Capable of Giant Deformation of Actuation,
Physical Review Letters
Recent
Interesting Images |
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