Develop met . hods coupling state-of-the-art, nondestructive characterization techniques with three-dimensional, numerical modeling to study the constituent-level failure of fiber-reinforced polymer (FRP) composites
The objective of the project is to initiate realization of the Digital Twin concept for composites by coupling state-of-the-art, nondestructive characterization techniques with 3D numerical modeling to study the constituent-level failure of FRP composites. Near-term implications for this work include significantly increasing our understanding of the fundamental, constituent-level, failure mechanisms in current FRP composites through ultra-realistic, multi-physics simulations. The work will have long-term impacts on the design of innovative composites by virtual testing and on the incorporation of composites into the Digital Twin framework. The initial benchmark for success will be the high resolution (i.e. 385 nm) characterization, reconstruction, and finite element discretization of an approximately 130×130×130 mm3 volume of unidirectional graphite/epoxy composite (e.g. IM7/8552, AS4/3501-6).
More »This activity will continue under the Tier-2 IRAD project entitled “3D Numerical Realization of FRP Microstructure From High-Resolution X-ray Computed Tomography.”
This work will significantly increasing our understanding of the fundamental, constituent-level, failure mechanisms in current FRP composites through ultra-realistic, multi-physics simulations.
This work will have a long-term impacts on the design of innovative composites by virtual testing and on the incorporation of composites into the Digital Twin framework.
More »Organizations Performing Work | Role | Type | Location |
---|---|---|---|
Langley Research Center (LaRC) | Lead Organization | NASA Center | Hampton, Virginia |
Cornell University | Supporting Organization | Academia | Ithaca, New York |
The Charles Stark Draper Laboratory, Inc. | Supporting Organization | Non-Profit Institution | Cambridge, Massachusetts |