Reactive molecular dynamics simulations of shock-induced chemistry in phenolic polymer
Abstract not provided.
Publications
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Jump to search filtersBehavior of phenolic resins shocked to chemistry-relevant pressures
Abstract not provided.
Temperature Effects on Compaction and Strength during Shock Compression of Porous Silica
Abstract not provided.
Shock Hugoniot and High Strain-Rate Viscoelastic Behavior of a Phenolic Polymer
Abstract not provided.
Molecular dynamics simulations of a phenolic polymer shocked to chemistry-relevant pressures
Abstract not provided.
A Reactive Molecular Dynamics Study of Phenol and Phenolic Polymers in Extreme Environments
Abstract not provided.
Molecular dynamics study of shock compression in porous silica glass AND Phenolic polymer pyrolysis via reactive molecular dynamics simulation
Abstract not provided.
Study of Compaction Preheating and Strength in Shock Compressed Porous Silica
Abstract not provided.
Shock Compression of Hydrocarbons to Mbar Pressures; Successes Challenges and Lessons Learned
Abstract not provided.
Phenolic polymer pyrolysis via reactive molecular dynamics simulation
Abstract not provided.
A Reactive Molecular Dynamics Study of Phenol and Phenolic Polymers in Extreme Environments
Abstract not provided.
A reactive molecular dynamics study of phenol and phenolic polymers in extreme environments
Abstract not provided.
Molecular dynamics study of shock compression in porous silica glass
AIP Conference Proceedings
The shock response of porous amorphous silica was investigated using classical molecular dynamics, over a range of porosity ranging from fully dense (2.21 g/cc) down to 0.14 g/cc. We observed an enhanced densification in the Hugoniot response at initial porosities above 50%, and the effect increased with increasing porosity. In the lowest initial densities, after an initial compression response, the systems expanded with increased pressure. These results show good agreement with experiments. We explored mechanisms leading to enhanced densification which appear to differ from mechanisms observed in similar studies in silicon.
Molecular dynamics study of shock compression in porous silica glass
Abstract not provided.
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