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Course Outline The course presents the full spectrum of problems encountered in penetration mechanics. It is structured to emphasize the physical basis for analyzing and solving problems in penetration dynamics from low velocities to hypervelocities. Solution techniques are applied to real problems to better understand impact phenomena
Introduction
Definition
of Impact Regimes Approaches
to Modeling Course
Outline Overview
of Shaped Charges Basic
Theory Analytical
Models of Jet/Particle Formation Fundamental
Relationships
Conservation
Equations Bernoulli's
Theorem Wave
Mechanics Rankine-Hugoniot
Relations, Shock Propagation Equation
of State Shock
Heating, Melting, Vaporization Plate
Penetration and Perforation
Low-Velocity Impact High-Velocity Impact Small
Arms Ceramic-Faced
Armors
Ballistic
Fabrics Hypervelocity
Impact Material
Considerations
Metals, Ceramics, Glasses & High-Rate Testing
Constitutive
Modeling
Geologic Materials
Fibers, Yarns, Fabrics & Composites Introduction
to Hydrocodes
Continuum
Equations Difference
Equations Requirements
of a Difference Solution Treatment
of Shocks Eulerian/Lagrangian
Descriptions Nonpenetrating
Impacts
Impact
on a Rigid Target Impact
on an Elastic Target Impact
of a Fluid Target Impact
Flash
Advances in Hydrocodes
Semi-Infinite
Targets
Penetration
of Low-Strength Targets Penetration
of High-Strength Targets
Applications
Modeling
Penetration Mechanics
Similitude
Analysis, Dimensionless Ratios Replica
Scale Modeling Nonreplica
Modeling
Home
Questions or
comments? E-mail:
jbanda@swri.org |
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