Mechanical Engineering Department,
Opus College of Engineering,
Marquette University.
1515 W. Wisconsin Ave,
Milwaukee, WI - 53233.
Computational Mechanics of Materials Laboratory
Videos
Computational Mechanics : Space Materials
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These videos were produced (in their entirety) by Marquette Diederich College of Communication students as part of the Corporate Media course (Prof. Kris Holodak). They introduce the wide array of modern applications of computaional modeling in engineering science. |
Computational Mechanics: Bone
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These videos were produced (in their entirety) by Marquette Diederich College of Communication students as part of the Corporate Media course (Prof. Kris Holodak). They introduce the wide array of modern applications of computaional modeling in engineering science. |
Computational Mechanics: Combustion
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These videos were produced (in their entirety) by Marquette Diederich College of Communication students as part of the Corporate Media course (Prof. Kris Holodak). They introduce the wide array of modern applications of computaional modeling in engineering science. |
Overview of Fatigue
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These videos were produced (in their entirety) by Marquette Diederich College of Communication students as part of the Corporate Media course (Prof. Kris Holodak). They introduce basic concepts in Mechanical Engineering and Materials Science related to mechanical fatigue. |
Copper Spall Simulation |
Simulations of copper spallation based on a near field high energy diffraction microscopy nf-HEDM microstructure. More details in Journal of Dynamic Behavior of Materials |
Dislocation Evolution in Ti-6Al-4V
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The red regions are high dislocation density imitating from the gray region which represent beta phase titanium. This shows that the beta phase can effect localization of strain and dislocation density in the Ti-6Al-4V alpha phase (i.e. the area enclosed by the gray beta regions). More details in Modelling and Simulation in Materials Science and Engineering |
High Speed Foam Impact
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A titanium (red) and lead (green) flyer impact a titanium foam at 400 m/s (roughly 900 mph). Only a quarter of the model is simulated.The lead starts to behave more like a fluid and the titanium form is significantly distorted. More details in International Journal of Solids and Structures |
Last modified: Tue Apr 22 14:55:03 CDT 2025