Faculty
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Michael G. Callas Chair Professor
Director, Computational Mechanics Research Laboratory (CMRL)
Department of Civil Engineering
Department of Mechanical Engineering
Johns Hopkins University
203 Latrobe | 3400 N. Charles Street
Baltimore, MD 21218
e-mail: [email protected]
website: http://cmrl.jhu.eduAREAS OF SPECIALIZATION AND INTEREST
Computational Mechanics with focus on materials analysis, characterization and processing, including simulation and design. Specific areas of interest include:
- Coupled Mechanical-Electro-Magnetic Phenomena with Load Bearing Antenna Applications
- Multi Spatial and Temporal Scale Modeling of Composite and Polycrystalline Materials and Structures
- Multi-scale Material Characterization, Image Simulation and Image based Analysis
- Failure, Fatigue and Life Prediction of Metals and Composites with Experimental Verification
- Instabilities in Thermal Barrier Coatings
- Computational Nanotechnology: Molecular Dynamics Simulations of Polymeric and Metallic Materials, Thin Films and Nano-composites
- Probabilistic Methods in Multi-scale Modeling
- Large Deformation Analysis with Contact
- Metal Forming and Materials Processing Simulation and Design
- Finite Element Analysis with Adaptive Enrichment
- Biomaterials and Design of Bio-Implant and Prosthetics
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The Alonzo G. Decker Professor, Mechanical Engineering
Professor, Materials Science and Engineering /Earth and Planetary Sciences
Johns Hopkins University
223 Latrobe | 3400 N. Charles Street
Baltimore, MD 21218
e-mail: [email protected]AREAS OF SPECIALIZATION AND INTEREST
- Traditional interests include: high temperature mechanical behavior, transmission electron microscopy, deformation behavior of intermetallic alloys, experimental characterization of dislocation core structure, and microsample testing.
- Research aimed at identifying the microstructural details that govern the macroscopic mechanical response of metals, alloys and advanced structural materials.
- Relatively new research topics include the characterization and modeling of bond coat layers for thermal barrier coatings, deformation behavior of nanocrystalline materials, and characterization of materials for MEMS applications.
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Professor
Department of Civil Engineering
Department of Mechanical Engineering
Director, Modeling Complex Systems IGERT Program (MCS IGERT)
Associate Director, Hopkins Extreme Materials Institute (HEMI)Johns Hopkins University
206 Latrobe | 3400 N. Charles Street
Baltimore, MD 21218
e-mail: [email protected]
website: http://www.ce.jhu.edu/lori/
AREAS OF SPECIALIZATION AND INTEREST
Computational Mechanics with focus on materials analysis, characterization and processing, including simulation and design. Specific areas of interest include:
- Coupled Mechanical-Electro-Magnetic Phenomena with Load Bearing Antenna Applications
- Multi Spatial and Temporal Scale Modeling of Composite and Polycrystalline Materials and Structures
- Multi-scale Material Characterization, Image Simulation and Image based Analysis
- Failure, Fatigue and Life Prediction of Metals and Composites with Experimental Verification
- Instabilities in Thermal Barrier Coatings
- Computational Nanotechnology: Molecular Dynamics Simulations of Polymeric and Metallic Materials, Thin Films and Nano-composites
- Probabilistic Methods in Multi-scale Modeling
- Large Deformation Analysis with Contact
- Metal Forming and Materials Processing Simulation and Design
- Finite Element Analysis with Adaptive Enrichment
- Biomaterials and Design of Bio-Implant and Prosthetics
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Assistant Professor
Director, Computational and Experimenta Materials Engineering Laboratory (CEMEL)
Department of Mechanical Engineering
Johns Hopkins University
124 Latrobe | 3400 N. Charles Street
Baltimore, MD 21218
e-mail: [email protected]
website: CEMELAREAS OF SPECIALIZATION AND INTEREST
The primarily focused is to develop a fundamental understanding of the underlying deformation mechanism in materials. Goal is to enhance the field of Materials-by-Design, by moving from empirical, trial-and-error development techniques of materials, to a combination of state of the art multiscale computational methods and experimental techniques that can result in expediting the process of developing reliable materials with superior performance.
- Atomistic and Discrete Dislocation Dynamics Modeling of Mechanical Twinning and Plasticity in Magnesium
- Micro-Mechanics Modeling of Surface Roughness Evolution and Subsequent Crack-Initiation under Thermo-Mechanical Fatigue
- Multiscale Modeling and Experiments of Size Effects in Single Crystals Metals
- Micromechanical Testing of Ultra High Strength Materials
- Multi-scale Modeling of Hydrogen Embrittlement
