Welcome to the LMM Group
At the Laboratory of Micromechanics of Materials (LMM), we are dedicated to advancing the understanding of microstructure-property relationships in textured polycrystalline materials, composites, and layered structures.
Our research integrates phenomenological and statistical mechanics models within a computational framework to predict effective mechanical, transport, and magnetic properties.
Under the leadership of Dr. Hamid Garmestani, we explore the evolution of microstructure and texture during processing to enhance material performance.
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Computational Design
Our work focuses on the microstructure-property relationship in textured polycrystalline materials, composites, and thin film layered structures.
Using computational frameworks, we employ phenomenological and statistical mechanics models to predict material behavior during processing and assess their effective mechanical, transport, and magnetic properties.
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Materials Characterization
We investigate the evolution of microstructure and texture (micro-texture) in materials during processing.
Our approach integrates advanced characterization techniques with computational modeling to analyze material behavior, ensuring a comprehensive understanding of their mechanical and functional properties.
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Additive Manufacturing
We explore the impact of processing techniques on the microstructure and mechanical properties of advanced materials.
Our research aims to enhance the performance and reliability of additively manufactured components through predictive modeling and experimental validation.
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Thin Films
Our studies focus on the processing and characterization of thin film layered structures, including superplastic and magnetic materials.
We use computational models to predict their mechanical, transport, and magnetic properties, with applications in energy storage, electronics, and structural materials.
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Biomaterials and Tissue Engineering
We focus on the design, modeling, and characterization of biomaterials for applications in regenerative medicine, nanomedicine, and biomedical devices.
Our research integrates biomimetic engineering, nano-scale material synthesis, and computational modeling to develop materials that mimic natural tissues and enhance biological interactions.
