||Saurabh Puri, Microstructure Engineering
Amit Pandey, Granta Design/ANSYS
Dongchan Jang, KAIST
Dhriti Bhattacharyya, Australian Nuclear Science and Technology Organization
Minh-Son Pham, Imperial College, London
Shailendra P. Joshi, University of Houston
Josh Kacher, Georgia Institute of Technology
Robert Wheeler, Microtesting Solutions LLC
||The focus of this symposium is to discuss current research and key developments in theory, computational and experimental methods to study and predict the thermo-mechanical properties of materials in application-orientated environments. These environments may include, but are not limited to high temperature, cryogenic temperature, electrical and magnetic field, gas, radiation, chemical, pressure extremes, and humidity. In-situ mechanical testing using SEM, TEM, AFM, Raman, synchrotron, X-ray, IR, and FTIR observation techniques during testing are becoming increasingly popular for studying mechanical behavior of materials. Many such techniques have been developed to probe material response to stimuli across nano- to macro-length scales. At the same time, significant progress has been made in the development of high fidelity models to analyze the behavior of materials at different spatial and temporal scales. The intent of the symposium is to provide a forum for researchers from national laboratories, academia, and industry to discuss research progress in the area of in operando and/or in-situ mechanical testing for nanomechanical studies, advances in computational approaches and most importantly, integration of experiments and modeling to accelerate the development and acceptance of innovative materials and testing techniques.
• Development of instruments and experimental methodology for in-situ techniques and/or testing at non-ambient conditions.
• Imaging and analytical techniques to correlate microstructure, defects, crystal orientation, and strain field with mechanical properties.
• Microstructural observations using in-situ techniques across length scales.
• Experimental characterization and multiscale modeling of deformation of high-temperature materials, high-strength materials, thin films, 1D, 2D, and other low-dimension nanostructures, and interfaces.
• Uncertainty quantification and quantitative validation of computational models.