Shreya Mukherjee
Indian Institute of Science Bangalore, University of North Texas, Indian Institute of Technology Kharagpur, Jadavpur University
About
My research focuses on exploring the structure-property correlations in high-entropy alloys (HEAs) and Ni-based superalloys. Key areas of interest include studying coarsening kinetics and solute partitioning behavior. Monotonic and cyclic behavior, including low and high cycle fatigue, creep-fatigue interactions, high strain rate behavior, and underlying deformation micromechanisms using advanced characterization techniques. Additionally, my current work emphasizes developing novel materials through advanced solid-state additive manufacturing techniques, particularly additive friction stir deposition.
Employment
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Indian Institute of Science Bangalore Postdoctoral Research Associate
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University of North Texas Postdoctoral Research Associate
Education
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Indian Institute of Technology Kharagpur Doctor of Philosphy
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Jadavpur University Master of Engineering
Projects & Funding
Projects & funding information is unavailable.
Publications (21)
- Effect of quasistatic strain rate on macro-and micro-tensile deformation behavior and void evolution in DP590 Dual-Phase grade steel Save
- Impact of metastability engineered low energy interfaces on synergistic enhancement of strength and strain hardening through deformation-driven bidirectional transformation Save
- Monotonic deformation behavior of SA333 Gr-6 steel: Dynamic strain aging Save
- Additive friction stir deposition of Fe-Cr-Ni transformative alloy Save
- Decoding deformation-induced phase transformation in a high entropy alloy via nanoindentation pop-in phenomenon Save
- Characterisation of Primary Creep-Based Deformation Microstructure of Single-Phase Alloy Ti-6Al Using EBSD and ECCI Save
- Cu-based metastable microstructural template and its role in the heat flux application Save
- Enhanced thermal stability in additive friction stir deposited ODS IN9052 Al alloy Save
- Heterogenous phase evolution and mechanical response in additively manufactured low alloy martensitic steel processed via laser-directed energy deposition Save
- Crystallographic evaluation of low cycle fatigue crack growth in a polycrystalline Ni based superalloy Save