Michael D. Sangid
Engineering · Purdue University West Lafayette
Publications
191
Citations
7,308
Est. group size
~6
Recurring co-author estimate
Active years
17
Publishing since 2010
Michael D. Sangid studies how metals and composite materials fail under repeated stress and high temperatures, with a focus on fatigue (cracking from repeated loading) and fracture in components made by traditional and additive manufacturing (3D printing) methods. His work combines experimental characterization (such as X-ray/synchrotron imaging of internal defects) with computational modeling, including crystal plasticity models that simulate how a material's internal grain structure affects its mechanical behavior. This research is aimed at predicting the lifespan and reliability of engineering components used in demanding applications like aerospace and high-temperature systems.
Publication output peaked around 2020 and has since settled into a somewhat lower but steady pace of roughly 8-13 papers per year in recent years.
Generated by claude-sonnet-5 from public bibliographic data · Jul 20, 2026
- Pore defects in additively manufactured IN718 characterized using synchrotron micro-computed tomography
Open MIND · 2026
- Pore defects in additively manufactured IN718 characterized using synchrotron micro-computed tomography
Mendeley Data · 2026
- Application of thermal alleviation to reduce dwell fatigue debits in Ti-6Al-4V
International Journal of Fatigue · 2026
- Fatigue response of a topology optimized feature-based component
Engineering Failure Analysis · 2026
- The physics of fatigue crack propagation
International Journal of Fatigue · 2025
- Surface smoothing for laser powder-bed Ti-6Al-4V by a transient liquid phase
Materials & Design · 2025
- Analysis of complex internal channels on high-cycle fatigue behavior of LBPF GRCop-42
Engineering Failure Analysis · 2025
- Impacts of prior ablative damage and fiber breakage influence on flexural strength of 2D C/C composites with and without secondary high temperature treatments
Journal of Materials Research and Technology · 2025
- Direct sensitivity analysis on the parameterization of crystal plasticity models
Materials & Design · 2025
- The role of additively manufactured niobium alloy C103 substrate's surface finish and corner geometry on the silicide diffusion coating's performance
Surface and Coatings Technology · 2024
- A comprehensive analysis of cermet design and thermal cyclic stability via elasto-viscoplastic crystal plasticity modeling
International Journal of Plasticity · 2024
- Phasing effects on thermo-mechanical fatigue damage investigated via crystal plasticity modeling
Materials Science and Engineering A · 2024
- Mesoscale thermomechanical modeling of woven carbon-carbon composites
2024
- A microstructure-based fatigue model for additively manufactured Ti-6Al-4V, including the role of prior <mml:math xmlns:mml="http://www.w3.org/1998/Math/MathML" altimg="si1.svg"><mml:mrow><mml:mi mathvariant="normal">β</mml:mi></mml:mrow></mml:math> boundaries
International Journal of Plasticity · 2023
- A digital engineering framework to facilitate automated data exchange between geometric inspection and structural analysis
Advances in Engineering Software · 2023
- Acta Materialia×9
- Journal of the Mechanics and Physics of Solids×9
- International Journal of Fatigue×8
- Materials & Design×7
- Materials Science and Engineering A×7
- Krzysztof S. Stopka
Engineering · Purdue University West Lafayette
- David Dean
Engineering · The Ohio State University
- Ramana M. Pidaparti
Engineering · Purdue University West Lafayette
- J. L. Carpenter
Engineering · Indiana University
- Wei Zhang
Engineering · The Ohio State University
This profile was generated automatically from public scholarly data (OpenAlex). Group size and activity levels are estimates derived from co-authorship patterns.
Last updated Jul 20, 2026.
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