Abhishek Tiwari
Indian Institute of Technology Ropar, Austrian Academy of Sciences, Homi Bhabha National Institute, Technische Universitat Darmstadt, Indian Institute of Technology Kharagpur
About
Dr. Abhishek Tiwari completed B.Tech. in Metallurgy from NIT Jamshedpur (2008). He worked in Essar Steel Hazira Ltd. and Institute for plasma research. Following which, he did M.Tech. from IIT Kharagpur (2012). He worked on stress analysis of helical compression springs loaded under very high cycle fatigue condition as an IIT-DAAD fellow at Technical University Darmstadt, Germany. In his Ph.D. work on Indian Reduced Activation Ferritic/Martensitic Steels in ductile to brittle transition (DBT) regime, he developed a novel constraint loss parameter known as, 'Weibull Triaxiality' and modified analytically the master curve approach to include the events of cleavage fracture in the upper region of DBT. In the year of 2018, he started his postdoctoral work at Erich Schmid Institute of Material Sc. under Austrian Academy of Sciences in Leoben Austria, where he worked for two years. During this period, he worked on application of configurational force concept for improvement of fracture toughness. At IIT Ropar, Dr. Tiwari's main focus would be to understand the mechanics of materials and modelling of damage of materials. Other areas of research would be to design a material structure to enhance the fracture toughness using configurational force based calculations in large scale plastic, creep, cyclic and creep-fatigue conditions.
Employment
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Indian Institute of Technology Ropar Assistant Professor2020 - Present
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Austrian Academy of Sciences Postdoctoral researcher2018 - 2020
Education
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Homi Bhabha National Institute Ph.D2013 - Present
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Technische Universitat Darmstadt MTech Project2011 - 2012
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Indian Institute of Technology Kharagpur M.Tech2010 - 2012
Projects & Funding
Projects & funding information is unavailable.
Publications (29)
- Application of extended volume approach to model ductile damage kinetics Save
- Avrami’s approach to model ductile damage kinetics Save
- Data-Driven Modeling of Cleavage Fracture Toughness in the Ductile-to-Brittle Transition: Evidence for a Sigmoidal Temperature Dependence with Δa being deciding parameter Save
- Effect of out of plane constraint on creep crack growth behaviour of SS316LN at 650°C Save
- Fractal dimension as a magnification-tolerant measure of ductile void damage in FCC metals Save
- Numerical Analysis of Miniature Disk Bend Specimens Under Creep Condition Save
- Principle of least action: The true expense of nature in the journey of a crack Save
- An extended volume approach to model damage kinetics of ductile materials Save
- A comparative analysis of insertion of dental implants of V, square and trapezoidal screw designs Save
- Comparison of Q parameter in stationary and growing creep cracks in SS316LN with 0.07% nitrogen at 650 oC Save