Abhishek Kumar
Leonardo SpA, UTC Aerospace Systems/Quest Global, University of Alabama, Indian Institute of Technology Kharagpur
About
Dr. Abhishek Kumar commenced his academic background in 2008 in Dept. of Aerospace Engineering from IIT Kharagpur, India, developing expertise in computational and experimental design of composite materials. He was then offered a full PhD scholarship as a Research Assistant at the Center of Advanced Vehicle Systems at the University of Alabama funded by NASA Glenn Research Center, USA where he worked on multiscale material models and experimental validation of advanced composites incorporated with nanomaterials like graphene for aerospace applications. He started his industrial experience working with Collins Aerospace facility in Foley, USA as a Materials Review Engineer, during which he worked on several prominent programs like Airbus A320, Bombardier C-series, Embraer E175, E190 and Rolls Royce T700 on structural analysis and repair of engine nacelles and nozzles.
He currently serves as the Head of Advanced Material Labs in Leonardo SpA, Italy, guiding a team of senior scientists and several PhD thesis, working on fundamental and applied research areas of Multifunctional materials, Advanced Manufacturing, Energy and Computational material modeling. He has an active role in several European funded civil (Horizon Europe, CHIPS JU) and defense (European Defense Fund) projects for research in disruptive materials and processes in aerospace and defense sector.
Employment
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Leonardo SpA Head- Advanced Materials Lab2022 - Present
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UTC Aerospace Systems/Quest Global Material Review Stress Engineer2017 - Present
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University of Alabama Graduate Research Assistant2014 - 2016
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University of Alabama Graduate Teaching Assistant2012 - 2013
Education
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University of Alabama PhD2012 - 2016
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University of Alabama M.S.2012 - 2013
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Indian Institute of Technology Kharagpur B.Tech (Hons.)2008 - 2012
Projects & Funding
Projects & funding information is unavailable.
Publications (12)
- A hyper-elastic thermal aging constitutive model for rubber-like materials Save
- A model for calculating hyperelastic material properties under thermal aging Save
- A model for hyper-elastic material behavior under thermal aging with an application to natural rubber Save
- Characterization of mixed mode fracture properties of nanographene reinforced epoxy and Mode I delamination of its carbon fiber composite Save
- Modeling of toughness enhancement mechanisms in graphene nanocomposites Save
- Effect of particle size on mixed-mode fracture of nanographene reinforced epoxy and mode I delamination of its carbon fiber composite Save
- Tailoring of flaw length-scale for mode I and mixed-mode toughness enhancement in composite airframes Save
- A nano-micro-macro-multiscale model for progressive failure prediction in advanced composites Save
- Toughness enhancement mechanisms in polymer nanocomposites due to length scale effects at the nanoscale Save
- Characterization of fracture properties of nanographene reinforced EPON 862 polymer and their carbon fiber composites Save