Mayank Kashyap
SABIC Technology Center, Ascend Performance Materials LLC, Illinois Institute of Technology, Panjab University
About
Mayank Kashyap works as a lead scientist and subject matter expert in solids handling at Saudi Basic Industries Corporation (SABIC) Americas (since September 2014). Previously (November 2010-September 2014), he worked as a process technology fluidization engineer and team lead at Ascend Performance Materials Operations LLC (Ascend). Kashyap has a decade of strong and unique theoretical ad practical underpinning with experimental and computational fluid dynamics (CFD) research expertise in particle technology and fluidization.
At Ascend, Kashyap was honored to lead several research projects in which innovative ideas were implemented to improve yields and increase product capacities in acrylonitrile (AN) fluidized bed reactors (FBRs). He also provided technical guidance and support in the development and improvement of AN reactor technology, including reactor, sparger and cyclone designs. Kashyap was called on frequently to present research findings to senior leadership teams at Ascend, and through his implementation of Ascend to Excellence (six-sigma) methodology, outstanding project leadership and teamwork, he earned the prestigious APEX Award in 2011 and 2012.
Kashyap obtained his bachelor of engineering (B.E.) degree in Chemical Engineering from Panjab University, India, in 2004. He received a doctor of philosophy (Ph.D.) degree in Chemical Engineering from Illinois Institute of Technology (IIT), Chicago, IL, in 2010, under the guidance of Distinguished Professor Dimitri Gidaspow. He successfully tackled several topics that are not only extremely difficult, but are of great practical importance in particle technology. He worked on various research projects received from the Department of Energy (DOE), UOP, NSF and AE Polysilicon Corporation (AEP), at IIT. He played a critical role in designing FBRs used in the production of silicon at AEP, by utilizing analytical thinking, computational fluid dynamics (CFD) modeling, and pilot plant scale experiments.
During his Ph.D., Kashyap utilized experimental and kinetic theory based CFD techniques to measure and compute solids slugging, and dispersion and mass transfer coefficients, for Geldart groups A, B and D, in three fluidized bed systems. He used particle image velocimetry (PIV), gamma-ray densitometry, and light diode assembly to measure laminar and turbulent properties for particles and solids concentrations in fluidized beds. He showed that the CFD models can be used to successfully compute dispersion and mass transfer coefficients, thus, eliminating the need for the use of these parameters as input. Kashyap also studied the effect of electric field on hydrodynamics of Geldart C type fluidized nanoparticles. During his still a young professional career, he has gained significant experience with bubblefree, bubbling, slugging, turbulent, pneumatic conveying and circulating fluidized beds.
Among other significant contributions, Kashyap helped to solve two major problems in the field of fluidization during his Ph.D.:
(1) He showed how the core-annular flow regime present in all the oil refineries can potentially be eliminated, and
(2) He helped to understand and solve over half a century old problem in fluidization: The extremely low Sherwood numbers of fine particles in fluidized beds.
Kashyap received the 2012 American Institute of Chemical Engineers (AIChE) Particle Technology Forum’s Best Ph.D. Award in Particle Technology based on novelty, significance and potential applications of the thesis in the area of particle science and technology. The seven research papers published in various Journals during his Ph.D. evidence his strong dedication towards research. Two of his papers were selected among Top 25 Hottest Articles. In addition, Lambert Academic Publishing published Kashyap's Ph.D. thesis in the form of a book titled "Dispersion and Mass Transfer Coefficients: Experimental and Computational Fluid Dynamics Studies", in 2012. Various facets of work involved in Kashyap’s Ph.D. thesis were presented at many conferences and other settings, including AIChE Meetings, DOE National Energy Technology Laboratory (NETL), DOE NETL University Coal Research (UCR) Review Meeting, DOE NETL Workshop, NSF Engineering Research and Innovation Conference by Civil, Mechanical and Manufacturing Innovation (CMMI), UOP and AEP. He has had the honor of being asked several times to review research articles received from various international Journals.
Kashyap is a member of AIChE, AIChE Particle Technology Forum, and American Chemical Society (ACS). He received the United States Achievement Academy (USAA) National Collegiate Engineering and USAA All-American Scholar Collegiate Awards in 2005, and was included in Who’s Who in America in 2012. Additional information on Kashyap's professional background can be obtained at http://www.linkedin.com/in/mayankkashyap
Employment
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SABIC Technology Center Lead Scientist2014 - Present
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Ascend Performance Materials LLC Fluidization Engineer2010 - 2014
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Illinois Institute of Technology Research Assistant2005 - 2010
Education
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Illinois Institute of Technology Ph.D. (Chemical Engineering)2004 - 2010
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Panjab University B.E. (Chemical)2000 - 2004
Projects & Funding
Projects & funding information is unavailable.
Publications (8)
- Dispersion and Mass Transfer Coefficients in Fluidized Beds Save
- Circulation of Geldart D type particles: Part I – High solids fluxes. Measurements and computation under solids slugging conditions Save
- Circulation of Geldart D type particles: Part II—Low solids fluxes Save
- Computation and measurements of mass transfer and dispersion coefficients in fluidized beds Save
- Effect of electric field on the hydrodynamics of fluidized nanoparticles Save
- Measurements and computation of low mass transfer coefficients for FCC particles with ozone decomposition reaction Save
- Measurements of Dispersion Coefficients for FCC Particles in a Free Board Save
- Measuring turbulence in a circulating fluidized bed using PIV techniques Save