Polytechnique Montreal - Canada
AUTHOR PROFILE
EARLY ACADEMIC PURSUITS
Jaber Shabanian's academic journey began with a Bachelor of Science in Process Engineering from Isfahan University of Technology, Iran, where he studied heat transfer of non-Newtonian fluids in stirred tank reactors under Prof. Mohsen Nasr Esfahani. He then pursued a Master of Science in Process Modeling, Simulation & Control at Sharif University of Technology, Tehran, focusing on dynamic simulation and control of a hydrotreating unit at Tehran Refinery, supervised by Prof. Ramin Bozorgmehry Boozarjomehry. Shabanian completed his Doctor of Philosophy in Fluidization Engineering at Polytechnique Montreal, Canada, where his research on gas-solid fluidized bed hydrodynamics at high temperatures was supervised by Prof. Jamal Chaouki.
PROFESSIONAL ENDEAVORS
Jaber Shabanian has over 18 years of professional experience across multiple fields, including chemical, energy, mineral processing, and water treatment sectors. His roles have ranged from faculty researcher at Polytechnique Montreal to senior science and technology advisor at Natural Resources Canada. Notably, he has collaborated with TOTAL Energies to develop design/simulation tools for CO2 capture and acid gas removal and led the development of modular adsorbent-based DAC processes at CanmetENERGY Ottawa.
CONTRIBUTIONS AND RESEARCH FOCUS
Shabanian's research spans a wide range of areas within chemical engineering. His interests include CO2 capture and utilization, direct air capture, hydrogen production and storage, hydrodynamic and reaction kinetic characterizations, process scale-up, techno-economic analysis, and development of eco-efficient industrial processes. He has led numerous projects, such as developing comprehensive mathematical models for CO2 capture with rotational packed bed technology and advancing microwave heating-assisted processes for methane reforming.
IMPACT AND INFLUENCE
Jaber Shabanian's work has significantly influenced the field of chemical engineering. His research has contributed to the development of advanced technologies for CO2 emission mitigation, hydrogen production, and the valorization of industrial by-products. He has successfully co-written research proposals securing substantial funding for various projects aimed at developing clean technologies and enhancing process efficiencies. His innovative approaches and strategic thinking have made him a key figure in advancing Canada's energy system transformation.
ACADEMIC CITES
Shabanian's academic contributions are well-recognized, with numerous publications in high-impact journals and presentations at international conferences. He has published several journal articles and conference proceedings, collaborated on textbook chapters, and served as a guest editor for special issues of prominent journals. His research is widely cited, reflecting its importance and relevance in the field of chemical engineering.
LEGACY AND FUTURE CONTRIBUTIONS
Jaber Shabanian's legacy in chemical engineering is marked by his dedication to developing innovative solutions for complex industrial challenges. His ongoing projects and future contributions are expected to further advance clean technology development and process optimization. By integrating advanced technologies and promoting sustainable practices, Shabanian aims to contribute significantly to the field's evolution and address pressing environmental concerns.
Chemical engineering has been a central theme throughout Jaber Shabanian's career. His extensive experience and research have consistently focused on enhancing chemical processes, from fluidized bed reactors to CO2 capture and hydrogen production. His work exemplifies the critical role of chemical engineering in developing sustainable solutions and improving industrial efficiency.
NOTABLE PUBLICATION
Effects of solid particles on bubble breakup and coalescence in slurry bubble columns 2022 (10)
Two-Phase flow characterization of a rotating packed bed through CFD simulation in OpenFOAM 2022 (12)
Hydrodynamics of a gas–solid fluidized bed with thermally induced interparticle forces 2015 (86)
Effects of temperature, pressure, and interparticle forces on the hydrodynamics of a gas-solid fluidized bed 2017 (84)
Fluidization characteristics of a bubbling gas–solid fluidized bed at high temperature in the presence of interparticle forces 2016 (47)