Phd Student at University of Wolverhampton, United Kingdom
Meisam Ansarpour is an emerging scholar in chemical engineering whose work combines advanced computational modeling, nanotechnology, and experimental research to address pressing challenges in carbon capture and sustainable energy. His research interests focus on CO2 absorption using nanofluids, heat and mass transfer phenomena, and the development of novel process configurations for energy efficiency. He has contributed significantly to both the academic and industrial domains, with publications in high-impact journals, collaborative book chapters with leading experts, and participation in international conferences. With dedication to innovation and sustainable technologies, he stands out as a promising researcher advancing global climate solutions.
Professional Profile
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Education
Meisam Ansarpour has pursued a strong academic foundation in chemical engineering across reputable institutions. He completed his undergraduate and master’s studies at Persian Gulf University, where his projects revolved around nanofluids, gas absorption, and diffusivity modeling. His undergraduate thesis explored the performance of metal oxide nanofluids in heat exchangers, laying the groundwork for his future research interests. Building on this, his master’s thesis focused on experimental and computational analysis of ethane diffusivity in composite gas lines, applying advanced tools like COMSOL and MATLAB. Currently, he is a doctoral researcher at the University of Wolverhampton, where his dissertation examines the optimization of CO2 absorption-desorption processes through novel system configurations. This progression from fundamental studies to specialized doctoral research demonstrates his capacity for independent inquiry and innovation in sustainable chemical engineering solutions.
Experience
Alongside his academic training, Meisam Ansarpour has cultivated substantial teaching and research experience that strengthens his professional profile. He has served as a laboratory supervisor in chemical engineering, overseeing experiments, mentoring students, and ensuring high standards of safety and academic rigor. His teaching engagements as a lecturer and assistant include courses in thermodynamics, ANSYS Fluent, ASPEN Plus, and MATLAB, where he developed a reputation for combining theoretical clarity with practical application. Beyond academia, he has also gained industrial and experimental experience through projects measuring ethane diffusivity and developing applied modeling techniques. This balanced background across teaching, laboratory supervision, and applied research has allowed him to bridge the gap between academic theory and industrial implementation, ensuring that his expertise contributes both to knowledge generation and real-world problem solving.
Research Focus
The central focus of Meisam Ansarpour’s research is the advancement of carbon capture technologies and heat transfer performance using nanotechnology and computational fluid dynamics (CFD). His doctoral work emphasizes modifying CO2 absorption-desorption processes to improve efficiency and sustainability, with a special interest in innovative system configurations. Previous investigations include the use of nanofluids to enhance convective heat transfer, employing temperature-dependent properties to improve accuracy in modeling. His interdisciplinary approach brings together experimental validation and numerical simulation, making his work both scientifically robust and industrially relevant. Moreover, his contributions to understanding mass transfer, absorption processes, and solvent-based CO2 capture reflect a deep commitment to mitigating environmental challenges associated with greenhouse gas emissions. His research integrates fundamental principles with applied outcomes, ensuring that his findings support advancements in energy, climate action, and industrial processes.
Awards and Honors
Meisam Ansarpour has received recognition for his academic excellence and contributions to chemical engineering research. During his studies, he was identified as a talented student, underscoring his strong potential as an early-career researcher. His innovative work also earned him the distinction of being named a top researcher at Persian Gulf University, reflecting the impact and relevance of his scholarly contributions within the academic community. Furthermore, he represented his institution at the prestigious Alborz Foundation Prize, showcasing his ability to contribute to high-level competitions and represent his university on a broader stage. These honors highlight not only his technical expertise but also his leadership potential and commitment to advancing the field of chemical engineering, especially in areas linked to environmental sustainability and energy efficiency.
Publication Top Notes
Title: Removal of Heavy Metals from Industrial Wastewaters: A Review
Authors: Azimi, A.; Azari, A.; Rezakazemi, M.; Ansarpour, M.
Summary: This review highlights methods for removing heavy metals from wastewater, analyzing chemical, physical, and biological processes while discussing advantages, limitations, and future sustainable treatment perspectives.
Title: Methanol to Methyl Methacrylate (MMA): Catalysts, Kinetics, Mechanisms, and Reaction Paths
Authors: Kohsar, M.; Ansarpour, M.; Mofarahi, M.
Summary: The chapter investigates catalytic pathways for converting methanol to MMA, analyzing kinetics, mechanisms, and reaction routes, with insights into energy-efficient processes and emerging industrial applications.
Title: Performance investigation of MEA-1DMA2P solution for CO2 capture: A rate-based modelling, optimization, and cost analysis
Authors: Afkhamipour, M.; Shamsi, M.; Seifi, E.; Hekmatiyan, A.; Ansarpour, M.; Borhani, T.N.
Summary: This study presents rate-based modeling and optimization of MEA-1DMA2P solvent for CO2 capture, assessing efficiency, economic feasibility, and potential advantages over conventional amine solutions.
Title: Preliminary application of batch downflow gas contactor (BDGC) as a novel unit operation for CO2 absorption
Authors: Borhani, T.N.; Ansarpour, M.; Babamohammadi, S.; Oko, E.
Summary: The article introduces BDGC as a new CO2 absorption technology, evaluating hydrodynamic behavior, absorption efficiency, and scalability for industrial carbon capture processes through experimental validation.
Title: Effect of Different Amine Solutions on Performance of Post-Combustion CO2 Capture
Authors: Elmarghni, S.; Ansarpour, M.; Borhani, T.N.
Summary: This research examines the performance of various amine solvents in post-combustion CO2 capture, providing comparative efficiency insights to optimize solvent selection for sustainable applications.
Conclusion
In conclusion, Meisam Ansarpour exemplifies the qualities of a promising researcher dedicated to advancing chemical engineering for sustainable development. His academic journey from undergraduate research in nanofluids to doctoral investigations in advanced carbon capture technologies demonstrates a clear trajectory of innovation, rigor, and impact. He has complemented his education with teaching, laboratory leadership, and industrial engagement, ensuring that his work maintains relevance across both academic and applied domains. His strong publication record, collaborative book chapters, international conference presentations, and recognition through awards highlight his growing influence in the field. By integrating experimental methods, computational modeling, and sustainable design principles, he contributes to addressing one of the most critical global challenges—climate change mitigation. For these reasons, he is an excellent candidate for recognition through an award nomination, with the potential to continue making significant contributions to science and engineering worldwide.