Abderrahim Dinane | Chemical Engineering | Best Researcher Award

Prof. Dr. Abderrahim Dinane | Chemical Engineering | Best Researcher Award

Laboratory of thermodynamics and energy, Center for energy research | Morocco

Prof. Dr. Abderrahim Dinane is a distinguished Moroccan physicist and thermodynamics expert, currently serving at the Faculty of Sciences Ben M’Sik, Hassan II University, Casablanca. He holds a State Doctorate in Physical Sciences (2000) and a Ph.D. in Thermodynamics (1986) from the Faculty of Sciences, Rabat, in collaboration with the University of Marseille, France. Over his prolific academic career, he has played a pivotal role in developing Morocco’s thermodynamics and energy research ecosystem, establishing multiple laboratories including the Thermodynamics Research Laboratory at FSBM and the Laboratory on Thermodynamics of Aqueous Electrolyte Mixtures at the Faculty of Sciences, Rabat. His scientific work focuses on the thermodynamic properties of aqueous electrolyte mixtures, with applications in phosphate fertilizers, environmental systems, cloud and aerosol physics, and process engineering. Prof. Dinane has authored and co-authored more than 60 peer-reviewed articles in top-tier international journals such as Fluid Phase Equilibria, Journal of Chemical Thermodynamics, Journal of Solution Chemistry, Industrial & Engineering Chemistry Research, and Journal of Chemical and Engineering Data. He has reviewed over 100 scientific papers for major international journals and supervised more than 20 Ph.D. theses in fields spanning chemical thermodynamics, physical chemistry, materials science, and renewable energy. His innovative hygrometric method for determining thermodynamic properties of aqueous electrolytes has been widely recognized for its precision and applicability in environmental and industrial processes. As a member of the American Chemical Society (ACS), he actively contributes to international collaborations and has served as a reviewer, conference organizer, and committee member in numerous scientific events worldwide. His leadership roles include heading the Projects and Research Department at ERN and coordinating thermal engineering programs, along with significant contributions to national engineering entrance examinations and faculty recruitment. Prof. Dinane’s contributions have earned him multiple certificates of recognition from international publishers and ranking honors, notably 6th among all researchers at Hassan II University and 26th nationwide across Moroccan universities, according to the COMSTECH (OIC) 2024 ranking. With an h-index of 15 and more than 900 citations, his research continues to influence the global scientific community in thermodynamics, energy systems, and environmental applications.

Profiles:  Scopus Orcid

Featured Publications

El Fadel, W., El Hantati, S., Nour, Z., Dinane, A., Messnaoui, B., Mounir, A., Samaouali, A., & Arbaoui, A. (2025). Experimental and modeling study of the thermodynamic behavior and solubility of the NH₄NO₃–D-sucrose–water ternary system at 298.15 K. Processes, 13(11), 3438.

El Fadel, W., El Hantati, S., Nour, Z., Dinane, A., Messnaoui, B., Mounir, A., Samaouali, A., & Arbaoui, A. (2025). New thermodynamic data for NH₄NO₃–sucrose–water ternary system: Water activity, osmotic coefficient, activity coefficient, excess Gibbs energy, solubility and transfer Gibbs energy at 298.15 K. Preprints, 2025081914.

El Hantati, S., Nour, Z., El Fadel, W., Dinane, A., Messnaoui, B., Samaouali, A., & Arbaoui, A. (2024). Thermodynamic properties of the mixture of potassium phosphate fertilizer with KCl: Water activity, osmotic and activity coefficients, excess energy, and solubility of KH₂PO₄–KCl–H₂O at 298.15 K. Journal of Chemical & Engineering Data, 69(11), 3956–3968.

Nour, Z., Mounir, A., El Fadel, W., El Hantati, S., Dinane, A., Samaouali, A., & Messnaoui, B. (2024). Thermodynamic properties of NaCl–HCl(aq) and HCl–NaCl–KCl(aq) at a temperature of 298.15 K. Journal of Chemical & Engineering Data, 69(7), 2810–2820.

El Hantati, S., El Fadel, W., Nour, Z., Dinane, A., Messnaoui, B., & Samaouali, A. (2023). Thermodynamic properties data of ternary system KBr–KH₂PO₄–H₂O at 298.15 K. Journal of Chemical & Engineering Data, 68(11), 4470–4478.

El Hantati, S., Nour, Z., El Fadel, W., Samaouali, A., Dinane, A., & Messnaoui, B. (2023). Thermodynamics of K₂HPO₄/D-sucrose/water system at 298.15 K: Experiment and modeling. Journal of Chemical & Engineering Data, 68(11), 4490–4499.

El Fadel, W., El Hantati, S., Nour, Z., Dinane, A., Samaouali, A., & Messnaoui, B. (2023). Experimental determination of osmotic coefficient and salt solubility of system NH₄NO₃–NH₄H₂PO₄–H₂O and their correlation and prediction with the Pitzer–Simonson–Clegg model. Industrial & Engineering Chemistry Research, 62(44), 17023–17034.

Meisam Ansarpour | Chemical Engineering | Best Researcher Award

Mr. Meisam Ansarpour | Chemical Engineering | Best Researcher Award

Mr. Meisam Ansarpour | University of Wolverhampton | United Kingdom

Mr. Meisam Ansarpour is a dedicated chemical engineering researcher specializing in computational fluid dynamics (CFD), nanotechnology, and advanced CO₂ capture processes. His career reflects a strong integration of theoretical modeling, experimental design, and industrial applications. He has contributed significantly to advancing nanofluid-based heat and mass transfer techniques, with applications in energy efficiency and environmental sustainability. Throughout his academic and professional journey, he has collaborated with multidisciplinary teams to address climate change challenges through innovative CO₂ absorption methods and optimization strategies. His publications in reputable international journals and contributions to book chapters showcase his commitment to generating impactful research that bridges scientific knowledge and industrial solutions. In addition to research, he has served as a lecturer and mentor, guiding students in mastering engineering principles and simulation tools. His forward-looking vision is focused on delivering innovative, practical, and sustainable solutions to complex engineering problems worldwide.

Profile

Orcid

Education

Mr. Meisam Ansarpour’s academic pathway has been rooted in excellence and progressive specialization. He pursued his bachelor’s studies in chemical engineering with a strong focus on thermodynamics and process operations. Building on this foundation, he completed a master’s degree where he conducted pioneering experimental work on nanofluids and their effect on mass transfer phenomena, supported by advanced modeling using COMSOL and MATLAB. His research combined laboratory precision with computational accuracy, setting the stage for his current doctoral studies. At the PhD level, his focus is on optimizing CO₂ absorption-desorption systems through innovative system configurations. His learning approach is interdisciplinary, integrating fluid mechanics, reaction engineering, and environmental technology. Alongside formal studies, he has engaged in specialized training in simulation platforms like ANSYS Fluent, Aspen HYSYS, and Materials Studio, enabling him to model and predict process behavior under complex operational conditions. His academic achievements are supported by high performance in coursework, research output, and practical application.

Experience

Mr. Meisam Ansarpour’s professional journey combines academia, research, and industry engagement. As a visiting lecturer, he has taught subjects such as fluid mechanics, thermodynamics, and process simulation, demonstrating both technical expertise and strong communication skills. His role as a laboratory supervisor enhanced his leadership in overseeing experimental safety, managing advanced equipment, and guiding student projects. Industrially, he has worked on ethane diffusivity measurement in composite pipelines, bridging theoretical research with real-world operational demands. His research has involved both independent investigations and collaborative projects with leading academics, resulting in innovative process designs for CO₂ capture and heat transfer enhancement. Beyond research, he has been actively involved in technical skill development, delivering training on software tools like MATLAB, ASPEN Plus, and MINITAB. His combined teaching and research experience showcases his capability to translate scientific advancements into applied engineering solutions, making him a versatile contributor in both academic and industrial chemical engineering landscapes.

Research Interest

Mr. Meisam Ansarpour’s research interests focus on integrating nanotechnology with chemical process engineering to address global environmental and energy challenges. He specializes in computational fluid dynamics (CFD) modeling, exploring the heat and mass transfer performance of nanofluids in industrial applications. His work particularly emphasizes the enhancement of CO₂ capture efficiency through modified absorption and regeneration processes. He investigates system reconfiguration, solvent optimization, and advanced reactor designs to reduce energy consumption and improve scalability. His interests also extend to the experimental validation of CFD models, ensuring real-world applicability of theoretical findings. By combining simulation, laboratory experimentation, and industrial process knowledge, his research aims to develop sustainable, high-performance solutions for carbon mitigation. The ultimate goal is to provide industries with cost-effective, environmentally friendly technologies that contribute to achieving net-zero emission targets while maintaining operational efficiency and process reliability across multiple chemical engineering domains.

Awards

Mr. Meisam Ansarpour has been recognized for his academic excellence, research productivity, and technical leadership in chemical engineering. He was honored as a talented student for his innovative contributions to nanofluid research and process optimization. His designation as a top researcher reflects his high-impact publications and successful collaborations in cutting-edge CO₂ capture technologies. Representing his university in prestigious scientific competitions, he has demonstrated both technical competence and the ability to communicate complex research to diverse audiences. These distinctions acknowledge not only his academic performance but also his capacity to drive advancements that align with sustainability goals. His awards are a testament to his consistent dedication, creative problem-solving skills, and ability to bridge the gap between theoretical research and practical implementation. Through his achievements, he has built a strong foundation for future contributions to chemical engineering innovation and international scientific collaboration.

Publication Top Notes

Biomass and Wind-Based Cogeneration Technologies

Reference Module in Earth Systems and Environmental Sciences – Meisam Ansarpour, Masoud Mofarahi

Carbon Capture by Swing Adsorption Processes

 Reference Module in Earth Systems and Environmental Sciences – Meisam Ansarpour, Masoud Mofarahi

Increasing Mass Transfer in Absorption and Regeneration Processes via Nanofluids

Nanofluids and Mass Transfer – Meisam Ansarpour, Masoud Mofarahi

Numerical Study on the Convective Heat Transfer Performance of a Developed MXene IoNanofluid in a Horizontal Tube by Considering Temperature-Dependent Properties

Journal of Thermal Analysis and Calorimetry – Meisam Ansarpour, Navid Aslfattahi, Masoud Mofarahi, R. Saidur

Increasing Mass Transfer in Absorption and Regeneration Processes via Nanofluids

 Nanofluids and Mass Transfer – Meisam Ansarpour, Masoud Mofarahi

Conclusion

Mr. Meisam Ansarpour is a forward-thinking chemical engineer whose career embodies a balance between research excellence, teaching, and practical industry engagement. His contributions to CO₂ capture, nanofluid applications, and heat and mass transfer modeling are paving the way for more efficient and sustainable chemical processes. By integrating computational modeling with experimental validation, he ensures that his research delivers both scientific depth and industrial applicability. His international collaborations and diverse research portfolio demonstrate adaptability and a global perspective on engineering challenges. With a commitment to sustainability, innovation, and knowledge transfer, he is poised to make further breakthroughs that support climate change mitigation and process optimization. His combination of academic rigor, hands-on experimentation, and visionary approach positions him as a valuable leader in advancing chemical engineering solutions for the future.