Vahid Madadiavargani at Memorial University of Newfoundland, Canada.
Dr. Vahid Madadiavargani is a chemical engineer and researcher specializing in solar energy applications, computational fluid dynamics (CFD), and process modeling. With over 15 years of experience in academia, he has developed innovative solutions for solar energy utilization, energy-efficient air conditioning, and hydrogen production. His contributions span solar desalination, carbon capture, and photocatalytic water treatment technologies. Dr. Madadiavargani is dedicated to advancing sustainable energy solutions through interdisciplinary research and computational modeling.
Publication Profile
Scopus
Orcid
Google Scholar
Educational Details
Dr. Vahid Madadiavargani earned his Ph.D. in Chemical Engineering from the University of Isfahan, Iran (2010–2015), ranking 3rd in his cohort. His doctoral research focused on designing and constructing a parabolic solar dish collector for regenerating solid desiccant materials in air conditioning systems. He completed his Master’s in Chemical Engineering at the University of Isfahan (2008–2010), ranking 1st, with a thesis on solar water heating system modeling. He obtained his Bachelor’s degree in Chemical Engineering from Persian Gulf University (2004–2008), ranking 2nd, and worked on PSA adsorption/desorption modeling.
Professional Experience
Dr. Madadiavargani is currently a Postdoctoral Researcher in the Department of Process Engineering at Memorial University of Newfoundland, Canada (2023–Present). He has also served as a Per-Course Instructor in Advanced Thermodynamics at the Department of Mechanical Engineering, Memorial University (Winter 2025). Prior to this, he held tenure-track Assistant Professor positions at Persian Gulf University (2019–2023) and Yasouj University (2015–2019), where he taught advanced courses in thermodynamics, transport phenomena, and process modeling. He also worked as a Lecturer and Research Assistant at the University of Isfahan (2010–2015). Additionally, he served as the Head of the Central Laboratory at Yasouj University (2016–2019).
Research Interest
Dr. Madadiavargani specializes in energy conversion and storage systems, CFD simulation, solar thermal modeling, carbon capture and storage, photocatalytic processes, and mathematical modeling of chemical processes. His work includes designing solar-powered water heaters, desalination systems, and photocatalytic reactors for hydrogen production and wastewater treatment.
Author Metrics
-
Total Research Publications: 40+ (SCI & Scopus Indexed)
-
Total Citations: Over 500 (across various high-impact journals)
-
h-Index: 10+ (indicative of influential and widely cited research)
-
i10-Index: 10+ (papers with at least 10 citations each)
-
Most Cited Paper:
“A Comprehensive Review on Hydrogen Production and Utilization in North America: Prospects and Challenges”
Top Noted Publication
1. A Comprehensive Review on Hydrogen Production and Utilization in North America: Prospects and Challenges
-
Authors: V. Madadi Avargani, S. Zendehboudi, N.M.C. Saady, M.B. Dusseault
-
Journal: Energy Conversion and Management, 2022
-
Citations: 187
-
Summary:
This review presents a detailed analysis of hydrogen production technologies and their application in North America. It covers conventional and emerging hydrogen generation methods, including electrolysis, steam methane reforming (SMR), and biomass gasification. The paper also discusses policy frameworks, economic viability, and future challenges in scaling hydrogen infrastructure.
2. A Detailed Mathematical Model for Thermal Performance Analysis of a Cylindrical Cavity Receiver in a Solar Parabolic Dish Collector System
-
Authors: R. Karimi, T.T. Gheinani, V. Madadi Avargani
-
Journal: Renewable Energy, 2018
-
Citations: 101
-
Summary:
This paper develops a mathematical model to analyze the thermal performance of a cylindrical cavity receiver used in parabolic dish collector systems. The study examines heat loss mechanisms, including conduction, convection, and radiation, to optimize energy absorption efficiency. The model is validated with experimental data, demonstrating improved thermal performance with design modifications.
3. A Novel Optical-Thermal Modeling of a Parabolic Dish Collector with a Helically Baffled Cylindrical Cavity Receiver
-
Authors: S. Soltani, M. Bonyadi, V. Madadi Avargani
-
Journal: Energy, 2019
-
Citations: 87
-
Summary:
This research proposes an innovative optical-thermal model for a parabolic dish collector integrated with a helically baffled cylindrical cavity receiver. The model evaluates the impact of helical baffles on heat transfer enhancement and temperature distribution within the receiver. Results indicate a significant improvement in thermal efficiency due to better turbulence and heat absorption.
4. Comprehensive Experimental and Theoretical Study of a Novel Still Coupled to a Solar Dish Concentrator
-
Authors: M. Bahrami, V. Madadi Avargani, M. Bonyadi
-
Journal: Applied Thermal Engineering, 2019
-
Citations: 81
-
Summary:
This study presents a novel solar still integrated with a parabolic dish concentrator for water desalination. The system’s performance is analyzed through both experimental and theoretical approaches, demonstrating significant improvements in freshwater yield. The paper highlights the potential of solar thermal desalination as a sustainable solution for water scarcity issues.
5. First and Second Thermodynamic Law Analyses Applied to a Solar Dish Collector
-
Authors: V. Madadi Avargani, T. Tavakoli, A. Rahimi
-
Journal: Journal of Non-Equilibrium Thermodynamics, 2014
-
Summary:
This paper applies the first and second laws of thermodynamics to analyze the efficiency of a solar dish collector. The study evaluates entropy generation, exergy destruction, and thermal performance under various operating conditions. The results provide insights into optimizing solar energy conversion systems for higher efficiency.
Conclusion
Dr. Vahid Madadiavargani is an exceptionally strong candidate for the Best Researcher Award due to his extensive contributions to hydrogen energy, solar thermal systems, and computational modeling. His high citation count, impactful publications, and international collaborations highlight his academic excellence. While expanding industry collaborations and engaging in policy-driven research could further enhance his impact, his current achievements already position him among the leading researchers in renewable energy and sustainable engineering.