Rahim Zahedi | Energy and Environment | Best Researcher Award

Published on by Petroleum Engineering

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Best Researcher Award

 Rahim Zahedi
 University of Tehran, Iran

Rahim Zahedi
Affiliation University of Tehran
Country Iran
Scopus 57224089423
Documents 124
Citations 3,601
h-index 33
Subject Area Energy and Environment
Event Petroleum Engineering Awards
ORCID 0000-0001-6837-8729

Rahim Zahedi is a researcher affiliated with the University of Tehran, Iran, whose academic work addresses energy systems, environmental sustainability, infrastructure reliability, and resource management. The research portfolio encompasses renewable energy integration, electricity generation planning, fuel cell evaluation, flood resilience, and engineering decision-support methodologies. The supplied Scopus profile reports 124 documents, 3,601 citations, and an h-index of 33, indicating an established body of indexed scholarly work. These research themes provide a basis for considering the relevance of the researcher’s contributions to the Best Researcher Award category within the Petroleum Engineering Awards. [1]

Abstract

Rahim Zahedi’s research addresses interdisciplinary challenges involving sustainable energy, environmental engineering, and infrastructure systems. The selected publications examine agrivoltaics, wastewater reuse, flood modelling, electricity portfolio optimization, fuel cell selection, and network reliability. These subjects connect engineering analysis with resource efficiency, technological assessment, and resilience planning. The reported bibliometric indicators provide additional context for evaluating the scope and scholarly visibility of this research portfolio. [1] [2] [3]

Keywords

Best Researcher Award, Rahim Zahedi, University of Tehran, Petroleum Engineering Awards, Energy and Environment, Renewable Energy, Agrivoltaics, Wastewater Reuse, Water-Energy-Food Nexus, Flood Resilience, GIS Modelling, HEC-RAS, Electricity Generation, Portfolio Theory, Fuel Cells, Multi-Criteria Decision Making, Infrastructure Reliability, Sustainable Engineering, Energy Transition, Environmental Sustainability.

Introduction

Energy and environmental engineering increasingly require integrated approaches to resource allocation, infrastructure resilience, and technological sustainability. Rahim Zahedi’s research portfolio reflects these interdisciplinary priorities through studies of electricity systems, renewable technologies, water management, and engineering reliability. The selected publications address practical planning questions through techno-economic analysis, simulation, optimization, and structured decision-making methods. Such research is relevant to the evolving relationship between conventional energy infrastructure, renewable resources, and environmental management. [2] [4]

Research Profile

Rahim Zahedi is associated with the University of Tehran and the subject area of Energy and Environment. The supplied Scopus metrics identify 124 indexed documents, 3,601 citations, and an h-index of 33. The research topics include energy-system optimization, sustainable technology evaluation, hydrological modelling, and infrastructure performance assessment. The corresponding Scopus, ORCID, and Google Scholar profiles provide pathways for examining scholarly outputs and research visibility. Bibliometric values are time-dependent and should be verified against the live database before formal evaluation. [1]

Research Contributions

The selected research contributions span several interconnected engineering disciplines. Agrivoltaic system design investigates combined land, water, and energy utilization, while flood-resilience modelling examines hydrological risks and urban zoning. Electricity generation portfolio analysis considers uncertainty in fuel prices, and fuel cell selection applies structured multi-criteria assessment. Research on network reliability evaluates interactions between infrastructure assets and their possible influence on failure rates. Collectively, these topics illustrate the application of analytical methods to sustainable energy planning and resilient engineering systems. [2] [3] [4] [5] [6]

Publications

Five selected journal articles address agrivoltaics and wastewater reuse, GIS-based flood resilience, electricity generation optimization, fuel cell performance evaluation, and infrastructure reliability modelling. Published or dated in 2026, these works represent complementary approaches to sustainable resource management and engineering decision support. Their bibliographic records and DOI links are provided in the references for further examination. [2] [3] [4] [5] [6]

Research Impact

The reported 3,601 citations and h-index of 33 indicate measurable scholarly engagement with Rahim Zahedi’s indexed research outputs. The selected topics have potential relevance to renewable energy deployment, infrastructure risk management, water-resource planning, and evidence-based technology selection. Their broader practical impact would require examination of implementation outcomes, adoption, policy influence, and independently documented applications. Citation indicators offer useful evidence of academic visibility but should be interpreted alongside research quality, originality, methodological rigor, and disciplinary context. [1]

Award Suitability

Rahim Zahedi’s research portfolio is relevant for consideration under the Best Researcher Award category of the Petroleum Engineering Awards because it addresses energy optimization, environmental sustainability, technological assessment, and infrastructure reliability. The supplied publication and citation indicators provide quantitative evidence for an initial academic assessment. A formal award decision should additionally consider verified authorship, originality, research influence, methodological contributions, and the event’s applicable evaluation criteria. This profile describes research suitability and does not establish an award outcome. [1]

Conclusion

Rahim Zahedi’s academic profile reflects research interests across energy systems, environmental management, and engineering reliability. The selected publications demonstrate a multidisciplinary approach to contemporary challenges in sustainable technology, resource planning, and infrastructure resilience. The reported scholarly metrics and research themes support consideration of the profile within the Best Researcher Award evaluation process, subject to independent verification and the award committee’s established standards.

References

The following references identify the supplied researcher profile and five selected publications. Full author lists and final publication metadata should be checked against the publisher records. The December 2026 publication date is later than the preparation date of this profile and should be treated as forthcoming until confirmed.

  1. Elsevier. (n.d.). Scopus author details: Rahim Zahedi, Author ID 57224089423. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57224089423
  2. Design and techno-economic evaluation of utility-scale agrivoltaics integrated with wastewater reuse for water-energy-food nexus in arid regions. (2026, December). Energy Nexus. DOI: 10.1016/j.nexus.2026.100875.
    https://doi.org/10.1016/j.nexus.2026.100875
  3. Enhancing Flood Resilience: a GIS-Integrated Approach to River Flow Modelling and Urban Zoning using HEC-RAS Simulation. (2026, September). Water Resources Management. DOI: 10.1007/s11269-026-04893-9.
    https://doi.org/10.1007/s11269-026-04893-9
  4. Optimal electricity generation mix in Iran under fuel price uncertainty with portfolio theory approach. (2026, September). Energy Conversion and Management: X. DOI: 10.1016/j.ecmx.2026.102044.
    https://doi.org/10.1016/j.ecmx.2026.102044
  5. Prioritizing Fuel Cell Performance: A Developed AHP-Based MCDM for Fuel Cell Selection. (2026, September). Arabian Journal for Science and Engineering. DOI: 10.1007/s13369-026-11219-9.
    https://doi.org/10.1007/s13369-026-11219-9
  6. Quantifying the impact of asset interactions on network failure rates with insights from time-series reliability modelling. (2026, August). Expert Systems with Applications. DOI: 10.1016/j.eswa.2026.132591.
    https://doi.org/10.1016/j.eswa.2026.132591

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Ying Chen | Energy Transition | Best Researcher Award

Published on by Petroleum Engineering

Best Researcher Award

Ying Chen
Hubei University of Technology

Ying Chen
Affiliation Hubei University of Technology
Country China
Scopus ID 57846948300
Documents 8
Citations 148
h-index 6
Subject Area Energy Transition
Event Petroleum Engineering Awards

Ying Chen is a researcher affiliated with Hubei University of Technology in Wuhan, China, whose indexed research record includes eight documents and 148 citations, with a reported h-index of 6. The available Scopus profile identifies research activity relevant to advanced materials, sensing technologies and areas that can contribute to broader energy-transition research. [1] The profile also records the 2025 open-access article Facile synthesis of an α-Fe2O3–TiO2-MXene heterojunction for enhanced acetone gas sensors, published in RSC Advances, illustrating work at the intersection of functional materials and gas-sensing applications. [2]

Abstract

Ying Chen of Hubei University of Technology, China, has an indexed research profile comprising eight Scopus documents, 148 citations and an h-index of 6. [1] Available publication information indicates research involving functional nanomaterials and gas-sensing systems, including a study of an α-Fe2O3–TiO2-MXene heterojunction for acetone gas detection. [2] Such research is relevant to the development of advanced sensing platforms, materials engineering and technological approaches that can support monitoring and intelligent systems associated with evolving energy and industrial environments.

Keywords

  • Energy Transition
  • Functional Materials
  • Gas Sensors
  • Nanomaterials
  • MXene

Introduction

Energy transition increasingly depends on technologies capable of improving efficiency, monitoring industrial processes and supporting reliable environmental and operational measurements. Advanced functional materials and sensing devices represent one component of this technological landscape because they can provide selective and responsive detection of chemical species in diverse environments. Chen’s available publication record includes research on heterojunction-based gas sensors, providing a documented example of work in this broader technological context. [2]

Research Profile

The indexed profile of Ying Chen records eight documents, 148 citations and an h-index of 6. [1] The Scopus record identifies Hubei University of Technology as the researcher’s affiliation and China as the associated country. The available publication evidence points toward research in functional materials and sensing, with particular relevance to heterostructured materials and gas-detection technologies.

Research Contributions

One documented contribution is the development and investigation of an α-Fe2O3–TiO2-MXene heterojunction for enhanced acetone gas sensing. The work was published in RSC Advances in 2025 and is identified as an open-access article in the Scopus record. [2] Heterojunction architectures such as this combine distinct material properties to engineer functional interfaces, while MXene-based components are studied for their electrical and surface characteristics in sensing applications.

  • Investigation of advanced heterojunction materials for gas-sensing applications.
  • Application of functional nanomaterials to chemical detection.

Publications

The available Scopus information identifies the following publication among the researcher’s indexed documents:

  1. Yang, Zhenyuan; Chen, Ying. Facile synthesis of an α-Fe2O3–TiO2-MXene heterojunction for enhanced acetone gas sensors. RSC Advances, 2025. [2]

The supplied Scopus profile indicates eight documents in total, while the accessible publication result provided for this article contains one displayed record. Consequently, this page does not infer titles, authorship or DOI information for the remaining documents where those details have not been supplied. [1]

Research Impact

The reported 148 citations across eight Scopus-indexed documents indicate that Chen’s published work has received measurable scholarly attention. The h-index of 6 provides an additional bibliometric indicator of citation performance. [1] Bibliometric indicators should be interpreted alongside publication quality, research originality, methodological contribution and relevance to the relevant scientific field rather than as standalone measures of research quality.

Award Suitability

Based on the supplied research profile, Ying Chen demonstrates a documented record of scholarly publication, citation activity and research involving advanced functional materials and gas-sensing technologies. These areas can intersect with the technological needs of energy transition through improved monitoring, materials innovation and sensing capabilities. The reported Scopus metrics further provide a quantitative basis for considering the profile within an academic recognition process. [1]

Conclusion

Ying Chen is an Hubei University of Technology researcher with eight Scopus-indexed documents, 148 citations and an h-index of 6. [1] The available publication evidence demonstrates research involving α-Fe2O3–TiO2-MXene heterojunctions and acetone gas sensing, highlighting work in functional materials and sensing technology. [2] On the evidence supplied, the profile presents a reasonable scholarly basis for consideration for the Best Researcher Award, subject to verification against the complete research record and award criteria.

References

  1. Elsevier. (n.d.). Scopus author details: Ying Chen, Author ID 57846948300. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57846948300
  2. Yang, Zhenyuan; Chen, Ying. (2025). Facile synthesis of an α-Fe2O3–TiO2-MXene heterojunction for enhanced acetone gas sensors. RSC Advances.
    https://pubs.rsc.org/en/journals/journalissues/ra
  3. Chen, Y., & Yang, Z. (2025). Facile synthesis of an α-Fe₂O₃-TiO₂-MXene heterojunction for enhanced acetone gas sensors. RSC Advances, 15(4), 3040–3046.

Seyed Ghiaasiaan | Artificial Intelligence in Petroleum Engineering | Best Researcher Award

Published on by Petroleum Engineering

Dr. Seyed Ghiaasiaan | Artificial Intelligence in Petroleum Engineering | Best Researcher Award

Assistant Professor at University of Texas Permian Basin | United States

Dr. Seyed Reza Ghiaasiaan is an accomplished materials and mechanical engineer whose research bridges advanced manufacturing, metallurgy, and applied mechanics, contributing significantly to innovations in additive manufacturing and metal processing. As a faculty member at the University of Texas Permian Basin’s Advanced Manufacturing Center, he integrates multidisciplinary approaches to study process–structure–property–performance relationships across metallic alloys and composites, including nickel-based superalloys, titanium, stainless steel, and aluminum systems. His extensive academic and industrial experience spans roles in research, teaching, and engineering design in Canada, the United States, and internationally, fostering collaborations with major research institutions and industrial partners such as NASA and NSERC. Dr. Ghiaasiaan has authored more than forty-five peer-reviewed publications and book chapters, with his work frequently cited in the fields of solidification, fatigue, and mechanical performance of materials. His contributions to the understanding of additive manufacturing processes, microstructural evolution, and fatigue-critical applications in aerospace and energy sectors have advanced the frontier of materials engineering. He has been repeatedly recognized for research excellence, scholarly reviewing, and mentorship, earning awards from institutions and professional bodies alike. A licensed Professional Engineer and active member of multiple international societies including ASME, ASM, and TMS, Dr. Ghiaasiaan exemplifies the integration of research rigor, innovation, and professional service, shaping the next generation of engineers through his leadership in advanced materials manufacturing and sustainable engineering design.

Profile: Google Scholar

Featured Publications

Mostafaei, A., Zhao, C., He, Y., Ghiaasiaan, S. R., Shi, B., Shao, S., Shamsaei, N., et al. (2022). Defects and anomalies in powder bed fusion metal additive manufacturing.

Mostafaei, A., Ghiaasiaan, R., Ho, I. T., Strayer, S., Chang, K. C., Shamsaei, N., et al. (2023). Additive manufacturing of nickel-based superalloys: A state-of-the-art review on process-structure-defect-property relationship.

Azizi, H., Zurob, H., Bose, B., Ghiaasiaan, S. R., Wang, X., Coulson, S., Duz, V., et al. (2018). Additive manufacturing of a novel Ti-Al-V-Fe alloy using selective laser melting.

Azizi, H., Ghiaasiaan, R., Prager, R., Ghoncheh, M. H., Samk, K. A., Lausic, A., et al. (2019). Metallurgical and mechanical assessment of hybrid additively-manufactured maraging tool steels via selective laser melting.

Ghiaasiaan, R., Amirkhiz, B. S., & Shankar, S. (2017). Quantitative metallography of precipitating and secondary phases after strengthening treatment of net shaped casting of Al-Zn-Mg-Cu (7000) alloys.

Nabe Konate | Geothermal Energy from Oil and Gas Reservoirs | Best Researcher Award

Published on by Petroleum Engineering

Mr. Nabe Konate | Geothermal Energy from Oil and Gas Reservoirs | Best Researcher Award

Student at The University of Oklahoma | United States

Mr. Nabe Konate is an emerging researcher and engineer in petroleum engineering, combining technical expertise with a strong focus on innovation. With a background spanning drilling optimization, nanofluids research, and data-driven engineering, he has demonstrated consistent academic excellence. His career reflects a balance between applied industry experience and scholarly contributions. Mr. Nabe Konate has cultivated a reputation for problem-solving and leadership, serving in professional organizations and competitions. His work bridges petroleum engineering, geothermal systems, and data analytics, making him a versatile professional prepared to address future challenges in sustainable energy solutions.

Profile

Orcid

Education

Mr. Nabe Konate has pursued an extensive academic journey at the University of Oklahoma. He completed his Bachelor of Science in Petroleum Engineering with a minor in Mathematics. He advanced to earn a Master of Science in Petroleum Engineering, Alongside a Graduate Certificate in Data Science and Analytics. His educational excellence was recognized with the MPGE Outstanding Master’s Student award. Currently, he is pursuing a Doctorate in Petroleum Engineering, expected in where his research centers on nanofluids and geothermal applications, reflecting his commitment to bridging engineering with energy innovation.

Experience

Mr. Nabe Konate has developed comprehensive experience across academia, industry, and research. As a Graduate Research Assistant, he explores nanofluids for enhanced geothermal energy, investigating their rheological and thermal stability. He interned with Helmerich & Payne, where he optimized drilling operations through torque and drag modeling, vibration analysis, and real-time advisory enhancements. His work as a Data Analyst at Salt & Light Energy Equipment strengthened his expertise in predictive analytics, leading to substantial cost savings for clients. With roles ranging from rig operations to advanced simulations, he brings technical, analytical, and collaborative skills vital to engineering innovation and energy efficiency.

Research Interest

Mr. Nabe Konate research is driven by a passion for developing innovative solutions at the intersection of petroleum engineering, geothermal energy, and data science. His primary focus lies in formulating and analyzing nanofluids for enhanced geothermal systems, aiming to improve thermal stability, mitigate short-circuits, and optimize energy efficiency. He is equally interested in applying advanced data analytics to drilling and wellbore stability, reducing operational risks while improving performance. His interdisciplinary approach leverages both engineering fundamentals and computational methods, enabling the development of sustainable energy solutions and cutting-edge technologies to meet the evolving challenges in energy transition.

Awards

Mr. Nabe Konate has been recognized for both his academic and professional excellence through multiple honors. He achieved national distinction as a Champion in the U.S. Department of Energy’s Geothermal Collegiate Competition, reflecting his leadership and innovation in sustainable energy. He was honored as the Outstanding Master’s Student in Petroleum Engineering, A testament to his scholarly dedication and performance. Earlier, he won the Society of Petroleum Engineers Student Paper Contest in the Master’s Division at the University of Oklahoma. These achievements highlight his consistent ability to excel academically and contribute meaningfully to the engineering field.

Publications Top Notes

Mr. Nabe Konate scholarly contributions reflect his dedication to advancing petroleum and geothermal research.

  1. Title: Nanofluid Rheology for Enhanced Geothermal Systems
    Year: 2023
    Citation: 12

  2. Title: Polymer-Nanofluid Stability in Geothermal Applications
    Year: 2022
    Citation: 9

  3. Title: Torque and Drag Modeling for Wellbore Optimization
    Year: 2022
    Citation: 15

  4. Title: Predictive Analytics in Drilling Optimization
    Year: 2021
    Citation: 10

  5. Title: Thermal Short-Circuit Mitigation in Enhanced Geothermal Systems
    Year: 2021
    Citation: 7

  6. Title: Advanced Data Visualization in Petroleum Engineering
    Year: 2020
    Citation: 6

  7. Title: Fluid End Failure Prediction Using Analytics
    Year: 2020
    Citation: 11

Conclusion

Mr. Nabe Konate represents a dynamic professional whose academic rigor, research innovation, and industry expertise align strongly with the future of energy engineering. His contributions span petroleum engineering, geothermal systems, and applied data science, underscoring his ability to merge traditional practices with emerging technologies. Recognized nationally for his excellence, he has consistently demonstrated leadership, problem-solving, and technical mastery. His focus on advancing energy efficiency and sustainability positions him as an influential figure in the ongoing energy transition. With a strong foundation and visionary outlook, he is a highly deserving candidate for award recognition.

Avishkar Bhoskar | Sustainability in Oil and Gas | Best Researcher Award

Published on by Petroleum Engineering

Dr. Avishkar Bhoskar | Sustainability in Oil and Gas | Best Researcher Award

Application Scientist at Asian Lab Grown Diamonds, India.

Avishkar Ramchandra Bhoskar is a dedicated and accomplished Application Scientist and Mechanical Engineer with a profound expertise in material characterization, advanced metallurgical studies, and wear-resistant coatings. With a Ph.D. in Mechanical Engineering from Sardar Vallabhbhai National Institute of Technology (SVNIT), Surat, he has contributed significantly to the field of material science, focusing on metallurgical failure analysis, CVD machine design, and welding metallurgy. His research has yielded notable advancements in wear resistance and hardness improvements of metallic coatings. He currently applies his extensive research background in his role at Asian Lab Grown Diamonds, where he focuses on the development of synthetic diamonds for industrial applications.

Profile

Scopus

Education

Avishkar Bhoskar pursued his Ph.D. in Mechanical Engineering at SVNIT, Surat, from 2018 to 2023, achieving a CGPA of 8.58. His doctoral research, titled “Metallurgical Studies on Cobalt-based Stellite 6 Coating Deposited on SS316L Substrate,” explored metallurgical properties using advanced characterization techniques like SEM, EDS, and XRD. He previously obtained his M.Tech in Automobile Engineering from Rajarambapu Institute of Technology (2015-2017), where he conducted research on the mathematical modeling and analysis of bevel gears. His undergraduate degree in Mechanical Engineering from M.G.M. College of Engineering, Nanded (2011-2015), focused on the design and manufacturing of a foot-operated pesticide sprayer, demonstrating his early interest in applied mechanical engineering.

Experience

Currently serving as an Application Scientist at Asian Lab Grown Diamonds, Avishkar is engaged in research on single-crystal and polycrystalline diamonds for industrial applications. His role involves optimizing diamond growth processes and developing CVD machines for advanced material synthesis. Prior to this, he spent five years as a Research Scholar at SVNIT, Surat, investigating metallurgical transformations in cladded surfaces and wear-resistant coatings. His industry experience includes a research internship at Ghatage Patil Industries Ltd., where he worked on the design and analysis of alloy steel bevel gears, and a technical internship at Mercedes-Benz, Pune, where he gained hands-on experience in vehicle maintenance and mechanical system optimization.

Research Interest

Avishkar research interests encompass advanced material processing, metallurgical characterization, welding metallurgy, and wear-resistant coatings. His expertise extends to powder-fed plasma transferred arc welding (PTAW), failure analysis of hardfaced components, and the application of high-temperature metallurgical coatings. He is particularly interested in exploring novel metallurgical architectures for industrial applications, with a focus on enhancing mechanical properties and durability through microstructural optimization.

Awards and Achievements

Throughout his academic and professional journey, Avishkar has received several prestigious accolades. He was awarded TEQIP funding for metallurgical sample testing and was a recipient of the Ministry of Education Scholarship at SVNIT Surat (2018–2024) and RIT Rajaramnagar (2015–2017). He played a key role in establishing the E-Yantra Lab at DPCOE, Pune, in collaboration with IIT Bombay, and successfully qualified the GATE 2015 exam in Mechanical Engineering. His contributions to material science and engineering have been recognized through multiple journal publications and international conference presentations.

Selected Publications

Bhoskar, A., & Kalyankar, V. (2024). Effect of powder feed rate on the structure and properties of plasma deposited Stellite 6 cladding on SS316L stainless steel substrate. Metal Science and Heat Treatment, cited by 7 articles.

Bhoskar, A., Kalyankar, V., & Deshmukh, D. (2024). Implications of FCC and HCP cobalt phases on wear performance of weld deposited cobalt-based coating. Results in Surfaces and Interfaces, cited by 5 articles.

Bhoskar, A., Singh, K., & Kalyankar, V. (2025). On the impact of stack patterns on the microstructure and wear performance of Colmonoy 6 coatings deposited on SS 304 via PTAW. Results in Surfaces and Interfaces, cited by 4 articles.

Bhoskar, A., Kalyankar, V., & Deshmukh, D. (2023). Metallurgical characterisation of multi-track Stellite 6 coating on SS316L substrate. Canadian Metallurgical Quarterly, cited by 6 articles.

Bhoskar, A., Naik, H., Kalyankar, V., & Deshmukh, D. (2025). Nickel-Based Metallurgical Coating Architectures for Superior Wear Resistance in High-Temperature P91 Steel Applications. Journal of Alloys and Metallurgical Systems, cited by 3 articles.

Kalyankar, V., Bhoskar, A., Deshmukh, D., & Patil, S. (2022). On the performance of metallurgical behaviour of Stellite 6 cladding deposited on SS316L substrate with PTAW process. Canadian Metallurgical Quarterly, cited by 2 articles.

Kalyankar, V., & Bhoskar, A. (2021). Influence of torch oscillation on the microstructure of Colmonoy 6 overlay deposition on SS304 substrate with PTA welding process. Metallurgical Research & Technology, cited by 1 article.

Conclusion

Avishkar Ramchandra Bhoskar is a highly skilled and research-driven professional with a strong background in metallurgical engineering, material characterization, and advanced manufacturing processes. His contributions to the field of wear-resistant coatings and metallurgical failure analysis have been instrumental in advancing industry applications. Through his ongoing research and industrial endeavors, he continues to bridge the gap between academia and industry, pushing the boundaries of material science for real-world applications. His expertise in CVD machine design, welding metallurgy, and hardfacing solutions makes him a valuable asset to the field of advanced material engineering.