Andrew Macfarlane | Turbulent Combustion | Best Researcher Award

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Dr. Andrew Macfarlane | Turbulent Combustion | Best Researcher Award 

Post Doctorate, University of Sydney, Australia

Dr. Andrew Macfarlane is an accomplished mechanical engineer and combustion researcher based at the University of Sydney. With a PhD in Mechanical Engineering and over a decade of expertise in experimental diagnostics, laser-based measurements, and numerical simulations, Dr. Macfarlane has contributed significantly to the understanding of autoignition, flame dynamics, and clean fuel combustion. He is a highly skilled experimentalist and educator, recognized for his innovation in laboratory design, analytical acumen, and mentorship. His work spans cutting-edge research on hydrogen, ammonia, and biofuels, placing him at the forefront of sustainable energy technologies. 🔬🔥🌏

🔹 Professional Profile

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🏆 Strengths for the Award

  • Outstanding Technical Expertise
    Dr. Macfarlane has developed exceptional capabilities in experimental combustion diagnostics, including advanced laser-based measurement techniques (PLIF, LIF, Raman/Rayleigh) and high-speed imaging. His hands-on skills, proficiency in LabVIEW, and use of state-of-the-art instruments showcase his ability to execute sophisticated experiments independently.

  • Diverse and Impactful Research Projects
    His postdoctoral work at the University of Sydney spans cutting-edge combustion research involving alternative fuels such as hydrogen, ammonia, and biofuels, as well as battery thermal runaway, contributing to energy safety and decarbonization—key global priorities.

  • Multidisciplinary Skillset
    He blends deep mechanical engineering fundamentals with computational modeling (Cantera, OpenFOAM) and data analysis using Python/Matlab. His work integrates experimental, analytical, and computational techniques, adding robust value across research domains.

  • Strong Publication Record & Recognition
    Dr. Macfarlane has authored 8 academic publications and presented at 5 conferences, highlighting his scholarly output. Winning the Best Student Paper Award at the Australian Combustion Symposium 2017 is a testament to the quality and impact of his contributions.

  • Leadership & Mentorship
    His experience tutoring and supervising honors and PhD students shows his commitment to academic leadership and future researcher development, aligning well with the spirit of a Best Researcher Award.

  • Commitment to Safety and Innovation
    His proactive approach to hydrogen safety protocols and instrument interface upgrades reflects innovation, risk awareness, and operational excellence—essential traits in experimental science.

🎓 Education

Dr. Macfarlane began his academic journey with a Bachelor’s degree in Mechanical Engineering from 2010 to 2014, graduating with First Class Honours. His passion for fluid dynamics and thermochemical processes led him to pursue a PhD in Mechanical Engineering (2015–2019) at the University of Sydney, specializing in experimental combustion. His doctoral research focused on the effect of turbulence on autoignition using a custom-designed H₂/air coflow burner. His PhD involved sophisticated diagnostics, such as laser-induced fluorescence (LIF), high-speed imaging, and acoustic analysis, coupled with advanced computational modeling to study ignition delay times, extinction strain rates, and species sensitivity. 📘🧪💡

💼 Experience

Since 2020, Dr. Macfarlane has served as a postdoctoral researcher at the University of Sydney, spearheading experimental and computational projects in the combustion field. His projects include Raman/Rayleigh line diagnostics on methane/hydrogen/ammonia flames, high-pressure diagnostics (up to 5 atm), PLIF imaging (CH, OH, CH₂O, CN, NH) at frequencies up to 10 kHz, and advanced autoignition studies for various fuels. He has conducted thermal runaway experiments on lithium-ion batteries and OH thermometry on PMMA plastics, showcasing his interdisciplinary breadth. 🧯🔍🧑‍🔬

🔬 Research Focus

Dr. Macfarlane’s research centers on understanding combustion dynamics through experimental and numerical methods. He focuses on low-carbon and carbon-neutral fuels, including hydrogen, ammonia, dimethyl ether (DME), oxymethylene ethers (OME), ethanol, and methanol. His work includes developing new diagnostic systems, performing non-intrusive optical measurements, and studying flame behavior in turbulent and high-pressure regimes. He is especially known for redesigning and operating complex experimental systems and safety protocols, particularly for hydrogen-based fuels. His numerical research applies 1D modeling to explore flame speed, extinction limits, and ignition kinetics. His commitment to decarbonized energy systems drives his impactful and relevant work in sustainable combustion. 🌱🧪💨

🏆 Awards

Dr. Macfarlane was awarded the Australian Postgraduate Award (APA) for the duration of his PhD from 2014 to 2018. He also received a scholarship from the Sydney University Combustion Group. His technical excellence and innovative research earned him the Best Student Paper Award at the Australian Combustion Symposium in 2017, a testament to the quality and originality of his work. 🥇📜👏

📚 Publications Top Notes

Raman-Rayleigh and LIF-OH Measurements in Turbulent H₂/N₂ Flames with and without Compositional Inhomogeneity

Journal: Combustion and Flame
Authors: A.R.W. Macfarlane, H. Tang, M.J. Dunn, G. Magnotti, A.R. Masri
DOI: 10.1016/j.combustflame.2025.114338
Summary: This study investigates the effect of compositional inhomogeneity on turbulent hydrogen/nitrogen (H₂/N₂) flames using Raman-Rayleigh scattering and laser-induced fluorescence of hydroxyl (LIF-OH). The research was conducted in a controlled laboratory environment using a specially designed burner system to generate both homogeneous and inhomogeneous inlet conditions. By applying non-intrusive optical diagnostics, the authors captured detailed scalar fields such as temperature, major species concentration, and reaction zone structure.

Towards Understanding the Improvement in Stability for Fuels with Inhomogeneous Inlets

Journal: Combustion Science and Technology
Authors: A.R.W. Macfarlane, M.J. Dunn, A.R. Masri
DOI: 10.1080/00102202.2023.2239464
Summary: In this paper, the authors examine the stabilizing effect of compositional inhomogeneities at the inlet of premixed flames, particularly focusing on hydrogen-rich fuels. The study uses a combined experimental and theoretical approach to assess how variations in local equivalence ratios and turbulence levels affect flame stability and structure.

📌 Conclusion

Dr. Andrew Macfarlane is an outstanding candidate for any prestigious research award in mechanical engineering or energy sciences. His strong foundation in experimental design, laser diagnostics, and computational modeling—combined with his deep commitment to sustainable fuel research—sets him apart as a leader in the field. Beyond technical prowess, he is an inspiring educator and mentor, known for his meticulous approach, problem-solving skills, and collaborative spirit. As the world pivots towards greener energy systems, Dr. Macfarlane’s work on hydrogen and biofuel combustion stands as both timely and transformative. 🌐💡🧑‍🎓

Fatmir Asllanaj | Heat Transfer | Best Researcher Award

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Mr. Fatmir Asllanaj | Heat Transfer | Best Researcher Award

Dr, CNRS – LEMTA, France

Fatmir Asllanaj is a distinguished French scientist, currently holding the position of Chargé de Recherche CNRS Hors Classe at the LEMTA laboratory. With a career spanning more than two decades, he has contributed significantly to the fields of mechanics, energetics, and radiative heat transfer. Dr. Asllanaj’s scientific journey is marked by his extensive collaboration with national and international institutions, as well as his leadership in research teams. His work has had a significant impact on the development of new computational models and their applications in combustion, biological tissue diagnostics, and material sciences. He has been actively involved in research, mentorship, and scientific advisory roles, shaping the direction of innovative projects and contributing to the scientific community through numerous publications and seminars. His contributions are widely recognized, earning him accolades, including being selected as the best reviewer for the journal JQSRT in 2009.

Profile

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Education

Fatmir Asllanaj’s educational background is rooted in high-level academic excellence. He received his Doctorate in Mechanics and Energetics from the University of Lorraine in 2001, followed by a post-doctoral research period at the University of Mons (Belgium). He earned his DEA in Applied Mathematics from the University of Lorraine in 1998, completing his HDR (Habilitation à Diriger des Recherches) in Mechanics and Energetics in 2009. These qualifications have provided him with the knowledge and expertise to pursue a successful career in scientific research and education. Asllanaj’s contributions in academia go beyond his own research, as he has guided multiple PhD and post-doctoral students, contributing to the development of the next generation of scientific minds. His robust educational foundation enables him to bridge the gap between theoretical research and practical application, particularly in the fields of thermodynamics and radiative heat transfer.

Experience

With over 25 years of professional experience, Fatmir Asllanaj has held several prominent roles in scientific research and academia. He began his career as a doctoral student and research assistant at the University of Lorraine, where he worked on his thesis and later contributed as an ATER and post-doctoral researcher. He advanced through various positions at the LEMTA (Laboratoire d’Énergétique, Mécanique et Thermodynamique des Atmosphères), starting as a Chargé de Recherche CNRS and progressing to his current position as Chargé de Recherche CNRS Hors Classe. Throughout his career, Dr. Asllanaj has directed and contributed to multiple research teams and projects, significantly advancing the field of heat transfer and radiative processes. His research has also involved collaborations with leading academic institutions globally, including in Brazil, Germany, and Belgium, and industry partners such as EADS, Saint-Gobain, and Dow-Chemical. Dr. Asllanaj’s leadership and research have led to significant scientific advancements in his field.

Research Focus

Fatmir Asllanaj’s research focuses on the complex interactions between radiative heat transfer, fluid dynamics, and materials science. His work primarily involves modeling radiation in turbulent flows in combustion systems, exploring alternative fuels and their effects on energy production. He also investigates radiation in biological tissues, with applications in medical diagnostics, particularly in optical tomography and cancer detection. Additionally, Dr. Asllanaj conducts research into radiation and coupled heat transfer in semi-transparent media, with a focus on improving insulation materials and glass shaping techniques. His methodical approach includes developing inverse techniques to accurately determine radiative properties in complex environments, contributing to both scientific understanding and practical applications. Asllanaj’s work has provided invaluable insights into the behavior of energy transfer in various media and holds the potential to influence industries ranging from energy production to healthcare and material manufacturing. His research continues to shape the future of thermal sciences and radiative heat transfer.

Publication Top Notes

  1. Unified gas radiation model over the entire temperature range based on WSGG 🌡️📚
  2. New gas radiation model based on the principle of weighted sum of gray gases 🌡️🔥
  3. Simultaneous reconstruction of absorption, scattering and anisotropy factor distributions in quantitative photoacoustic tomography 🔬💡
  4. Anisotropy factor reconstruction as a new endogenous contrast for cancer diagnosis with optical tomography 🧬🎯
  5. Light propagation in biological tissue 💡🧬
  6. New image reconstruction algorithm for fluorescence optical tomography based on the adjoint radiative transfer equation 💡🔬
  7. Three-dimensional frequency-domain optical anisotropy imaging of biological tissues with near-infrared light 🌐💡
  8. Optical properties reconstruction using the adjoint method based on the radiative transfer equation 🧬🔍
  9. Fluorescence molecular imaging based on the adjoint radiative transport equation 💡📡
  10. Galerkin method for solving combined radiative and conductive heat transfer 🔥💻

 

 

 

Emmanuel Oluwaseyi Atofarati | Heat and Mass Transfer | Best Researcher Award

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Dr. Emmanuel Oluwaseyi Atofarati | Heat and Mass Transfer | Best Researcher Award

Research Fellow, University of South Africa, South Africa

Emmanuel Atofarati Oluwaseyi is an accomplished researcher, lecturer, and mechanical engineer. Currently, he is a Post-doctoral Fellow at the University of South Africa and Tshwane University of Technology. Emmanuel has a PhD in Mechanical Engineering from the University of Pretoria, where his research focused on heat transfer enhancement using hybrid nanofluids in jet impingement cooling. He has demonstrated exceptional academic and professional capabilities, teaching undergraduate and postgraduate students, conducting research in heat transfer and nanofluid applications, and contributing to various academic publications. Additionally, Emmanuel has been an external examiner, research assistant, and supervisor for several engineering projects. He is actively involved in research and conferences related to thermodynamics, fluid dynamics, and energy systems, contributing to advancements in sustainable energy technologies. His passion for education, research, and development continues to drive his academic career.

Profile

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Education 

Emmanuel Atofarati Oluwaseyi holds a PhD in Mechanical Engineering from the University of Pretoria (2021-2024), focusing on heat transfer enhancement using hybrid nanofluids in jet impingement cooling. He is also pursuing post-doctoral fellowships at the University of South Africa (2024-present) in the Department of Mechanical Bioresources and Biomedical Engineering, and at Tshwane University of Technology (2024), in Mechanical and Mechatronics Engineering. Emmanuel completed his MSc in Mechanical Engineering (Thermo-Fluid) at Obafemi Awolowo University, Nigeria (2017-2020), where he developed an indigenous steam turbine for power generation. He holds a BSc in Mechanical Engineering from the same university (2010-2015), with a focus on vortex shedding control. His educational journey has provided a solid foundation in heat transfer, energy systems, and mechanical engineering principles, preparing him to make significant contributions to academic research and engineering practices.

Experience 

Emmanuel Atofarati Oluwaseyi has extensive academic and research experience in mechanical engineering. He currently holds post-doctoral positions at the University of South Africa and Tshwane University of Technology (2024-present), where he focuses on cutting-edge research in thermal sciences and biomedical engineering. Emmanuel has served as an Assistant Lecturer at the University of Pretoria (2023), teaching courses in Heat Transfer, Thermal and Fluid Machines, and Thermodynamics. He supervised undergraduate projects and was a Teaching Assistant for multiple engineering courses. His research work includes collaborations with renowned academics and institutions, where he contributed to projects on heat transfer enhancement, nanofluids, and energy systems. Emmanuel has also worked as a Research Assistant at Obafemi Awolowo University, where he contributed to projects on steam turbine development and computational fluid dynamics. His leadership and supervisory roles in various research and academic capacities reflect his commitment to advancing engineering knowledge.

Awards and Honors 

Emmanuel Atofarati Oluwaseyi has earned recognition throughout his academic and professional career. As a scholar, he was awarded the prestigious Post-doctoral Fellowship positions at the University of South Africa and Tshwane University of Technology in 2024, affirming his academic excellence. His PhD research at the University of Pretoria contributed significantly to the field of heat transfer enhancement, garnering attention and praise. Emmanuel’s MSc research on the development of an indigenous steam turbine was a pioneering effort, leading to the creation of Nigeria’s first micro-thermal power plant. His commitment to engineering education earned him multiple leadership roles, including supervising undergraduate research projects and serving as a Teaching Assistant for advanced mechanical engineering courses. Emmanuel has also been recognized for his contributions to conferences, publishing peer-reviewed papers, and serving as an external examiner for final-year engineering projects, highlighting his leadership and expertise in the field.

Research Focus 

Emmanuel Atofarati Oluwaseyi’s research focus lies in heat transfer enhancement, nanofluids, and sustainable energy systems. His PhD research at the University of Pretoria investigated the use of hybrid nanofluids in jet impingement cooling to improve thermal performance in engineering applications. This work contributes to the development of more efficient cooling systems, particularly for industrial and energy sectors. Emmanuel’s research also explores the hydrodynamic and thermodynamic properties of nanofluids and their impact on heat transfer performance. His research interests extend to the optimization of fluid flow and thermal management in renewable energy technologies, including steam turbines and fuel cells. Emmanuel is actively exploring the application of machine learning and artificial intelligence in thermal sciences, aiming to improve the design and performance of energy systems. His academic work contributes to advancements in mechanical engineering, providing innovative solutions to energy efficiency and thermal management challenges in modern technology.

Publication Top Notes

  • Experimental and machine learning study on the influence of nanoparticle size and pulsating flow on heat transfer performance in nanofluid-jet impingement cooling 🔬💡
  • Assessing the factors affecting building construction collapse casualty using machine learning techniques: a case of Lagos, Nigeria 🏗️📊
  • Experimental study on transient and steady-state impinging jet cooling condition with TiO₂-Water nanofluids 🌊🔥
  • Parametric influences on nanofluid-jet cooling heat transfer 💨💻
  • Pulsating nanofluid-jet impingement cooling and its hydrodynamic effects on heat transfer 🌡️🔄
  • Nanofluids for heat transfer enhancement: a holistic analysis of research advances, technological progress, and regulations for health and safety 🔧🌍
  • Hydrodynamic effects of hybrid nanofluid jet on heat transfer augmentation 💧🔧
  • Control of vortex shedding around a circular cylinder using bubble tabs in the laminar flow regime 🌀🔬
  • Indigenous Mini Thermal Power Plant 🔋🌱
  • CFD ANALYSIS OF THE THERMAL ENHANCEMENT OF PEM FUEL CELL COOLING CHANNEL USING DIFFERENT CROSS-SECTIONAL GEOMETRY ⚙️🔥