Federico Di Prospero | Thermal Energy Recovery | Mechanical Engineering Award

Dr. Federico Di Prospero | Thermal Energy Recovery | Mechanical Engineering Award

PhD student, University of L’Aquila, Italy

Federico Di Prospero is an aspiring mechanical engineer with a focus on sustainable energy and combustion technologies. He holds a Bachelor’s Degree in Industrial Engineering and a Master’s Degree in Mechanical Engineering from the University of L’Aquila, where he graduated with honors. Federico is currently pursuing a PhD in Industrial Engineering and has received his certification as an industrial engineer. His academic and research interests center around improving energy efficiency and reducing CO2 emissions in internal combustion engines. He has contributed to several international publications, reflecting his expertise and commitment to environmental engineering solutions.

Profile

Education

Federico completed his secondary education at Liceo Scientifico A.Bale in L’Aquila (2017). He then pursued a Bachelor’s Degree in Industrial Engineering at the University of L’Aquila, graduating in 2020. Continuing his academic journey, he completed a Master’s Degree in Mechanical Engineering at the same institution in 2023, earning the highest distinction with a 110 e Lode. His thesis focused on reducing CO2 emissions in internal combustion engines, specifically by integrating energy recovery systems through turbines downstream of the turbocharger. Currently, Federico is pursuing a PhD in Industrial Engineering and has obtained certification as a licensed Industrial Engineer. His academic path demonstrates a strong commitment to both technical and research excellence, particularly in sustainable engineering.

Experience

Federico has accumulated a diverse range of experiences in both academia and research. His early academic focus was on industrial engineering, but his passion for mechanical engineering led him to specialize in energy recovery technologies. During his Master’s studies, he worked on advanced research projects exploring turbocompound energy recovery and CO2 emissions reduction. Federico has also participated in prestigious seminars and conferences, including those related to internal combustion engine (M.C.I.) technologies and the H2ICE project. He gained valuable research experience in the School for Experimental Sciences at the Gran Sasso National Laboratories, where he worked on cutting-edge energy recovery technologies. His practical skills include advanced proficiency in software like CATIA V5, Ansys, Matlab, and R, as well as expertise in CAE and CAD tools. His experience aligns with his dedication to solving the modern challenges of energy sustainability and efficiency.

Research Focus

Federico Di Prospero’s research focuses on energy recovery systems and CO2 emission reduction in internal combustion engines (ICEs). His Master’s thesis explored the integration of turbocompound energy recovery systems to capture and reuse exhaust gases, ultimately improving engine efficiency and reducing harmful emissions. His ongoing doctoral research in Industrial Engineering builds upon these concepts, with an emphasis on sustainable energy solutions and the optimization of mechanical systems. Federico’s work integrates simulation tools such as Matlab, R, Ansys, and CATIA V5, and his expertise in computer-aided engineering and finite element analysis supports the development of more effective and eco-friendly engine technologies. By focusing on the environmental impacts of industrial technologies, his research seeks to advance energy recovery solutions for both the automotive and energy sectors. This work has the potential to play a pivotal role in advancing green technology in mechanical engineering.

Publication Top Notes

  1. Turbocompound Energy Recovery Option on a Turbocharged Diesel Engine (2023)
  2. Dual-Stage Energy Recovery from Internal Combustion Engines (2025)
  3. Model-Based Design of a Turbo-Compound Bottomed to Internal Combustion Engine Exhaust Gas (2023)

 

 

Fatmir Asllanaj | Heat Transfer | Best Researcher Award

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

Orcid

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 🔥💻