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Payam M. BorumandView profile

Assistant Professor

• Multiphase Flow and Energy
• Porous Media
• Computational Fluid Dynamics and Heat Transfer
• +2 more

Payam M. Borumand serves as an Assistant Professor in the Department of Mechanical Engineering at the Kinsley School of Engineering, Sciences and Technology, York College of Pennsylvania, where he teaches core courses including Heat Transfer, Thermo/Fluids Experiments, and Mathematical Methods for Engineers. His educational foundation includes a Ph.D. in Mechanical Engineering from Wichita State University, an M.Sc. from the University of Tehran, and a B.Sc. from Persian Gulf University, all in Mechanical Engineering. Dr. Borumand's research integrates computational fluid dynamics with emerging technologies, focusing on multiphase flow in porous media, metal additive manufacturing of thermal management components, and machine learning applications for heat transfer optimization. His work targets advanced wick structures for high-heat-flux systems and energy-efficient thermal solutions. Analysis of his 2022-2024 publications reveals a cohesive research trajectory applying Lattice Boltzmann methods and machine learning to solve critical challenges in pool boiling and additive manufacturing. Key themes include wickability enhancement through novel geometries, probabilistic modeling of heat transfer phenomena, and process optimization for metallic wick production. His teaching portfolio demonstrates commitment to both foundational engineering education and cutting-edge research integration, particularly through his First Year Seminar on Exploring Engineering which bridges academic theory with practical applications in thermal-fluid sciences.

• Medical Education
• Anatomy Education
• Student Motivation
• +3 more

Dr. Joydeep Chaudhuri is a Professor at the College of Medicine in Mt. Pleasant, Michigan, with over 25 years of international teaching experience across India, Malaysia, Finland, Canada, and the United States. He instructs medical, dental, physician assistant, physical therapy, and occupational therapy students in anatomy and medical education disciplines. His educational background includes: MS in Anatomy and Cell Biology from All India Institute of Medical Sciences, New Delhi M.B.B.S. from Regional Medical College, Imphal Dr. Chaudhuri's research spans two distinct phases: early neuroscience investigations of Fetal Alcohol Syndrome and Alzheimer's disease using animal models, and current pioneering work in medical education. His contemporary scholarship focuses on enhancing intrinsic motivation in medical students and mitigating psychological distress during cadaveric dissection. This research bridges educational theory, cognitive psychology, and anatomical sciences, producing practical interventions that transform anatomy pedagogy. Analysis of his 15 most recent publications reveals a strategic evolution toward medical education scholarship, with 2020-2022 works demonstrating rigorous evaluation of prelaboratory assignments, drawing exercises, and mental preparation protocols. These studies consistently show improved academic performance, increased engagement, and reduced anxiety among students, establishing him as a significant contributor to evidence-based anatomy education. Dr. Chaudhuri actively mentors medical and graduate students in educational research. His international collaborations across five countries provide unique cross-cultural perspectives on medical training. While no specific awards are documented, his sustained publication record in top anatomy education journals reflects scholarly impact. Current work continues to develop innovative frameworks for student motivation and psychological support in anatomical sciences education.

• Hamiltonian Dynamical Systems
• Integrable Systems
• Classical Mechanics
• +5 more

Holger R. Dullin is a Professor of Applied Mathematics at the University of Sydney's School of Mathematics and Statistics. His research spans multiple areas of dynamical systems theory with particular emphasis on Hamiltonian systems. He maintains an active research program with consistent publications in top mathematical physics journals and teaches advanced courses including Lagrangian and Hamiltonian Dynamics (MATH3977), Nonlinear ODEs (MATH3063), and Linear Algebra (MATH1902). Dullin's research focuses on Hamiltonian Dynamical Systems , with significant contributions to Integrable Systems (particularly topology, action-angle variables, and Hamiltonian/Quantum Monodromy), Classical Mechanics (N-body problems, rigid body dynamics), Bifurcation Theory (twistless bifurcations, Hamiltonian Hopf), and Fluid Dynamics (Euler equations). His work often bridges pure mathematics with physical applications, especially in celestial mechanics and biomechanics. He has developed novel approaches to understanding geometric phases, symplectic invariants, and the dynamics of Hamiltonian maps including billiards. Analysis of his recent publications reveals a consistent focus on monodromy phenomena across different physical systems, regularization techniques for singularities in dynamical systems, and stability analysis of fluid flows. His work shows increasing interdisciplinary connections between mathematical physics, quantum mechanics, and celestial mechanics, with several papers exploring the geometric structure of integrable systems and their quantum counterparts. The research demonstrates sophisticated mathematical techniques applied to concrete physical problems. Dullin maintains an active research group evidenced by numerous collaborations with mathematicians internationally. His work on the Kovalevskaya top, documented in his PhD thesis and subsequent publications, remains influential in the field of integrable systems. He has developed visualization techniques for complex dynamical systems, including Poincaré sections and energy surfaces in action space.

Hélène SeilerView profile

Professor

• Ultrafast Nanoscience
• Coherent Multi-Dimensional Spectroscopy
• Electronic Disorder in Nanomaterials
• +5 more

Prof. Dr. Hélène Seiler serves as a W1-W2 Tenure Track Professor at Freie Universität Berlin's Department of Physics and Principal Investigator for Project B11 within the TRR 227 Collaborative Research Center. She leads the Ultrafast Dynamics in Nanomaterials research group focusing on experimental studies of electronic excitations in nanoscale systems using coherent multi-dimensional electronic spectroscopy with 10-30 femtosecond resolution. Her research spans 2D materials (TMDCs, heterostructures) Nanotubes and quantum dots Molecules on 2D material platforms Photonic structures and metasurfaces Spintronic heterostructures with emphasis on identifying electronic disorder sources through microscopic energy dissipation channels. Current major projects include SFB 1772 on molecular heterostructures and the OPTIMAL research unit for optical control of quantum materials. Recent publications (2021-2025) reveal strong focus on ultrafast lattice dynamics in 2D materials, exciton-polaron interactions in perovskites, and quantum dynamics in nanocrystals. Her group develops specialized tools including a visible/near-IR coherent two-dimensional spectrometer with 15-fs pulses and angle-resolved spectroscopy for polariton imaging. Scientific leadership includes: Principal Investigator in TRR 227 'Ultrafast Spin Dynamics' Member of SFB 1772 on 2D material heterostructures Participant in OPTIMAL research unit Organizer of iRTG Joint Winter School She actively mentors doctoral researchers and teaches courses including 'Ultrafast Nanoscience' and 'Festkörperphysik' (Solid State Physics), with current team members including Trideep Kawde, Matteo Russo, and Pavel Trofimov. Her laboratory features custom-built instrumentation optimized for heterogeneous nanomaterials with micron-scale sample areas.

• Quantum Transport
• Spintronics
• Topological Materials
• +5 more

Stephan Roche is an ICREA Research Professor and Group Leader at the Institut Català de Nanociència i Nanotecnologia (ICN2), specializing in Theoretical and Computational Nanoscience. His research bridges fundamental physics with potential applications in next-generation electronics and quantum technologies. Primary Affiliation: Institut Català de Nanociència i Nanotecnologia (ICN2) Research Position: ICREA Research Professor Research Group: Theoretical and Computational Nanoscience Professor Roche's research focuses on quantum transport phenomena in nanoscale systems, particularly two-dimensional materials and van der Waals heterostructures. His work combines advanced computational techniques including first-principles calculations, quantum transport simulations, and analysis of topological properties. Key research areas include spintronics, graphene-based systems, topological materials, and quantum effects in disordered systems. His recent work has made significant contributions to understanding spin-orbit torques, quantum transport in twisted bilayer graphene, and topological phases in disordered systems. Analysis of his recent publications (2020-2025) reveals a strong focus on emerging phenomena in 2D materials, with particular emphasis on spin transport mechanisms, topological properties, and quantum effects. His work often combines theoretical modeling with practical implications for next-generation electronic and spintronic devices. The interdisciplinary nature of his research spans condensed matter physics, materials science, and quantum information. Key Research Themes: Quantum transport, Spintronics, Topological materials, 2D materials, Computational nanoscience Methodologies: First-principles calculations, Quantum transport simulations, Machine learning for materials Professor Roche maintains extensive international collaborations, with co-authors from institutions across Europe, Asia, and North America. His research group provides opportunities for students and postdocs interested in computational approaches to nanoscale physics and materials science. The group's work has significant implications for the development of next-generation electronic devices, quantum technologies, and advanced materials.

• Thermal Engineering
• Industrial Energy Systems
• Energy Technology
• +2 more

D'Alessandro Giampaolo is a Researcher (temporary position) at the University of L'Aquila, specifically within the Department of Industrial and Information Engineering and Economics. His academic discipline is IIND-07/A - Thermal Engineering and Industrial Energy Systems, and he belongs to Academic Recruitment Field 09/IIND-07 covering Thermal sciences, energy technology, building physics and nuclear engineering. His work is situated within Area 09 - Industrial and Information Engineering at the university. Dr. Giampaolo's research focuses on thermal engineering and industrial energy systems, with particular emphasis on heat transfer optimization, energy recovery in industrial processes, thermal management solutions, and applications in building physics. His work bridges theoretical thermal science with practical industrial applications, addressing critical challenges in energy efficiency and sustainability. Analysis of his recent publication trends shows a consistent focus on advancing thermal management technologies across multiple domains including electronics cooling, industrial process optimization, building energy systems, and nuclear engineering applications. His research output demonstrates a methodological approach combining computational modeling with experimental validation to develop practical engineering solutions. While specific award information isn't available in the current records, his research in thermal engineering addresses critical challenges in industrial energy efficiency and sustainable technology development, which are areas of growing importance in contemporary engineering research. Dr. Giampaolo's work in thermal engineering provides valuable opportunities for students interested in energy systems, heat transfer optimization, and sustainable industrial technologies. His research has direct applications in improving energy efficiency across multiple industrial sectors and contributes to the broader goals of sustainable engineering practices.

• Flow boiling
• Pool boiling
• Microchannel heat transfer
• +5 more

Satish Kandlikar is the Gleason Professor of Mechanical Engineering at Rochester Institute of Technology (RIT), where he has been a faculty member since 1980. He is affiliated with the Kate Gleason College of Engineering and the Department of Mechanical Engineering. Previously, he served as faculty at the Indian Institute of Technology in Bombay before joining RIT. Professor Kandlikar's research focuses on flow boiling phenomena, developing ultra-high performance pool and flow boiling heat transfer surfaces, stabilizing flow boiling in microchannels, interface mechanics during rapid evaporation, and advanced chip cooling with single-phase liquid flow. His work has evolved from empirical studies that produced widely accepted correlations for different geometries to fundamental investigations using high-speed photography techniques to understand bubble dynamics. Recently, he has expanded into biomedical applications, particularly using infrared imaging technology for breast cancer detection. His research output shows a clear progression from fundamental boiling mechanisms to practical applications in electronics cooling and biomedical diagnostics. Recent publications (2019-2021) demonstrate continued innovation in surface engineering for boiling enhancement using graphene and other nanomaterials, while simultaneously branching into medical applications of thermal imaging. Scientific Awards: Eisenhart Award for Outstanding from RIT Trustees Scholarship Award from RIT Engineer of the Year Award from Rochester Engineering Society Heat Transfer Memorial Award from the American Society of Mechanical Engineers Professor Kandlikar advises numerous graduate students, with recent publications showing strong student involvement as lead authors. His lab appears well-funded with active research in both traditional thermal engineering and innovative biomedical applications. He has founded significant professional initiatives including the ASME Heat Transfer chapter in Rochester and the E-cubed science and engineering fair for middle school students, demonstrating strong commitment to mentoring and community engagement. His laboratory focuses on experimental thermal science with capabilities in high-speed imaging of bubble dynamics, nanofabrication for surface modification, thermal testing of microchannel systems, and potentially clinical thermal imaging equipment for the biomedical applications. The lab culture appears collaborative, with students taking lead roles in publications and presenting at major conferences.

• Orbital Mechanics
• Third-Body Perturbations
• Interplanetary and Lunar Trajectories
• +3 more

Christian Circi is an Associate Professor of Flight Mechanics at the Department of Astronautical, Electrical, and Energy Engineering, Sapienza University of Rome. He has held this position while actively contributing to space research and education in Italy's premier academic institution. Dr. Circi earned his Bachelor of Science and Master of Science in Aeronautical Engineering, followed by a Master of Science in Aerospace Engineering, and ultimately his PhD in Aerospace Engineering, all from Sapienza University of Rome. His educational background provided the foundation for his specialization in space mission design and orbital mechanics. His primary research focuses on orbital mechanics , with particular expertise in third-body perturbations , interplanetary and lunar trajectories , solar sails , orbits for planetary observation , and launch vehicle ascent trajectories . Dr. Circi's work bridges theoretical celestial mechanics with practical space mission applications, making significant contributions to the understanding of complex orbital dynamics in multi-body systems. Analysis of Dr. Circi's recent publications reveals a strong emphasis on solar sail technology, particularly the Helianthus mission, as well as innovative approaches to orbit design for lunar and planetary exploration. His work increasingly incorporates quantum-inspired optimization techniques and machine learning applications to traditional astrodynamics problems, demonstrating adaptability to emerging computational methodologies. Dr. Circi serves as the scientific director of the Italian Space Agency's "Research and Development on Photonic Solar Propulsion" project, demonstrating leadership in cutting-edge propulsion research. He has also been actively involved in consulting for both public and private space sector organizations. At Sapienza University of Rome, Dr. Circi teaches "Interplanetary Trajectories" and "Launcher Flight Mechanics" in the Master's Degree program in Space and Astronautical Engineering, as well as the second-level Master's program in "Space Transportation Systems." His teaching directly reflects his research expertise, providing students with practical knowledge of space mission design. Dr. Circi has authored 153 scientific articles throughout his career and serves as Associate Editor for several prestigious journals including "Aerospace Science and Technology," "International Journal of Aerospace Engineering," "Astrodynamics," and "Space: Science & Technology," indicating his standing within the international space research community.

• Heat Transfer
• Thermodynamics
• Mathematical modelling
• +11 more

Sid Becker is an Associate Professor in the Department of Mechanical Engineering within the Faculty of Engineering at the University of Canterbury, New Zealand. He has held this position since June 14, 2010 and will assume the role of Associate Dean for Postgraduate Research under the Deputy Vice-Chancellor for Research on March 24, 2025. His research spans multiple disciplines within thermal and fluid sciences, with significant contributions to micro-combustion, heat transfer, and multiphase flow phenomena. Becker's primary research interests include: Heat Transfer and Thermodynamics Mathematical modelling of thermal systems Building Services and HVAC systems Combustion engineering, particularly micro-combustors using hydrogen and ammonia fuels Fluid dynamics and multiphase flow, especially drop vaporization and breakup Biological media transport phenomena His recent publications (2023-2025) show a strong focus on sustainable energy systems, particularly micro-combustion technologies using alternative fuels like hydrogen and ammonia. His work often incorporates thermodynamic analysis, entropy generation studies, and computational modeling approaches. A significant portion of his research investigates the fundamental physics of combustion instabilities, drop dynamics, and thermal actuation in microsystems, with applications ranging from energy conversion to biomedical engineering. Becker has received notable recognition including the prestigious Alexander von Humboldt Fellowship (2008-2009), valued at over 50,000€, which supported his research on thermodynamically based models of skin electroporation. As an active supervisor, Becker has mentored numerous graduate students across a diverse range of projects from energy systems to biomechanics. His professional activities include committee memberships on the Faculty of Engineering Academic Board and Graduate Research Committee, as well as extensive grant assessment for organizations including DFG and EU Marie Curie Actions. His international collaborations span Germany, Slovenia, and the United States, reflecting the global impact of his research in advancing sustainable energy solutions and fundamental thermal-fluid science.