جست‌وجوی استاد و پژوهشگر

• Energy conversion
• Non-equilibrium thermodynamics
• Thermoelectricity
• +۴ مورد دیگر

Christophe Goupil is a University Professor 1st Class at the University of Paris, where he teaches in the Faculty of Physics and conducts research at the Interdisciplinary Laboratory of Tomorrow's Energies (LIED), UMR 8236. He serves as Head of the DyCO (Dynamiques Couplées) research team and previously held the position of Deputy Director of LIED from 2015-2020. With research spanning three distinct periods—Supraconductivity (1991-2004), Thermoélectricity (2004-2012), and Interdisciplinary Energy Research (2012-present)—Goupil's work focuses on energy conversion, non-equilibrium thermodynamics, and the application of thermodynamic principles to biological and economic systems. His approach integrates physics, biology, and economics through the lens of coupled dynamics, with particular interest in bio-inspired energy systems and the thermodynamics of metabolic processes. His research has evolved from fundamental studies of vortex dynamics in superconductors to interdisciplinary applications examining the relationship between energy conversion and living systems. Goupil's recent publications reveal a growing trend toward interdisciplinary applications of thermodynamics, with approximately 40% focusing on biological systems, 30% on advanced thermoelectric materials and devices, 20% on fundamental thermodynamic theory, and 10% on economic applications. His work consistently applies Onsager's linear response theory to diverse systems, demonstrating the universality of thermodynamic principles across disciplines. Best Paper Award 2015 for Thermodynamics of Thermoelectric Phenomena and Applications in Entropy journal Co-director of the publication Manuel de la grande transition Co-editor of the exhibition catalog for the Biomimétisme exhibition at Cité des Sciences Professor Goupil has supervised 8 PhD theses and 5 post-doctoral researchers, while mentoring approximately 2 M2-level interns annually. His research has been supported by numerous projects including THETAGEN (FP7 CleanSky), ENERMAT (INTERREG), METABOLOCOT (CNRS), FLEXIGEN (Centre-Val de Loire), and several FUI projects. He has served on 17 thesis committees and 3 HDR committees, demonstrating his active engagement in academic mentorship and evaluation. As head of the DyCO research team at LIED, Goupil leads investigations into coupled dynamics across multiple domains. The team explores the thermodynamic foundations of energy conversion in both living and non-living systems, with particular focus on the interface between physical principles and biological organization. Their work bridges traditional disciplinary boundaries, examining how thermodynamic constraints shape system behavior across scales—from electronic transport to metabolic processes to economic systems.

Eric Herbertمشاهده پروفایل

استاد پژوهشی

• Out-of-equilibrium thermodynamics
• Finite-time thermodynamics
• Energy conversion systems
• +۵ مورد دیگر

Eric Herbert is a Research Professor at the University of Paris, where he joined in 2013 as part of the LIED laboratory (Laboratoire Interdisciplinaire des Energies de Demain). As a physicist working at the intersection of multiple disciplines, he collaborates with experts in humanities and biology to address energy transition challenges through thermodynamic frameworks. Herbert's research centers on energy optimization through finite-time thermodynamics applied to generalized energy conversion systems. His work develops a nodal thermodynamic approach that examines how systems transform diluted energy into concentrated forms through dissipative processes, with particular attention to boundary conditions and feedback mechanisms. His research spans diverse domains including biological systems (particularly animal locomotion and muscle mechanics), economic structures, fungal networks, and granular physics. Analysis of his publication record reveals a consistent progression from fundamental physics toward interdisciplinary applications. His earlier work focused on granular physics phenomena like thermally triggered granular plumes, while his more recent publications explore thermodynamic principles in biological systems and economic modeling. A unifying theme across all his work is the examination of how systems optimize energy use under different constraints, whether in muscle mechanics, fungal network growth, or macroeconomic systems operating within resource limitations. His research demonstrates how thermodynamic principles can provide a common language for understanding diverse complex systems. Herbert actively participates in interdisciplinary research initiatives, including the ANR grant NEMATIC which organized a 2024 colloquium on branching networks. His collaborations span physics, biology, and economics, reflecting his commitment to addressing energy transition challenges through cross-disciplinary approaches.

• Functional Materials for Acoustics
• Acoustic Waves in Complex Media
• Contactless Micromanipulation
• +۷ مورد دیگر

Jérémie Mayor is a researcher at the University of Bordeaux's Institute of Mechanics and Engineering (I2M), specializing in acoustics and material characterization within the APY (Physical Acoustics) research group. His work bridges theoretical modeling and experimental applications in wave propagation phenomena. His core research focuses on: Functional Materials for Acoustics Acoustic Waves in Complex Media Contactless Micromanipulation with Acoustic Waves Elastic Wave Propagation in structured anisotropic materials Nanophononics and Biophononics applications Mayor contributes to advanced ultrasonic imaging techniques and material characterization methodologies, with particular emphasis on multi-scale wave behavior from picosecond phenomena to macroscopic applications. His research integrates modeling and simulation frameworks to address challenges in structured materials and biological systems, while exploring opto-acoustic interactions and contactless manipulation technologies for innovative engineering solutions. Within I2M's research ecosystem, Mayor collaborates across multiple platforms including TREFLE (Energy Fluid Transfers) and GCE (Civil and Environmental Engineering) groups, leveraging shared infrastructure like the CND-END characterization facilities and Porous Media platforms for comprehensive material analysis.

Ralf Zimmermannمشاهده پروفایل

پژوهشگر ارشد

• Electrosurface Analysis
• Molecular Transport and Binding
• Bioprinting
• +۷ مورد دیگر

Dr. Ralf Zimmermann is a Research Fellow at the Leibniz Institute of Polymer Research Dresden (IPF Dresden), working within the Research Division of Polymer Biomaterials Science. His research focuses on the intersection of polymer science, biomaterials, and surface analysis, with particular expertise in electrosurface phenomena, molecular transport mechanisms, and advanced bioanalytical techniques. Dr. Zimmermann's primary research interests include: Electrosurface Analysis and characterization of biomaterial interfaces Molecular transport and binding mechanisms at biointerfaces Advanced bioprinting techniques for multi-component hydrogels Time-of-flight secondary ion mass spectrometry (ToF-SIMS) for bioanalysis Multivariate data analysis applied to complex biomaterial systems His extensive publication record from 2017-2025 demonstrates a consistent focus on understanding and manipulating the physicochemical properties of biomaterials, particularly examining how surface charge, molecular structure, and environmental conditions influence biological interactions. Recent work has increasingly focused on tissue engineering applications, with particular attention to vascularization processes, stem cell microenvironments, and advanced bioprinting techniques. His research bridges fundamental surface science with practical biomedical applications, contributing significantly to the development of next-generation biomaterials with precisely controlled properties. Dr. Zimmermann has established himself as a key contributor to the field through methodological innovations in surface characterization and their application to solve pressing challenges in biomedical engineering. His collaborative work spans multiple disciplines, reflecting the interdisciplinary nature of modern biomaterials research and its translation toward clinical applications.

Christopher A. Browneمشاهده پروفایل

استادیار

• Soft Matter
• Complex Fluids
• Experimental Microscopy
• +۷ مورد دیگر

Christopher A. Browne is an Assistant Professor in the Department of Chemical Engineering at the University of Michigan, starting his appointment in January 2026. He will lead the Mess Lab, which investigates soft matter and complex fluids in disordered environments where 3D disorder and unsteady forcing induce nonequilibrium or chaotic dynamics. His research spans multiple interconnected areas: Soft Matter in Messy Systems - studying how biological, environmental, and engineered materials behave in disordered 3D spaces under dynamic stresses Tailoring Elastic Turbulence - using polymer additives to inject controlled chaotic instabilities into confined flows to enhance transport Customizing Liquid Crystal Condensates - examining how liquid-liquid phase separation forms intricate geometries and emergent life-like dynamics Flow Patterning of Polymeric Materials - understanding polymer stretching, phase separation, and gellation dynamics in 3D flows The Mess Lab employs experimental microscopy combined with material synthesis to connect microscale dynamics to macroscale properties. This fundamental research aims to engineer innovative soft systems that leverage complex environments to address challenges in sustainability, clean energy, health, and resource security. Dr. Browne is actively recruiting researchers at all levels starting in January 2026 or shortly thereafter. Dr. Browne utilizes pronouns he/him/his and can be contacted at cabrowne@umich.edu.

• Fluid Physics
• Structure Formation
• Biocomplexity

Dr. Taraprasad Bhowmick serves as a Researcher at the Max Planck Institute for Dynamics and Self-Organization in Göttingen, Germany, where he investigates complex systems through the lenses of fluid physics, structure formation, and biocomplexity. His work contributes to the institute's core mission of unraveling universal principles in non-equilibrium dynamics. His research portfolio encompasses: Fluid Physics : Examining turbulence, flow instabilities, and hydrodynamic phenomena in diverse media Structure Formation : Analyzing pattern emergence and self-organization in physical systems Biocomplexity : Probing collective behavior and emergent properties in biological networks These interconnected domains advance fundamental understanding of complex dynamical systems across physical and biological scales. No scientific awards or honors were documented in available sources. Information regarding academic advising, research grants, and laboratory affiliations remains unspecified in the provided materials.

David G Petersمشاهده پروفایل

استاد

• Non-invasive diagnostics
• Cell-free nucleic acids
• Liquid biopsy
• +۵ مورد دیگر

David G Peters is a Professor of Obstetrics, Gynecology and Reproductive Sciences and Professor of Human Genetics at the University of Pittsburgh. He leads a research laboratory at the Magee-Womens Research Institute focused on developing non-invasive diagnostic methods using cell-free nucleic acids. Dr. Peters combines translational genomics with computational approaches to detect and phenotype silently progressing human diseases across multiple clinical domains including prenatal medicine, neonatal care, and women's health. His work aims to reduce disease burden through earlier and more accurate diagnosis that informs personalized treatment approaches. Dr. Peters' research centers on understanding the biology and utility of cell-free nucleic acids present in human fluid reservoirs such as plasma, stool, and cerebrospinal fluid. His laboratory develops blood tests and other non-invasive methods for early detection of complex human diseases including preterm birth, necrotizing enterocolitis, ovarian cancer, and treatment-refractory depression. Key research areas include epigenomic liquid biopsy for preterm birth risk detection, non-invasive analysis of methylated cell-free DNA in neonatal diseases, and novel platforms for ovarian cancer diagnosis. His work consistently bridges basic science with clinical applications to create diagnostic tools with real-world impact. Analysis of Dr. Peters' recent publications reveals a strong focus on methylation signature analysis across multiple clinical domains. His research spans prenatal medicine, neonatal care, women's health, and neuropsychiatry, demonstrating the versatility of cell-free nucleic acid analysis. A consistent theme is the development of high-resolution epigenomic techniques for non-invasive phenotyping, with applications ranging from stool-based detection of necrotizing enterocolitis to cerebrospinal fluid analysis for neurological conditions. His work on algorithm development for non-invasive prenatal testing has advanced the field beyond traditional aneuploidy screening to include microdeletion detection. Dr. Peters currently leads multiple significant research projects funded by NIH, DOD, and private foundations. His active grants include development of non-invasive liquid biopsy screening for preterm birth (NIH/NICHD R01HD110579), analysis of methylated cell-free DNA in necrotizing enterocolitis (NIH/NIDDK R01 DK124614), and a novel platform for ovarian cancer diagnosis (DOD U01OC200494). Previous funding includes work on non-invasive detection of fetal aneuploidy (NIH/NICHD R01 HD068578-02) and metabolomics of treatment-refractory depression. In December 2024, he was featured in MWRI news about faculty receiving over $18 million in NIH grants. Dr. Peters leads a research team at the Magee-Womens Research Institute including Annie Shaw (Senior Research Assistant), Camille Boufford (Senior Research Assistant), Tianjiao Chu (Associate Professor, OB/GYN), Lucas Tavares Naief (Senior Research Assistant), Michaela Ednie (Research Assistant), and Laken Ritzert (Research Assistant). His laboratory, located at 204 Craft Avenue, B405, Pittsburgh, PA 15213, combines wet lab genomic techniques with computational analysis to advance non-invasive diagnostic methods. The team collaborates with clinicians across multiple specialties to ensure their research addresses real clinical needs and can be translated into practical diagnostic tools that improve patient care while reducing risks associated with traditional diagnostic procedures.

• Raman Spectroscopy
• Optical Measurement Techniques
• Microfluidics
• +۲ مورد دیگر

Dr. Volker Beushausen is a researcher in the Faculty of Physics at the University of Göttingen, where he has served as a doctoral advisor for physics research at the intersection of optical techniques and biological applications. His scholarly contributions demonstrate expertise in advanced measurement methodologies. His research program emphasizes: Surface-enhanced Raman spectroscopy for label-free biomolecular analysis Development of optical field measurement systems Characterization of microscale fluid dynamics Instrumentation for biophysical applications Analysis of his supervised research output reveals a consistent focus on applying precision optical methods to solve complex problems in biophysics and microfluidics, with particular attention to non-invasive measurement techniques and practical engineering solutions. Dr. Beushausen has mentored doctoral researchers in the Faculty of Physics, guiding work that bridges theoretical physics with experimental applications. His advising has produced significant contributions in spectroscopic methodology and microfluidic characterization techniques, reflecting an interdisciplinary approach that connects fundamental physics with biological and engineering applications.

Nancy Forero-Martinezمشاهده پروفایل

پژوهشگر

• Multiscale Modeling
• Fundamental Nonequilibrium Phenomena
• Macromolecular Systems
• +۳ مورد دیگر

Dr. Nancy Forero-Martinez serves as a Researcher at the Institute of Physics within the Faculty of Physics, Mathematics and Computer Science at Johannes Gutenberg University Mainz (JGU Mainz), Germany. She is an active member of the KOMET research group specializing in theoretical and computational physics. Her research spans interdisciplinary domains in soft matter and biological physics, with core expertise in: Multiscale Modeling of complex systems Fundamental Nonequilibrium Phenomena in dynamic systems Macromolecular Systems and polymer physics Complex Fluids and Flow behavior Interfaces and Confinement effects Biological Physics applications The KOMET group employs advanced computational methodologies to investigate emergent phenomena across physics, chemistry, and biology. Dr. Forero-Martinez contributes to projects examining non-equilibrium statistical mechanics and multiscale simulation techniques for soft condensed matter systems. No information regarding academic advising, research grants, or scientific awards was available in the provided materials.

Lauren Hendersonمشاهده پروفایل

مدرس

• Pediatric Rheumatology
• Juvenile Idiopathic Arthritis
• Regulatory T cells
• +۳ مورد دیگر

Dr. Lauren Henderson serves as an Attending Physician in Rheumatology at Boston Children's Hospital and Instructor in Pediatrics at Harvard Medical School. She directs the New-onset JIA Registry and Rheumatic Diseases of Childhood Biorepository while chairing the CARRA federated biorepository subcommittee, coordinating over 60 pediatric rheumatology sites across North America. Education Graduate School: Harvard Medical School (2014) Medical School: Harvard Medical School (2008) Internship: Boston Children's Hospital (2009) Residency: Boston Children's Hospital (2011) Fellowship: Pediatric Rheumatology, Boston Children's Hospital (2015) Research Focus Dr. Henderson's work centers on regulatory T cell dysfunction in juvenile idiopathic arthritis pathogenesis, with groundbreaking investigations into the 'Treg paradox' in inflammatory arthritis. Her expertise spans macrophage activation syndrome biomarker discovery, cytokine storm immunopathology, and immune dysregulation mechanisms in pediatric rheumatic diseases. She employs advanced techniques including T cell profiling and multi-omics approaches to unravel disease mechanisms. Publication Trends Her recent publications (2023-2025) reveal three dominant themes: (1) biomarker development for hyperinflammatory disorders (hyperferritinemia, interferon signatures), (2) immune cell dynamics in JIA/MAS pathogenesis (Treg/B cell interactions, cytokine networks), and (3) clinical management innovations for complex pediatric rheumatic conditions. These works consistently bridge basic immunology with clinical applications. Scientific Awards No awards were documented in the source material. Research Leadership Dr. Henderson's biorepository initiatives represent major collaborative infrastructure for pediatric rheumatology research. Through CARRA leadership, she has established standardized protocols for biorepository management across North American centers, enabling large-scale translational studies in childhood arthritis. Laboratory Operations She oversees two major institutional resources: the New-onset JIA Registry tracking disease evolution from diagnosis, and the Rheumatic Diseases of Childhood Biorepository housing longitudinal biospecimens. These platforms support multicenter studies on JIA immunopathogenesis and treatment response biomarkers.

Andrew Resnickمشاهده پروفایل

استاد

• Biophysics
• Cellular Mechanosensation
• Optical Physics
• +۴ مورد دیگر

Dr. Andrew Resnick serves as a Professor at Cleveland State University, affiliated with the Center for Gene Regulation in Health and Disease (GRHD). His research bridges physics and biology through two primary tracks: sensory cilia in cellular mechanosensation and optical probes of matter. He utilizes experimental tools including epithelial cell culture, electrophysiology, microscopy, laser tweezers, microfluidics, and analytical modeling. Dr. Resnick's research focuses on the intersection of physics and biology, particularly examining how renal and airway epithelial tissues respond to fluid flow stimulation in contexts of tissue maintenance and repair. His work emphasizes multidisciplinary approaches, with long-term goals of bridging physics and biology to produce revolutionary results. Key areas include primary cilia mechanics, cellular mechanotransduction, and optical manipulation techniques. Analysis of Dr. Resnick's publication record reveals consistent focus on cilia biophysics and fluid-structure interactions across biological systems. His work spans fundamental physics of cellular structures to applied physiological investigations, demonstrating strong integration of mathematical modeling with experimental approaches. Recent publications show expanding applications into educational research and interdisciplinary topics like martial arts physics. Dr. Resnick actively mentors graduate researchers, currently supervising Pinak Deshpande and doctoral student Ishan Chawan. His laboratory work involves collaboration across disciplines, with emphasis on training students in both biological and physical science methodologies. The GRHD center provides infrastructure support for his research program, facilitating access to advanced instrumentation. The Resnick laboratory investigates biological systems including renal and airway epithelial tissues to study connections between fluid flow stimulation and physiological responses. His team employs multidisciplinary approaches combining physics principles with biological experimentation, maintaining a research environment focused on crossing traditional disciplinary boundaries to address complex physiological questions.

Timothy Fitzgeraldمشاهده پروفایل

استاد

• Nonlinear fluid-structure interactions
• Computational continuum mechanics
• Experimental characterization of biological systems
• +۲ مورد دیگر

Timothy Fitzgerald serves as Professor of Mechanical Engineering and Associate Dean of Academics and Research at Gonzaga University's School of Engineering & Applied Science, where he maintains active faculty status alongside administrative leadership. His research focuses on interdisciplinary mechanical systems with emphasis on: Nonlinear fluid-structure interactions in biological contexts Advanced computational continuum mechanics methodologies Experimental characterization of biological systems Complex system dynamics analysis Reduced-order modeling for control applications No scientific awards were documented in the provided source material. Administrative responsibilities as Associate Dean indicate leadership in academic programming, though specific advising activities, grant funding details, laboratory facilities, or research teams were not referenced in the available profile information.

• Fluid Flow in Porous Media
• Numerical Analysis
• Modeling
• +۳ مورد دیگر

Dr. Anna Maria Spagnuolo serves as Professor of Mathematics in the Department of Mathematics and Statistics at Oakland University's College of Arts and Sciences and as Executive Director of the Oakland University Math Corps. She earned her Ph.D. from Purdue University and has developed a distinguished research program bridging theoretical mathematics with practical applications. Her research focuses on Fluid Flow in Porous Media , Numerical Analysis , Mathematical Modeling , and applications in Mathematical Biology including the Computation of Disease Processes . Her interdisciplinary work combines computational methods with physical modeling to address complex problems in fluid dynamics and biological systems. 2023 Distinguished Professor of the Year Award, Michigan Association of State Universities Dr. Spagnuolo has successfully mentored doctoral students including Amera H. Almusharrf (2016) who researched 'Delay Differential Equations and the Logistic Model with Two Delays,' and Daniel Coffield (2009) who developed 'A Model for Single Phase Flow in Horizontally Fractured Porous Media Using Homogenization Techniques.' Her students have progressed to academic positions at institutions including The Royal Commission Yanbu Colleges & Institutes and the University of Michigan-Flint. As Executive Director of the Oakland University Math Corps, she leads comprehensive mathematics education initiatives that provide tutoring, mentoring, and enrichment programs for students from elementary through college levels, with particular emphasis on supporting underserved student populations.

• Robotics
• Biomechanics
• Control Systems
• +۳ مورد دیگر

Shai Revzen is a Professor in the Department of Electrical and Computer Engineering at the University of Michigan, specializing in robotics, biomechanics, and control systems. His research focuses on geometric mechanics, multi-legged locomotion, and data-driven modeling of biological and robotic systems. He emphasizes independent thinking in students and requires weekly structured updates, including progress tracking and problem-solving. Revzen’s lab maintains rigorous communication protocols, with public calendars and mandatory weekly meetings. His work integrates experimental validation, sensor calibration, and theoretical frameworks such as Koopman operator theory to model complex systems. Recent studies explore phase response dynamics in biological systems and modular robot design with wireless power solutions. Revzen advocates for professional development, requiring students to mentor undergraduates and gain teaching experience through GSI roles. Conference attendance is fully funded, with a focus on IEEE robotics events and interdisciplinary meetings like Dynamic Walking. Revzen’s advising style prioritizes autonomy, expecting students to evolve into junior colleagues by graduation. Authorship policies are transparent, with contributions tracked across ideas, data, analysis, writing, and supervision. The lab environment emphasizes results over hours worked, with a culture valuing health and work-life balance.

Gareth Morrisمشاهده پروفایل

استاد

• NMR Spectroscopy
• Diffusion-Ordered Spectroscopy (DOSY)
• Analytical Chemistry
• +۳ مورد دیگر

Professor Gareth Morris is a Professor of Physical Chemistry at the University of Manchester, leading research in NMR spectroscopy techniques and their applications in chemistry, biochemistry, and medicine. He holds an esteemed position in the Department of Chemistry, contributing to advancements in diffusion-ordered spectroscopy (DOSY), pure shift NMR, and instrumentation development. His work spans structural analysis of large molecules, localized human spectra, and pH imaging in the brain. Education: Began at Magdalen College Oxford (1972-1981), with a postdoctoral fellowship at the University of British Columbia (1978-1979). Joined the University of Manchester in 1982. Research Interests: Focuses on novel NMR methodologies, including DOSY for complex mixtures, pH imaging in the brain, deconvolution techniques, and instrument improvements. His group is part of the Analytical Science and Spectroscopy research clusters. Articles Trends: Recent work emphasizes ultra-high resolution NMR, solvent suppression, and real-time spectral analysis. Key contributions include advancements in pure shift NMR for continuous flow systems and resolving complex mixtures via diffusion techniques. RSC Corday-Morgan Medal (1988) Fellow of the Royal Society (2014) Russell Varian Prize (2011) Günther Laukien Prize (2021) Advising/Grants: Actively accepts PhD students and leads projects like the NMR spectrometer development (2020-2025). Collaborates internationally on spectroscopic methodologies. Labs/Teams: Member of the Manchester NMR group, one of the world's best-equipped NMR facilities, with over ten superconducting spectrometers. Collaborates with teams in Paris and British Columbia.