Find Academic Supervisors

• Theoretical Physics
• Biophysics
• Soft Matter Physics
• +3 more

Professor Roland Netz is a faculty member at the Free University of Berlin's Department of Physics and Institute for Theoretical Physics, leading research at the intersection of theoretical physics, biophysics, and soft matter science. His work combines computational modeling with fundamental physical principles to address complex biological and nanoscale phenomena. His research portfolio spans: Polyelectrolyte behavior at dielectric interfaces Single-molecule friction mechanisms RNA secondary structure modeling Nanofluidic systems far from equilibrium Protein dynamics and folding landscapes Hydrogel transport properties Professor Netz maintains an exceptionally active grant portfolio with continuous DFG funding since at least 2005. His current leadership roles include principal investigator for Priority Programs on polyelectrolytes and ion specificity, plus subproject leadership in seven Collaborative Research Centers covering interface dynamics, superhydrophobicity, and hydrogel rheology. The International Research Training Group GRK 2662 represents his major international collaboration platform. His research demonstrates consistent evolution from fundamental polymer physics toward biomedical applications, with recent projects increasingly focusing on biosystem interactions. The group maintains strong methodological continuity in multiscale modeling while expanding into new application domains including drug delivery systems and biomolecular transport phenomena.

Angelo VallerianiView profile

Research Professor

• Stochastic Processes
• RNA Biology
• Population Genetics
• +8 more

Dr. Angelo Valleriani serves as Group Leader for Stochastic Processes in Complex and Biological Systems at the Max Planck Institute of Colloids and Interfaces in Potsdam, Germany, and coordinates the International Max Planck Research School (IMPRS) on Multiscale Bio-Systems. His research bridges theoretical physics and biological applications with a focus on quantitative modeling of complex biological phenomena. Dr. Valleriani earned his PhD in High Energy Physics from SISSA in Trieste, Italy (1996), following a Laurea Degree in Theoretical Physics from the University of Bologna (1992) with full marks and honors. His academic journey includes Visiting Scientist positions at Max Planck Institutes in Golm and Dresden before becoming a Group Leader in November 2000. His research interests encompass: Stochastic modeling of biological processes RNA biology and translational control mechanisms mRNA and tRNA turnover dynamics Population genetics and evolutionary biology Biostatistical data analysis Dr. Valleriani's recent publications (2022-2024) reveal a strong emphasis on computational approaches to biological problems, particularly in ribosome dynamics, protein synthesis regulation, and cellular remodeling processes. His work demonstrates sophisticated integration of mathematical modeling with experimental biology. He maintains active collaborations with researchers from multiple institutions including the University of Potsdam (Silke Leimkühler, Carsten Beta, Stefanie Barbirz), University of Cambridge (Davide Chiarugi), Weizmann Institute (Ziv Reich, Ruti Kapon), DRFZ Berlin (Ria Baumgrass), and others. The research group actively recruits MSc students from physics, mathematics, engineering, and bioinformatics backgrounds for challenging thesis projects in computational biology and biophysics.

• Molecular Dynamics
• Free Energy Calculations
• Non-Equilibrium Simulations
• +3 more

Dr. Robinson Cortes-Huerto serves as Group Leader at the Max Planck Institute for Polymer Research (MPI-P) in Mainz since 2019, leading research in advanced molecular simulation methodologies within Prof. Kurt Kremer's department. His position represents a senior research-focused academic role equivalent to Research Professor in the German Max Planck system. His educational trajectory includes: Bachelor's and Master's degrees in Physics from Universidad Nacional de Colombia, Bogotá Doctorate (2010) from Queen's University Belfast under Prof. Pietro Ballone Postdoctoral research at CINaM-Marseille, INSP-Paris, and CEA-Saclay Research expertise centers on developing the adaptive solution method for free energy calculations and non-equilibrium molecular dynamics. Key innovations include spatially resolved thermodynamic integration techniques and spatial block analysis for extrapolating thermodynamic properties from finite simulations. His work bridges computational chemistry, statistical mechanics, and soft matter physics, with applications in solvation thermodynamics and pressure-driven flow analysis. Publications from 2018-2019 reveal cohesive methodological advancements: extending adaptive resolution to grand canonical ensembles, refining non-equilibrium work relations, and addressing finite-size effects through integral equations. These contributions establish robust frameworks for calculating chemical potentials in dense fluids while maintaining linear momentum conservation in non-equilibrium conditions. Scientific recognition includes: Alexander von Humboldt Research Fellowship (2015) As Group Leader, he directs independent research funding and mentors junior scientists within MPI-P's collaborative environment. His work with collaborators like M. Heidari and R. Potestio demonstrates strong interdisciplinary networks in computational physics. Current projects focus on extending adaptive resolution techniques to complex molecular systems while investigating pressure-driven flows and solvation state transitions. His laboratory operates within MPI-P's polymer research infrastructure, utilizing high-performance computing resources to develop simulation tools that bridge atomistic and coarse-grained representations. The group's methodology enables precise free energy calculations previously unattainable in traditional molecular dynamics frameworks.

• Toxicology
• Hepatology
• Drug Metabolism
• +5 more

Daniela González Leiva is a Scientific Associate in the Department of Intravital Toxicology at the Technical University of Dortmund, where she conducts research on liver toxicology, drug metabolism, and bile acid pathways. Her work primarily focuses on understanding the mechanisms of drug-induced liver injury, species differences in toxin metabolism, and the role of various proteins in liver disease progression. Dr. González Leiva's research interests span multiple areas of toxicology with a particular emphasis on hepatotoxicity , bile acid metabolism , and species differences in drug metabolism . Her work combines intravital imaging techniques with molecular and biochemical analyses to investigate how toxins and drugs affect liver and kidney function. She has made significant contributions to understanding acetaminophen toxicity , ochratoxin A metabolism , and the role of WISP1 protein in liver fibrosis and cancer progression. Analysis of Dr. González Leiva's recent publications reveals a consistent focus on liver toxicology with particular attention to bile acid metabolism, drug-induced liver injury, and species differences in toxin processing. Her work frequently employs mouse and rat models to study hepatotoxicity , nephrotoxicity , and metabolic disorders . A notable trend is her investigation of WISP1 protein in liver fibrosis and cancer, as well as her research on how hypoalbuminemia affects toxin distribution and the mechanisms of blood-bile barrier disruption. As a member of the Intravital Toxicology team led by Prof. Dr. Jan G. Hengstler, Dr. González Leiva collaborates with researchers across multiple disciplines including hepatology, nephrology, and analytical chemistry. The team utilizes advanced imaging techniques and molecular analyses to study real-time physiological processes in living organisms, providing insights into the mechanisms of toxicity and disease progression.

• Toxicology
• Intravital Imaging
• Drug-Induced Liver Injury
• +5 more

Dr. Reham Hassan Reyad Khalil Alkashef is a Scientific Associate in the Intravital Toxicology department at the Institute for Work Physiology (IFADO) at Technische Universität Dortmund. She works under the leadership of Prof. Dr. Jan G. Hengstler and specializes in advanced toxicological research using intravital imaging techniques to study liver toxicity, drug metabolism, and interspecies differences in toxic responses. Her primary research interests include: Intravital imaging of toxicological processes Drug-induced liver injury and mechanisms Bile acid transport and metabolism Mycotoxin (ochratoxin A, AFB1) metabolism and toxicity Species differences in toxicological responses Liver-kidney axis in toxicology Spatiotemporal distribution of toxins Dr. Alkashef's publication record demonstrates extensive work on liver toxicity mechanisms, with particular emphasis on acetaminophen-induced injury, bile acid homeostasis, and mycotoxin metabolism. Her research integrates intravital imaging with analytical techniques like HPLC-MS/MS to provide comprehensive understanding of toxicokinetics and toxicodynamics. Recent publications show her active role in developing liver digital twins for in silico toxicity testing and investigating the liver-kidney axis in cholestatic conditions. Her research has significant implications for drug safety assessment, understanding species differences in toxic responses, and developing strategies to mitigate drug-induced organ damage. She frequently collaborates with interdisciplinary teams including computational biologists, hepatologists, and pharmacologists to advance the field of toxicology.

Uta HelbigView profile

Professor

• Nanomaterials
• Crystallography
• X-ray diffraction
• +3 more

Professor Uta Helbig is a Professor of Crystallography and X-ray Methods at the Faculty of Materials Science at Nuremberg University of Applied Sciences since 2013. She serves as Women's Representative and Commissioner for Science and Technology Transfer at the institution. Her research focuses on nanomaterials for PEM fuel cells and cultural heritage protection and conservation. Professor Helbig completed her mineralogy studies at universities in Würzburg and Leipzig (1992-1998), followed by a PhD at the Fraunhofer Institute for Silicate Research. She has held research positions at the University of Würzburg and Fraunhofer Institute before joining Nuremberg University. Her primary research interests include nanomaterials for fuel cell technology, crystallography, X-ray diffraction techniques, and cultural heritage conservation. She investigates carbon-doped titania nanotubes, proton-conducting membranes, and materials for hydrogen fuel cells. Her work bridges fundamental materials science with practical applications in energy technology and cultural preservation. Professor Helbig's recent publications demonstrate expertise in nanomaterials synthesis, characterization, and application. Her work spans computational modeling of nanotube networks, charge carrier dynamics in doped titania, microencapsulation for phase change materials, and corrosion mechanisms in cultural artifacts. Her research shows consistent focus on nanomaterials for energy applications and cultural heritage protection. DATEV eG 2016 Award for Damage Analysis of a Historical Silver Object from the Collection of the Germanisches Nationalmuseum (Catalogue No.: Med7053) (Bachelor's Thesis by Julia Hoppe) Professor Helbig supervises Master's and Bachelor's theses on fluorine-free polymer membranes and alternative solvents for fuel cell membranes. She leads multiple research projects including "DuraFuelCell" (2024-2029), "Replacing Perishable Chemicals in Proton-Conducting Membranes" (2024-2025), and "Micro- and Nanostructured Functional Materials" (2022-2025), with funding from DFG, STAEDTLER Foundation, and Bavarian State Ministry. She is affiliated with the Institute for Chemistry, Materials and Product Development (OHM-CMP) and collaborates with researchers across Germany on nanomaterials for energy applications and cultural heritage conservation.

• Computational Mechanics
• Finite Element Methods
• Structural Analysis
• +7 more

Professor Michael Kaliske is a leading researcher at Dresden University of Technology's Institute of Statics and Dynamics of Structures, where he conducts cutting-edge research in computational mechanics and structural engineering. His work bridges theoretical developments with practical applications across civil, mechanical, and materials engineering disciplines. Professor Kaliske's research focuses on computational mechanics with particular expertise in finite element methods, multiscale modeling, and material behavior under various loading conditions. His work spans diverse application areas including concrete technology, wooden structures, elastomeric materials (particularly tires), and uncertainty quantification in structural design. He has developed sophisticated numerical frameworks for analyzing complex structural behaviors, especially in contexts where traditional analytical methods fall short. His research demonstrates strong interdisciplinary connections between civil engineering, mechanical engineering, and computational science with practical applications in infrastructure durability and material design. His publication record shows consistent advancement in computational methods for structural analysis, with recent work emphasizing multiscale approaches, uncertainty quantification, and experimental validation. The research themes demonstrate progression from fundamental material modeling to increasingly complex system-level analysis, particularly in infrastructure durability and tire-road interaction phenomena. His work increasingly incorporates data-driven approaches and uncertainty modeling to address real-world engineering challenges. Professor Kaliske actively leads multiple research projects funded by the German Research Foundation (DFG), including ongoing Priority Programs and Material Grants. His project portfolio demonstrates significant contributions to both theoretical developments in computational mechanics and practical applications in civil infrastructure and industrial manufacturing. His research has particularly strong connections to industrial applications in tire manufacturing and road infrastructure design.

William A.V. ClarkView profile

Professor

• Demographic Change
• Residential Mobility
• Residential Segregation
• +4 more

William A.V. Clark is a Distinguished Research Professor in the Department of Geography at the University of California, Los Angeles and a faculty associate of the California Center for Population Research. His academic career spans decades of research in demographic change, residential mobility, and residential segregation in urban environments. Clark's research interests focus on demographic change, models of residential mobility, and the sorting processes that bring about residential segregation in the urban mosaic. His work examines life course decisions, particularly regarding family formation, housing choices, and migration patterns across different cultural contexts, with significant attention to China's changing society. His research integrates behavioral economics, particularly prospect theory, with geographical analysis to understand residential decisions. His publications reveal a consistent focus on residential mobility patterns, housing market dynamics, family formation transitions, and segregation processes. Over time, his work has expanded from traditional Western contexts to include comparative international studies, particularly in China, examining how cultural and economic factors influence life course decisions. The recent publications show increasing attention to digital technology's impact on geographical diversity and pandemic-related behavioral adaptations. Fellow at Netherlands Institute for Advanced Studies in the Humanities and Social Sciences (1993) Guggenheim Fellowship (1994-95) Elected member of American Academy of Arts and Sciences (2003) Elected member of U.S. National Academy of Sciences (2005) Senior Fulbright Scholar at Victoria University Wellington (2008) United Kingdom Economic and Social Research Council Professorship at St Andrews (2011) Clark has published ten books, including the recent co-edited volume The Sage Handbook of Housing (2012). His research has been supported by prestigious fellowships and professorships across multiple countries, reflecting the international significance of his contributions to demographic and geographical sciences.